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Regard whitespace Rev 1179 → Rev 1129

/drivers/video/drm/drm_fb_helper.c
File deleted
/drivers/video/drm/include/types.h
0,0 → 1,236
 
#ifndef __TYPES_H__
#define __TYPES_H__
 
 
typedef int bool;
 
#define false 0
#define true 1
 
typedef unsigned int size_t;
typedef unsigned int count_t;
typedef unsigned int addr_t;
 
typedef unsigned char u8;
typedef unsigned short u16;
typedef unsigned int u32;
typedef unsigned long long u64;
 
typedef unsigned char __u8;
typedef unsigned short __u16;
typedef unsigned int __u32;
typedef unsigned long long __u64;
 
typedef signed char __s8;
typedef signed short __s16;
typedef signed int __s32;
typedef signed long long __s64;
 
 
typedef unsigned char uint8_t;
typedef unsigned short uint16_t;
typedef unsigned int uint32_t;
typedef unsigned long long uint64_t;
 
typedef unsigned char u8_t;
typedef unsigned short u16_t;
typedef unsigned int u32_t;
typedef unsigned long long u64_t;
 
typedef signed char int8_t;
typedef signed long long int64_t;
 
#define NULL (void*)0
 
typedef uint32_t dma_addr_t;
typedef uint32_t resource_size_t;
 
#define __user
 
#define cpu_to_le16(v16) (v16)
#define cpu_to_le32(v32) (v32)
#define cpu_to_le64(v64) (v64)
#define le16_to_cpu(v16) (v16)
#define le32_to_cpu(v32) (v32)
#define le64_to_cpu(v64) (v64)
 
#define likely(x) __builtin_expect(!!(x), 1)
#define unlikely(x) __builtin_expect(!!(x), 0)
 
#define BITS_PER_LONG 32
 
#define DIV_ROUND_UP(n,d) (((n) + (d) - 1) / (d))
 
#define BITS_TO_LONGS(nr) DIV_ROUND_UP(nr, BITS_PER_LONG)
 
#define DECLARE_BITMAP(name,bits) \
unsigned long name[BITS_TO_LONGS(bits)]
 
 
#define KERN_EMERG "<0>" /* system is unusable */
#define KERN_ALERT "<1>" /* action must be taken immediately */
#define KERN_CRIT "<2>" /* critical conditions */
#define KERN_ERR "<3>" /* error conditions */
#define KERN_WARNING "<4>" /* warning conditions */
#define KERN_NOTICE "<5>" /* normal but significant condition */
#define KERN_INFO "<6>" /* informational */
#define KERN_DEBUG "<7>" /* debug-level messages */
 
//int printk(const char *fmt, ...);
 
#define printk(fmt, arg...) dbgprintf(fmt , ##arg)
 
 
#define DRM_NAME "drm" /**< Name in kernel, /dev, and /proc */
 
#define DRM_INFO(fmt, arg...) dbgprintf("DRM: "fmt , ##arg)
 
#define DRM_ERROR(fmt, arg...) \
printk(KERN_ERR "[" DRM_NAME ":%s] *ERROR* " fmt , __func__ , ##arg)
 
#define BUILD_BUG_ON_ZERO(e) (sizeof(char[1 - 2 * !!(e)]) - 1)
 
#define __must_be_array(a) \
BUILD_BUG_ON_ZERO(__builtin_types_compatible_p(typeof(a), typeof(&a[0])))
 
#define ARRAY_SIZE(arr) (sizeof(arr) / sizeof((arr)[0]) + __must_be_array(arr))
 
 
 
 
#ifndef HAVE_ARCH_BUG
#define BUG() do { \
printk("BUG: failure at %s:%d/%s()!\n", __FILE__, __LINE__, __FUNCTION__); \
/* panic("BUG!"); */ \
} while (0)
#endif
 
#ifndef HAVE_ARCH_BUG_ON
#define BUG_ON(condition) do { if (unlikely(condition)) BUG(); } while(0)
#endif
 
 
 
#define MTRR_TYPE_UNCACHABLE 0
#define MTRR_TYPE_WRCOMB 1
#define MTRR_TYPE_WRTHROUGH 4
#define MTRR_TYPE_WRPROT 5
#define MTRR_TYPE_WRBACK 6
#define MTRR_NUM_TYPES 7
 
int dbgprintf(const char* format, ...);
 
#define GFP_KERNEL 0
 
//#include <stdio.h>
 
int snprintf(char *str, size_t size, const char *format, ...);
 
 
//#include <string.h>
 
void* memcpy(void *s1, const void *s2, size_t n);
void* memset(void *s, int c, size_t n);
size_t strlen(const char *s);
char *strcpy(char *s1, const char *s2);
char *strncpy (char *dst, const char *src, size_t len);
 
void *malloc(size_t size);
 
#define kmalloc(s,f) malloc((s))
#define kfree free
 
static inline void *kzalloc(size_t size, u32_t flags)
{
void *ret = malloc(size);
memset(ret, 0, size);
return ret;
}
 
struct drm_file;
 
#define offsetof(TYPE,MEMBER) __builtin_offsetof(TYPE,MEMBER)
 
#define container_of(ptr, type, member) ({ \
const typeof( ((type *)0)->member ) *__mptr = (ptr); \
(type *)( (char *)__mptr - offsetof(type,member) );})
 
 
 
#define DRM_MEMORYBARRIER() __asm__ __volatile__("lock; addl $0,0(%esp)")
#define mb() __asm__ __volatile__("lock; addl $0,0(%esp)")
 
#define PAGE_SIZE 4096
#define PAGE_SHIFT 12
 
#define upper_32_bits(n) ((u32)(((n) >> 16) >> 16))
 
static inline void bitmap_zero(unsigned long *dst, int nbits)
{
if (nbits <= BITS_PER_LONG)
*dst = 0UL;
else {
int len = BITS_TO_LONGS(nbits) * sizeof(unsigned long);
memset(dst, 0, len);
}
}
 
#define EXPORT_SYMBOL(x)
 
#define min(x,y) ({ \
typeof(x) _x = (x); \
typeof(y) _y = (y); \
(void) (&_x == &_y); \
_x < _y ? _x : _y; })
 
#define max(x,y) ({ \
typeof(x) _x = (x); \
typeof(y) _y = (y); \
(void) (&_x == &_y); \
_x > _y ? _x : _y; })
 
 
extern uint32_t __div64_32(uint64_t *dividend, uint32_t divisor);
 
# define do_div(n,base) ({ \
uint32_t __base = (base); \
uint32_t __rem; \
(void)(((typeof((n)) *)0) == ((uint64_t *)0)); \
if (likely(((n) >> 32) == 0)) { \
__rem = (uint32_t)(n) % __base; \
(n) = (uint32_t)(n) / __base; \
} else \
__rem = __div64_32(&(n), __base); \
__rem; \
})
 
#define lower_32_bits(n) ((u32)(n))
 
#define INT_MAX ((int)(~0U>>1))
#define INT_MIN (-INT_MAX - 1)
#define UINT_MAX (~0U)
#define LONG_MAX ((long)(~0UL>>1))
#define LONG_MIN (-LONG_MAX - 1)
#define ULONG_MAX (~0UL)
#define LLONG_MAX ((long long)(~0ULL>>1))
#define LLONG_MIN (-LLONG_MAX - 1)
#define ULLONG_MAX (~0ULL)
 
 
static inline void *kcalloc(size_t n, size_t size, u32_t flags)
{
if (n != 0 && size > ULONG_MAX / n)
return NULL;
return kzalloc(n * size, 0);
}
 
#define ENTRY() dbgprintf("enter %s\n",__FUNCTION__)
#define LEAVE() dbgprintf("leave %s\n",__FUNCTION__)
 
#define ALIGN(x,a) __ALIGN_MASK(x,(typeof(x))(a)-1)
#define __ALIGN_MASK(x,mask) (((x)+(mask))&~(mask))
 
#define PCI_DEVICE_ID_ATI_RADEON_QY 0x5159
 
#endif //__TYPES_H__
/drivers/video/drm/include/drmP.h
0,0 → 1,1555
/**
* \file drmP.h
* Private header for Direct Rendering Manager
*
* \author Rickard E. (Rik) Faith <faith@valinux.com>
* \author Gareth Hughes <gareth@valinux.com>
*/
 
/*
* Copyright 1999 Precision Insight, Inc., Cedar Park, Texas.
* Copyright 2000 VA Linux Systems, Inc., Sunnyvale, California.
* All rights reserved.
*
* Permission is hereby granted, free of charge, to any person obtaining a
* copy of this software and associated documentation files (the "Software"),
* to deal in the Software without restriction, including without limitation
* the rights to use, copy, modify, merge, publish, distribute, sublicense,
* and/or sell copies of the Software, and to permit persons to whom the
* Software is furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice (including the next
* paragraph) shall be included in all copies or substantial portions of the
* Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL
* VA LINUX SYSTEMS AND/OR ITS SUPPLIERS BE LIABLE FOR ANY CLAIM, DAMAGES OR
* OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE,
* ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR
* OTHER DEALINGS IN THE SOFTWARE.
*/
 
#ifndef _DRM_P_H_
#define _DRM_P_H_
 
#include <pci.h>
#include <drm.h>
 
#include <drm_edid.h>
#include <drm_crtc.h>
 
//#include <linux/idr.h>
 
struct drm_file;
struct drm_device;
 
//#include "drm_os_linux.h"
//#include "drm_hashtab.h"
//#include "drm_mm.h"
 
#define DRM_UT_CORE 0x01
#define DRM_UT_DRIVER 0x02
#define DRM_UT_KMS 0x04
#define DRM_UT_MODE 0x08
 
#define KHZ2PICOS(a) (1000000000UL/(a))
 
extern void drm_ut_debug_printk(unsigned int request_level,
const char *prefix,
const char *function_name,
const char *format, ...);
 
#define DRM_DEBUG_MODE(prefix, fmt, args...) \
do { \
dbgprintf("drm debug: %s" fmt, \
__func__, ##args); \
} while (0)
 
#define DRM_DEBUG(fmt, arg...) \
printk("[" DRM_NAME ":%s] " fmt , __func__ , ##arg)
 
 
/**
* This structure defines the drm_mm memory object, which will be used by the
* DRM for its buffer objects.
*/
struct drm_gem_object {
/** Reference count of this object */
// struct kref refcount;
 
/** Handle count of this object. Each handle also holds a reference */
// struct kref handlecount;
 
/** Related drm device */
struct drm_device *dev;
 
/** File representing the shmem storage */
// struct file *filp;
 
/* Mapping info for this object */
// struct drm_map_list map_list;
 
/**
* Size of the object, in bytes. Immutable over the object's
* lifetime.
*/
size_t size;
 
/**
* Global name for this object, starts at 1. 0 means unnamed.
* Access is covered by the object_name_lock in the related drm_device
*/
int name;
 
/**
* Memory domains. These monitor which caches contain read/write data
* related to the object. When transitioning from one set of domains
* to another, the driver is called to ensure that caches are suitably
* flushed and invalidated
*/
uint32_t read_domains;
uint32_t write_domain;
 
/**
* While validating an exec operation, the
* new read/write domain values are computed here.
* They will be transferred to the above values
* at the point that any cache flushing occurs
*/
uint32_t pending_read_domains;
uint32_t pending_write_domain;
 
void *driver_private;
};
 
 
#if 0
 
/***********************************************************************/
/** \name DRM template customization defaults */
/*@{*/
 
/* driver capabilities and requirements mask */
#define DRIVER_USE_AGP 0x1
#define DRIVER_REQUIRE_AGP 0x2
#define DRIVER_USE_MTRR 0x4
#define DRIVER_PCI_DMA 0x8
#define DRIVER_SG 0x10
#define DRIVER_HAVE_DMA 0x20
#define DRIVER_HAVE_IRQ 0x40
#define DRIVER_IRQ_SHARED 0x80
#define DRIVER_IRQ_VBL 0x100
#define DRIVER_DMA_QUEUE 0x200
#define DRIVER_FB_DMA 0x400
#define DRIVER_IRQ_VBL2 0x800
#define DRIVER_GEM 0x1000
#define DRIVER_MODESET 0x2000
 
/***********************************************************************/
/** \name Begin the DRM... */
/*@{*/
 
#define DRM_DEBUG_CODE 2 /**< Include debugging code if > 1, then
also include looping detection. */
 
#define DRM_MAGIC_HASH_ORDER 4 /**< Size of key hash table. Must be power of 2. */
#define DRM_KERNEL_CONTEXT 0 /**< Change drm_resctx if changed */
#define DRM_RESERVED_CONTEXTS 1 /**< Change drm_resctx if changed */
#define DRM_LOOPING_LIMIT 5000000
#define DRM_TIME_SLICE (HZ/20) /**< Time slice for GLXContexts */
#define DRM_LOCK_SLICE 1 /**< Time slice for lock, in jiffies */
 
#define DRM_FLAG_DEBUG 0x01
 
#define DRM_MAX_CTXBITMAP (PAGE_SIZE * 8)
#define DRM_MAP_HASH_OFFSET 0x10000000
 
/*@}*/
 
/***********************************************************************/
/** \name Macros to make printk easier */
/*@{*/
 
/**
* Error output.
*
* \param fmt printf() like format string.
* \param arg arguments
*/
#define DRM_ERROR(fmt, arg...) \
printk(KERN_ERR "[" DRM_NAME ":%s] *ERROR* " fmt , __func__ , ##arg)
 
/**
* Memory error output.
*
* \param area memory area where the error occurred.
* \param fmt printf() like format string.
* \param arg arguments
*/
#define DRM_MEM_ERROR(area, fmt, arg...) \
printk(KERN_ERR "[" DRM_NAME ":%s:%s] *ERROR* " fmt , __func__, \
drm_mem_stats[area].name , ##arg)
 
#define DRM_INFO(fmt, arg...) printk(KERN_INFO "[" DRM_NAME "] " fmt , ##arg)
 
/**
* Debug output.
*
* \param fmt printf() like format string.
* \param arg arguments
*/
#if DRM_DEBUG_CODE
#define DRM_DEBUG(fmt, args...) \
do { \
drm_ut_debug_printk(DRM_UT_CORE, DRM_NAME, \
__func__, fmt, ##args); \
} while (0)
 
#define DRM_DEBUG_DRIVER(prefix, fmt, args...) \
do { \
drm_ut_debug_printk(DRM_UT_DRIVER, prefix, \
__func__, fmt, ##args); \
} while (0)
#define DRM_DEBUG_KMS(prefix, fmt, args...) \
do { \
drm_ut_debug_printk(DRM_UT_KMS, prefix, \
__func__, fmt, ##args); \
} while (0)
#define DRM_DEBUG_MODE(prefix, fmt, args...) \
do { \
drm_ut_debug_printk(DRM_UT_MODE, prefix, \
__func__, fmt, ##args); \
} while (0)
#define DRM_LOG(fmt, args...) \
do { \
drm_ut_debug_printk(DRM_UT_CORE, NULL, \
NULL, fmt, ##args); \
} while (0)
#define DRM_LOG_KMS(fmt, args...) \
do { \
drm_ut_debug_printk(DRM_UT_KMS, NULL, \
NULL, fmt, ##args); \
} while (0)
#define DRM_LOG_MODE(fmt, args...) \
do { \
drm_ut_debug_printk(DRM_UT_MODE, NULL, \
NULL, fmt, ##args); \
} while (0)
#define DRM_LOG_DRIVER(fmt, args...) \
do { \
drm_ut_debug_printk(DRM_UT_DRIVER, NULL, \
NULL, fmt, ##args); \
} while (0)
#else
#define DRM_DEBUG_DRIVER(prefix, fmt, args...) do { } while (0)
#define DRM_DEBUG_KMS(prefix, fmt, args...) do { } while (0)
#define DRM_DEBUG_MODE(prefix, fmt, args...) do { } while (0)
#define DRM_DEBUG(fmt, arg...) do { } while (0)
#define DRM_LOG(fmt, arg...) do { } while (0)
#define DRM_LOG_KMS(fmt, args...) do { } while (0)
#define DRM_LOG_MODE(fmt, arg...) do { } while (0)
#define DRM_LOG_DRIVER(fmt, arg...) do { } while (0)
 
#endif
 
#define DRM_PROC_LIMIT (PAGE_SIZE-80)
 
#define DRM_PROC_PRINT(fmt, arg...) \
len += sprintf(&buf[len], fmt , ##arg); \
if (len > DRM_PROC_LIMIT) { *eof = 1; return len - offset; }
 
#define DRM_PROC_PRINT_RET(ret, fmt, arg...) \
len += sprintf(&buf[len], fmt , ##arg); \
if (len > DRM_PROC_LIMIT) { ret; *eof = 1; return len - offset; }
 
/*@}*/
 
/***********************************************************************/
/** \name Internal types and structures */
/*@{*/
 
#define DRM_ARRAY_SIZE(x) ARRAY_SIZE(x)
 
#define DRM_LEFTCOUNT(x) (((x)->rp + (x)->count - (x)->wp) % ((x)->count + 1))
#define DRM_BUFCOUNT(x) ((x)->count - DRM_LEFTCOUNT(x))
#define DRM_WAITCOUNT(dev,idx) DRM_BUFCOUNT(&dev->queuelist[idx]->waitlist)
 
#define DRM_IF_VERSION(maj, min) (maj << 16 | min)
/**
* Get the private SAREA mapping.
*
* \param _dev DRM device.
* \param _ctx context number.
* \param _map output mapping.
*/
#define DRM_GET_PRIV_SAREA(_dev, _ctx, _map) do { \
(_map) = (_dev)->context_sareas[_ctx]; \
} while(0)
 
/**
* Test that the hardware lock is held by the caller, returning otherwise.
*
* \param dev DRM device.
* \param filp file pointer of the caller.
*/
#define LOCK_TEST_WITH_RETURN( dev, _file_priv ) \
do { \
if (!_DRM_LOCK_IS_HELD(_file_priv->master->lock.hw_lock->lock) || \
_file_priv->master->lock.file_priv != _file_priv) { \
DRM_ERROR( "%s called without lock held, held %d owner %p %p\n",\
__func__, _DRM_LOCK_IS_HELD(_file_priv->master->lock.hw_lock->lock),\
_file_priv->master->lock.file_priv, _file_priv); \
return -EINVAL; \
} \
} while (0)
 
/**
* Copy and IOCTL return string to user space
*/
#define DRM_COPY( name, value ) \
len = strlen( value ); \
if ( len > name##_len ) len = name##_len; \
name##_len = strlen( value ); \
if ( len && name ) { \
if ( copy_to_user( name, value, len ) ) \
return -EFAULT; \
}
 
/**
* Ioctl function type.
*
* \param inode device inode.
* \param file_priv DRM file private pointer.
* \param cmd command.
* \param arg argument.
*/
typedef int drm_ioctl_t(struct drm_device *dev, void *data,
struct drm_file *file_priv);
 
typedef int drm_ioctl_compat_t(struct file *filp, unsigned int cmd,
unsigned long arg);
 
#define DRM_AUTH 0x1
#define DRM_MASTER 0x2
#define DRM_ROOT_ONLY 0x4
#define DRM_CONTROL_ALLOW 0x8
 
struct drm_ioctl_desc {
unsigned int cmd;
int flags;
drm_ioctl_t *func;
};
 
/**
* Creates a driver or general drm_ioctl_desc array entry for the given
* ioctl, for use by drm_ioctl().
*/
#define DRM_IOCTL_DEF(ioctl, _func, _flags) \
[DRM_IOCTL_NR(ioctl)] = {.cmd = ioctl, .func = _func, .flags = _flags}
 
struct drm_magic_entry {
struct list_head head;
struct drm_hash_item hash_item;
struct drm_file *priv;
};
 
struct drm_vma_entry {
struct list_head head;
struct vm_area_struct *vma;
pid_t pid;
};
 
/**
* DMA buffer.
*/
struct drm_buf {
int idx; /**< Index into master buflist */
int total; /**< Buffer size */
int order; /**< log-base-2(total) */
int used; /**< Amount of buffer in use (for DMA) */
unsigned long offset; /**< Byte offset (used internally) */
void *address; /**< Address of buffer */
unsigned long bus_address; /**< Bus address of buffer */
struct drm_buf *next; /**< Kernel-only: used for free list */
__volatile__ int waiting; /**< On kernel DMA queue */
__volatile__ int pending; /**< On hardware DMA queue */
wait_queue_head_t dma_wait; /**< Processes waiting */
struct drm_file *file_priv; /**< Private of holding file descr */
int context; /**< Kernel queue for this buffer */
int while_locked; /**< Dispatch this buffer while locked */
enum {
DRM_LIST_NONE = 0,
DRM_LIST_FREE = 1,
DRM_LIST_WAIT = 2,
DRM_LIST_PEND = 3,
DRM_LIST_PRIO = 4,
DRM_LIST_RECLAIM = 5
} list; /**< Which list we're on */
 
int dev_priv_size; /**< Size of buffer private storage */
void *dev_private; /**< Per-buffer private storage */
};
 
/** bufs is one longer than it has to be */
struct drm_waitlist {
int count; /**< Number of possible buffers */
struct drm_buf **bufs; /**< List of pointers to buffers */
struct drm_buf **rp; /**< Read pointer */
struct drm_buf **wp; /**< Write pointer */
struct drm_buf **end; /**< End pointer */
spinlock_t read_lock;
spinlock_t write_lock;
};
 
struct drm_freelist {
int initialized; /**< Freelist in use */
atomic_t count; /**< Number of free buffers */
struct drm_buf *next; /**< End pointer */
 
wait_queue_head_t waiting; /**< Processes waiting on free bufs */
int low_mark; /**< Low water mark */
int high_mark; /**< High water mark */
atomic_t wfh; /**< If waiting for high mark */
spinlock_t lock;
};
 
typedef struct drm_dma_handle {
dma_addr_t busaddr;
void *vaddr;
size_t size;
} drm_dma_handle_t;
 
/**
* Buffer entry. There is one of this for each buffer size order.
*/
struct drm_buf_entry {
int buf_size; /**< size */
int buf_count; /**< number of buffers */
struct drm_buf *buflist; /**< buffer list */
int seg_count;
int page_order;
struct drm_dma_handle **seglist;
 
struct drm_freelist freelist;
};
 
/** File private data */
struct drm_file {
int authenticated;
pid_t pid;
uid_t uid;
drm_magic_t magic;
unsigned long ioctl_count;
struct list_head lhead;
struct drm_minor *minor;
unsigned long lock_count;
 
/** Mapping of mm object handles to object pointers. */
struct idr object_idr;
/** Lock for synchronization of access to object_idr. */
spinlock_t table_lock;
 
struct file *filp;
void *driver_priv;
 
int is_master; /* this file private is a master for a minor */
struct drm_master *master; /* master this node is currently associated with
N.B. not always minor->master */
struct list_head fbs;
};
 
/** Wait queue */
struct drm_queue {
atomic_t use_count; /**< Outstanding uses (+1) */
atomic_t finalization; /**< Finalization in progress */
atomic_t block_count; /**< Count of processes waiting */
atomic_t block_read; /**< Queue blocked for reads */
wait_queue_head_t read_queue; /**< Processes waiting on block_read */
atomic_t block_write; /**< Queue blocked for writes */
wait_queue_head_t write_queue; /**< Processes waiting on block_write */
atomic_t total_queued; /**< Total queued statistic */
atomic_t total_flushed; /**< Total flushes statistic */
atomic_t total_locks; /**< Total locks statistics */
enum drm_ctx_flags flags; /**< Context preserving and 2D-only */
struct drm_waitlist waitlist; /**< Pending buffers */
wait_queue_head_t flush_queue; /**< Processes waiting until flush */
};
 
/**
* Lock data.
*/
struct drm_lock_data {
struct drm_hw_lock *hw_lock; /**< Hardware lock */
/** Private of lock holder's file (NULL=kernel) */
struct drm_file *file_priv;
wait_queue_head_t lock_queue; /**< Queue of blocked processes */
unsigned long lock_time; /**< Time of last lock in jiffies */
spinlock_t spinlock;
uint32_t kernel_waiters;
uint32_t user_waiters;
int idle_has_lock;
};
 
/**
* DMA data.
*/
struct drm_device_dma {
 
struct drm_buf_entry bufs[DRM_MAX_ORDER + 1]; /**< buffers, grouped by their size order */
int buf_count; /**< total number of buffers */
struct drm_buf **buflist; /**< Vector of pointers into drm_device_dma::bufs */
int seg_count;
int page_count; /**< number of pages */
unsigned long *pagelist; /**< page list */
unsigned long byte_count;
enum {
_DRM_DMA_USE_AGP = 0x01,
_DRM_DMA_USE_SG = 0x02,
_DRM_DMA_USE_FB = 0x04,
_DRM_DMA_USE_PCI_RO = 0x08
} flags;
 
};
 
/**
* AGP memory entry. Stored as a doubly linked list.
*/
struct drm_agp_mem {
unsigned long handle; /**< handle */
DRM_AGP_MEM *memory;
unsigned long bound; /**< address */
int pages;
struct list_head head;
};
 
/**
* AGP data.
*
* \sa drm_agp_init() and drm_device::agp.
*/
struct drm_agp_head {
DRM_AGP_KERN agp_info; /**< AGP device information */
struct list_head memory;
unsigned long mode; /**< AGP mode */
struct agp_bridge_data *bridge;
int enabled; /**< whether the AGP bus as been enabled */
int acquired; /**< whether the AGP device has been acquired */
unsigned long base;
int agp_mtrr;
int cant_use_aperture;
unsigned long page_mask;
};
 
/**
* Scatter-gather memory.
*/
struct drm_sg_mem {
unsigned long handle;
void *virtual;
int pages;
struct page **pagelist;
dma_addr_t *busaddr;
};
 
struct drm_sigdata {
int context;
struct drm_hw_lock *lock;
};
 
 
/**
* Kernel side of a mapping
*/
struct drm_local_map {
resource_size_t offset; /**< Requested physical address (0 for SAREA)*/
unsigned long size; /**< Requested physical size (bytes) */
enum drm_map_type type; /**< Type of memory to map */
enum drm_map_flags flags; /**< Flags */
void *handle; /**< User-space: "Handle" to pass to mmap() */
/**< Kernel-space: kernel-virtual address */
int mtrr; /**< MTRR slot used */
};
 
typedef struct drm_local_map drm_local_map_t;
 
/**
* Mappings list
*/
struct drm_map_list {
struct list_head head; /**< list head */
struct drm_hash_item hash;
struct drm_local_map *map; /**< mapping */
uint64_t user_token;
struct drm_master *master;
struct drm_mm_node *file_offset_node; /**< fake offset */
};
 
/**
* Context handle list
*/
struct drm_ctx_list {
struct list_head head; /**< list head */
drm_context_t handle; /**< context handle */
struct drm_file *tag; /**< associated fd private data */
};
 
/* location of GART table */
#define DRM_ATI_GART_MAIN 1
#define DRM_ATI_GART_FB 2
 
#define DRM_ATI_GART_PCI 1
#define DRM_ATI_GART_PCIE 2
#define DRM_ATI_GART_IGP 3
 
struct drm_ati_pcigart_info {
int gart_table_location;
int gart_reg_if;
void *addr;
dma_addr_t bus_addr;
dma_addr_t table_mask;
struct drm_dma_handle *table_handle;
struct drm_local_map mapping;
int table_size;
};
 
/**
* GEM specific mm private for tracking GEM objects
*/
struct drm_gem_mm {
struct drm_mm offset_manager; /**< Offset mgmt for buffer objects */
struct drm_open_hash offset_hash; /**< User token hash table for maps */
};
 
/**
* This structure defines the drm_mm memory object, which will be used by the
* DRM for its buffer objects.
*/
struct drm_gem_object {
/** Reference count of this object */
struct kref refcount;
 
/** Handle count of this object. Each handle also holds a reference */
struct kref handlecount;
 
/** Related drm device */
struct drm_device *dev;
 
/** File representing the shmem storage */
struct file *filp;
 
/* Mapping info for this object */
struct drm_map_list map_list;
 
/**
* Size of the object, in bytes. Immutable over the object's
* lifetime.
*/
size_t size;
 
/**
* Global name for this object, starts at 1. 0 means unnamed.
* Access is covered by the object_name_lock in the related drm_device
*/
int name;
 
/**
* Memory domains. These monitor which caches contain read/write data
* related to the object. When transitioning from one set of domains
* to another, the driver is called to ensure that caches are suitably
* flushed and invalidated
*/
uint32_t read_domains;
uint32_t write_domain;
 
/**
* While validating an exec operation, the
* new read/write domain values are computed here.
* They will be transferred to the above values
* at the point that any cache flushing occurs
*/
uint32_t pending_read_domains;
uint32_t pending_write_domain;
 
void *driver_private;
};
 
#include "drm_crtc.h"
 
/* per-master structure */
struct drm_master {
 
struct kref refcount; /* refcount for this master */
 
struct list_head head; /**< each minor contains a list of masters */
struct drm_minor *minor; /**< link back to minor we are a master for */
 
char *unique; /**< Unique identifier: e.g., busid */
int unique_len; /**< Length of unique field */
int unique_size; /**< amount allocated */
 
int blocked; /**< Blocked due to VC switch? */
 
/** \name Authentication */
/*@{ */
struct drm_open_hash magiclist;
struct list_head magicfree;
/*@} */
 
struct drm_lock_data lock; /**< Information on hardware lock */
 
void *driver_priv; /**< Private structure for driver to use */
};
 
/**
* DRM driver structure. This structure represent the common code for
* a family of cards. There will one drm_device for each card present
* in this family
*/
struct drm_driver {
int (*load) (struct drm_device *, unsigned long flags);
int (*firstopen) (struct drm_device *);
int (*open) (struct drm_device *, struct drm_file *);
void (*preclose) (struct drm_device *, struct drm_file *file_priv);
void (*postclose) (struct drm_device *, struct drm_file *);
void (*lastclose) (struct drm_device *);
int (*unload) (struct drm_device *);
int (*suspend) (struct drm_device *, pm_message_t state);
int (*resume) (struct drm_device *);
int (*dma_ioctl) (struct drm_device *dev, void *data, struct drm_file *file_priv);
void (*dma_ready) (struct drm_device *);
int (*dma_quiescent) (struct drm_device *);
int (*context_ctor) (struct drm_device *dev, int context);
int (*context_dtor) (struct drm_device *dev, int context);
int (*kernel_context_switch) (struct drm_device *dev, int old,
int new);
void (*kernel_context_switch_unlock) (struct drm_device *dev);
 
/**
* get_vblank_counter - get raw hardware vblank counter
* @dev: DRM device
* @crtc: counter to fetch
*
* Driver callback for fetching a raw hardware vblank counter
* for @crtc. If a device doesn't have a hardware counter, the
* driver can simply return the value of drm_vblank_count and
* make the enable_vblank() and disable_vblank() hooks into no-ops,
* leaving interrupts enabled at all times.
*
* Wraparound handling and loss of events due to modesetting is dealt
* with in the DRM core code.
*
* RETURNS
* Raw vblank counter value.
*/
u32 (*get_vblank_counter) (struct drm_device *dev, int crtc);
 
/**
* enable_vblank - enable vblank interrupt events
* @dev: DRM device
* @crtc: which irq to enable
*
* Enable vblank interrupts for @crtc. If the device doesn't have
* a hardware vblank counter, this routine should be a no-op, since
* interrupts will have to stay on to keep the count accurate.
*
* RETURNS
* Zero on success, appropriate errno if the given @crtc's vblank
* interrupt cannot be enabled.
*/
int (*enable_vblank) (struct drm_device *dev, int crtc);
 
/**
* disable_vblank - disable vblank interrupt events
* @dev: DRM device
* @crtc: which irq to enable
*
* Disable vblank interrupts for @crtc. If the device doesn't have
* a hardware vblank counter, this routine should be a no-op, since
* interrupts will have to stay on to keep the count accurate.
*/
void (*disable_vblank) (struct drm_device *dev, int crtc);
 
/**
* Called by \c drm_device_is_agp. Typically used to determine if a
* card is really attached to AGP or not.
*
* \param dev DRM device handle
*
* \returns
* One of three values is returned depending on whether or not the
* card is absolutely \b not AGP (return of 0), absolutely \b is AGP
* (return of 1), or may or may not be AGP (return of 2).
*/
int (*device_is_agp) (struct drm_device *dev);
 
/* these have to be filled in */
 
irqreturn_t(*irq_handler) (DRM_IRQ_ARGS);
void (*irq_preinstall) (struct drm_device *dev);
int (*irq_postinstall) (struct drm_device *dev);
void (*irq_uninstall) (struct drm_device *dev);
void (*reclaim_buffers) (struct drm_device *dev,
struct drm_file * file_priv);
void (*reclaim_buffers_locked) (struct drm_device *dev,
struct drm_file *file_priv);
void (*reclaim_buffers_idlelocked) (struct drm_device *dev,
struct drm_file *file_priv);
resource_size_t (*get_map_ofs) (struct drm_local_map * map);
resource_size_t (*get_reg_ofs) (struct drm_device *dev);
void (*set_version) (struct drm_device *dev,
struct drm_set_version *sv);
 
/* Master routines */
int (*master_create)(struct drm_device *dev, struct drm_master *master);
void (*master_destroy)(struct drm_device *dev, struct drm_master *master);
 
int (*proc_init)(struct drm_minor *minor);
void (*proc_cleanup)(struct drm_minor *minor);
int (*debugfs_init)(struct drm_minor *minor);
void (*debugfs_cleanup)(struct drm_minor *minor);
 
/**
* Driver-specific constructor for drm_gem_objects, to set up
* obj->driver_private.
*
* Returns 0 on success.
*/
int (*gem_init_object) (struct drm_gem_object *obj);
void (*gem_free_object) (struct drm_gem_object *obj);
 
/* Driver private ops for this object */
struct vm_operations_struct *gem_vm_ops;
 
int major;
int minor;
int patchlevel;
char *name;
char *desc;
char *date;
 
u32 driver_features;
int dev_priv_size;
struct drm_ioctl_desc *ioctls;
int num_ioctls;
struct file_operations fops;
struct pci_driver pci_driver;
/* List of devices hanging off this driver */
struct list_head device_list;
};
 
#define DRM_MINOR_UNASSIGNED 0
#define DRM_MINOR_LEGACY 1
#define DRM_MINOR_CONTROL 2
#define DRM_MINOR_RENDER 3
 
 
/**
* debugfs node list. This structure represents a debugfs file to
* be created by the drm core
*/
struct drm_debugfs_list {
const char *name; /** file name */
int (*show)(struct seq_file*, void*); /** show callback */
u32 driver_features; /**< Required driver features for this entry */
};
 
/**
* debugfs node structure. This structure represents a debugfs file.
*/
struct drm_debugfs_node {
struct list_head list;
struct drm_minor *minor;
struct drm_debugfs_list *debugfs_ent;
struct dentry *dent;
};
 
/**
* Info file list entry. This structure represents a debugfs or proc file to
* be created by the drm core
*/
struct drm_info_list {
const char *name; /** file name */
int (*show)(struct seq_file*, void*); /** show callback */
u32 driver_features; /**< Required driver features for this entry */
void *data;
};
 
/**
* debugfs node structure. This structure represents a debugfs file.
*/
struct drm_info_node {
struct list_head list;
struct drm_minor *minor;
struct drm_info_list *info_ent;
struct dentry *dent;
};
 
/**
* DRM minor structure. This structure represents a drm minor number.
*/
struct drm_minor {
int index; /**< Minor device number */
int type; /**< Control or render */
dev_t device; /**< Device number for mknod */
struct device kdev; /**< Linux device */
struct drm_device *dev;
 
struct proc_dir_entry *proc_root; /**< proc directory entry */
struct drm_info_node proc_nodes;
struct dentry *debugfs_root;
struct drm_info_node debugfs_nodes;
 
struct drm_master *master; /* currently active master for this node */
struct list_head master_list;
struct drm_mode_group mode_group;
};
 
 
 
 
#endif
 
 
/**
* DRM device structure. This structure represent a complete card that
* may contain multiple heads.
*/
struct drm_device {
struct list_head driver_item; /**< list of devices per driver */
char *devname; /**< For /proc/interrupts */
int if_version; /**< Highest interface version set */
 
/** \name Locks */
/*@{ */
// spinlock_t count_lock; /**< For inuse, drm_device::open_count, drm_device::buf_use */
// struct mutex struct_mutex; /**< For others */
/*@} */
 
/** \name Usage Counters */
/*@{ */
int open_count; /**< Outstanding files open */
// atomic_t ioctl_count; /**< Outstanding IOCTLs pending */
// atomic_t vma_count; /**< Outstanding vma areas open */
int buf_use; /**< Buffers in use -- cannot alloc */
// atomic_t buf_alloc; /**< Buffer allocation in progress */
/*@} */
 
/** \name Performance counters */
/*@{ */
unsigned long counters;
// enum drm_stat_type types[15];
// atomic_t counts[15];
/*@} */
 
struct list_head filelist;
 
/** \name Memory management */
/*@{ */
struct list_head maplist; /**< Linked list of regions */
int map_count; /**< Number of mappable regions */
// struct drm_open_hash map_hash; /**< User token hash table for maps */
 
/** \name Context handle management */
/*@{ */
struct list_head ctxlist; /**< Linked list of context handles */
int ctx_count; /**< Number of context handles */
// struct mutex ctxlist_mutex; /**< For ctxlist */
 
// struct idr ctx_idr;
 
struct list_head vmalist; /**< List of vmas (for debugging) */
 
/*@} */
 
/** \name DMA queues (contexts) */
/*@{ */
int queue_count; /**< Number of active DMA queues */
int queue_reserved; /**< Number of reserved DMA queues */
int queue_slots; /**< Actual length of queuelist */
// struct drm_queue **queuelist; /**< Vector of pointers to DMA queues */
// struct drm_device_dma *dma; /**< Optional pointer for DMA support */
/*@} */
 
/** \name Context support */
/*@{ */
int irq_enabled; /**< True if irq handler is enabled */
__volatile__ long context_flag; /**< Context swapping flag */
__volatile__ long interrupt_flag; /**< Interruption handler flag */
__volatile__ long dma_flag; /**< DMA dispatch flag */
// struct timer_list timer; /**< Timer for delaying ctx switch */
// wait_queue_head_t context_wait; /**< Processes waiting on ctx switch */
int last_checked; /**< Last context checked for DMA */
int last_context; /**< Last current context */
unsigned long last_switch; /**< jiffies at last context switch */
/*@} */
 
// struct work_struct work;
/** \name VBLANK IRQ support */
/*@{ */
 
/*
* At load time, disabling the vblank interrupt won't be allowed since
* old clients may not call the modeset ioctl and therefore misbehave.
* Once the modeset ioctl *has* been called though, we can safely
* disable them when unused.
*/
int vblank_disable_allowed;
 
// wait_queue_head_t *vbl_queue; /**< VBLANK wait queue */
// atomic_t *_vblank_count; /**< number of VBLANK interrupts (driver must alloc the right number of counters) */
// spinlock_t vbl_lock;
// atomic_t *vblank_refcount; /* number of users of vblank interruptsper crtc */
u32 *last_vblank; /* protected by dev->vbl_lock, used */
/* for wraparound handling */
int *vblank_enabled; /* so we don't call enable more than
once per disable */
int *vblank_inmodeset; /* Display driver is setting mode */
u32 *last_vblank_wait; /* Last vblank seqno waited per CRTC */
// struct timer_list vblank_disable_timer;
 
u32 max_vblank_count; /**< size of vblank counter register */
 
/*@} */
// cycles_t ctx_start;
// cycles_t lck_start;
 
// struct fasync_struct *buf_async;/**< Processes waiting for SIGIO */
// wait_queue_head_t buf_readers; /**< Processes waiting to read */
// wait_queue_head_t buf_writers; /**< Processes waiting to ctx switch */
 
// struct drm_agp_head *agp; /**< AGP data */
 
struct pci_dev *pdev; /**< PCI device structure */
int pci_vendor; /**< PCI vendor id */
int pci_device; /**< PCI device id */
// struct drm_sg_mem *sg; /**< Scatter gather memory */
int num_crtcs; /**< Number of CRTCs on this device */
void *dev_private; /**< device private data */
void *mm_private;
// struct address_space *dev_mapping;
// struct drm_sigdata sigdata; /**< For block_all_signals */
// sigset_t sigmask;
 
// struct drm_driver *driver;
// struct drm_local_map *agp_buffer_map;
// unsigned int agp_buffer_token;
// struct drm_minor *control; /**< Control node for card */
// struct drm_minor *primary; /**< render type primary screen head */
 
/** \name Drawable information */
/*@{ */
// spinlock_t drw_lock;
// struct idr drw_idr;
/*@} */
 
struct drm_mode_config mode_config; /**< Current mode config */
 
/** \name GEM information */
/*@{ */
// spinlock_t object_name_lock;
// struct idr object_name_idr;
// atomic_t object_count;
// atomic_t object_memory;
// atomic_t pin_count;
// atomic_t pin_memory;
// atomic_t gtt_count;
// atomic_t gtt_memory;
// uint32_t gtt_total;
uint32_t invalidate_domains; /* domains pending invalidation */
uint32_t flush_domains; /* domains pending flush */
/*@} */
 
};
 
 
#if 0
static inline int drm_dev_to_irq(struct drm_device *dev)
{
return dev->pdev->irq;
}
 
static __inline__ int drm_core_check_feature(struct drm_device *dev,
int feature)
{
return ((dev->driver->driver_features & feature) ? 1 : 0);
}
 
#ifdef __alpha__
#define drm_get_pci_domain(dev) dev->hose->index
#else
#define drm_get_pci_domain(dev) 0
#endif
 
#if __OS_HAS_AGP
static inline int drm_core_has_AGP(struct drm_device *dev)
{
return drm_core_check_feature(dev, DRIVER_USE_AGP);
}
#else
#define drm_core_has_AGP(dev) (0)
#endif
 
#if __OS_HAS_MTRR
static inline int drm_core_has_MTRR(struct drm_device *dev)
{
return drm_core_check_feature(dev, DRIVER_USE_MTRR);
}
 
#define DRM_MTRR_WC MTRR_TYPE_WRCOMB
 
static inline int drm_mtrr_add(unsigned long offset, unsigned long size,
unsigned int flags)
{
return mtrr_add(offset, size, flags, 1);
}
 
static inline int drm_mtrr_del(int handle, unsigned long offset,
unsigned long size, unsigned int flags)
{
return mtrr_del(handle, offset, size);
}
 
#else
#define drm_core_has_MTRR(dev) (0)
 
#define DRM_MTRR_WC 0
 
static inline int drm_mtrr_add(unsigned long offset, unsigned long size,
unsigned int flags)
{
return 0;
}
 
static inline int drm_mtrr_del(int handle, unsigned long offset,
unsigned long size, unsigned int flags)
{
return 0;
}
#endif
 
/******************************************************************/
/** \name Internal function definitions */
/*@{*/
 
/* Driver support (drm_drv.h) */
extern int drm_init(struct drm_driver *driver);
extern void drm_exit(struct drm_driver *driver);
extern int drm_ioctl(struct inode *inode, struct file *filp,
unsigned int cmd, unsigned long arg);
extern long drm_compat_ioctl(struct file *filp,
unsigned int cmd, unsigned long arg);
extern int drm_lastclose(struct drm_device *dev);
 
/* Device support (drm_fops.h) */
extern int drm_open(struct inode *inode, struct file *filp);
extern int drm_stub_open(struct inode *inode, struct file *filp);
extern int drm_fasync(int fd, struct file *filp, int on);
extern int drm_release(struct inode *inode, struct file *filp);
 
/* Mapping support (drm_vm.h) */
extern int drm_mmap(struct file *filp, struct vm_area_struct *vma);
extern int drm_mmap_locked(struct file *filp, struct vm_area_struct *vma);
extern void drm_vm_open_locked(struct vm_area_struct *vma);
extern resource_size_t drm_core_get_map_ofs(struct drm_local_map * map);
extern resource_size_t drm_core_get_reg_ofs(struct drm_device *dev);
extern unsigned int drm_poll(struct file *filp, struct poll_table_struct *wait);
 
/* Memory management support (drm_memory.h) */
#include "drm_memory.h"
extern void drm_mem_init(void);
extern int drm_mem_info(char *buf, char **start, off_t offset,
int request, int *eof, void *data);
extern void *drm_realloc(void *oldpt, size_t oldsize, size_t size, int area);
 
extern DRM_AGP_MEM *drm_alloc_agp(struct drm_device *dev, int pages, u32 type);
extern int drm_free_agp(DRM_AGP_MEM * handle, int pages);
extern int drm_bind_agp(DRM_AGP_MEM * handle, unsigned int start);
extern DRM_AGP_MEM *drm_agp_bind_pages(struct drm_device *dev,
struct page **pages,
unsigned long num_pages,
uint32_t gtt_offset,
uint32_t type);
extern int drm_unbind_agp(DRM_AGP_MEM * handle);
 
/* Misc. IOCTL support (drm_ioctl.h) */
extern int drm_irq_by_busid(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_getunique(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_setunique(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_getmap(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_getclient(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_getstats(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_setversion(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_noop(struct drm_device *dev, void *data,
struct drm_file *file_priv);
 
/* Context IOCTL support (drm_context.h) */
extern int drm_resctx(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_addctx(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_modctx(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_getctx(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_switchctx(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_newctx(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_rmctx(struct drm_device *dev, void *data,
struct drm_file *file_priv);
 
extern int drm_ctxbitmap_init(struct drm_device *dev);
extern void drm_ctxbitmap_cleanup(struct drm_device *dev);
extern void drm_ctxbitmap_free(struct drm_device *dev, int ctx_handle);
 
extern int drm_setsareactx(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_getsareactx(struct drm_device *dev, void *data,
struct drm_file *file_priv);
 
/* Drawable IOCTL support (drm_drawable.h) */
extern int drm_adddraw(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_rmdraw(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_update_drawable_info(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern struct drm_drawable_info *drm_get_drawable_info(struct drm_device *dev,
drm_drawable_t id);
extern void drm_drawable_free_all(struct drm_device *dev);
 
/* Authentication IOCTL support (drm_auth.h) */
extern int drm_getmagic(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_authmagic(struct drm_device *dev, void *data,
struct drm_file *file_priv);
 
/* Cache management (drm_cache.c) */
void drm_clflush_pages(struct page *pages[], unsigned long num_pages);
 
/* Locking IOCTL support (drm_lock.h) */
extern int drm_lock(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_unlock(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_lock_take(struct drm_lock_data *lock_data, unsigned int context);
extern int drm_lock_free(struct drm_lock_data *lock_data, unsigned int context);
extern void drm_idlelock_take(struct drm_lock_data *lock_data);
extern void drm_idlelock_release(struct drm_lock_data *lock_data);
 
/*
* These are exported to drivers so that they can implement fencing using
* DMA quiscent + idle. DMA quiescent usually requires the hardware lock.
*/
 
extern int drm_i_have_hw_lock(struct drm_device *dev, struct drm_file *file_priv);
 
/* Buffer management support (drm_bufs.h) */
extern int drm_addbufs_agp(struct drm_device *dev, struct drm_buf_desc * request);
extern int drm_addbufs_pci(struct drm_device *dev, struct drm_buf_desc * request);
extern int drm_addmap(struct drm_device *dev, resource_size_t offset,
unsigned int size, enum drm_map_type type,
enum drm_map_flags flags, struct drm_local_map **map_ptr);
extern int drm_addmap_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_rmmap(struct drm_device *dev, struct drm_local_map *map);
extern int drm_rmmap_locked(struct drm_device *dev, struct drm_local_map *map);
extern int drm_rmmap_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_addbufs(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_infobufs(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_markbufs(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_freebufs(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_mapbufs(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_order(unsigned long size);
extern resource_size_t drm_get_resource_start(struct drm_device *dev,
unsigned int resource);
extern resource_size_t drm_get_resource_len(struct drm_device *dev,
unsigned int resource);
 
/* DMA support (drm_dma.h) */
extern int drm_dma_setup(struct drm_device *dev);
extern void drm_dma_takedown(struct drm_device *dev);
extern void drm_free_buffer(struct drm_device *dev, struct drm_buf * buf);
extern void drm_core_reclaim_buffers(struct drm_device *dev,
struct drm_file *filp);
 
/* IRQ support (drm_irq.h) */
extern int drm_control(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern irqreturn_t drm_irq_handler(DRM_IRQ_ARGS);
extern int drm_irq_install(struct drm_device *dev);
extern int drm_irq_uninstall(struct drm_device *dev);
extern void drm_driver_irq_preinstall(struct drm_device *dev);
extern void drm_driver_irq_postinstall(struct drm_device *dev);
extern void drm_driver_irq_uninstall(struct drm_device *dev);
 
extern int drm_vblank_init(struct drm_device *dev, int num_crtcs);
extern int drm_wait_vblank(struct drm_device *dev, void *data,
struct drm_file *filp);
extern int drm_vblank_wait(struct drm_device *dev, unsigned int *vbl_seq);
extern u32 drm_vblank_count(struct drm_device *dev, int crtc);
extern void drm_handle_vblank(struct drm_device *dev, int crtc);
extern int drm_vblank_get(struct drm_device *dev, int crtc);
extern void drm_vblank_put(struct drm_device *dev, int crtc);
extern void drm_vblank_cleanup(struct drm_device *dev);
/* Modesetting support */
extern void drm_vblank_pre_modeset(struct drm_device *dev, int crtc);
extern void drm_vblank_post_modeset(struct drm_device *dev, int crtc);
extern int drm_modeset_ctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
 
/* AGP/GART support (drm_agpsupport.h) */
extern struct drm_agp_head *drm_agp_init(struct drm_device *dev);
extern int drm_agp_acquire(struct drm_device *dev);
extern int drm_agp_acquire_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_agp_release(struct drm_device *dev);
extern int drm_agp_release_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_agp_enable(struct drm_device *dev, struct drm_agp_mode mode);
extern int drm_agp_enable_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_agp_info(struct drm_device *dev, struct drm_agp_info *info);
extern int drm_agp_info_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_agp_alloc(struct drm_device *dev, struct drm_agp_buffer *request);
extern int drm_agp_alloc_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_agp_free(struct drm_device *dev, struct drm_agp_buffer *request);
extern int drm_agp_free_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_agp_unbind(struct drm_device *dev, struct drm_agp_binding *request);
extern int drm_agp_unbind_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_agp_bind(struct drm_device *dev, struct drm_agp_binding *request);
extern int drm_agp_bind_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern DRM_AGP_MEM *drm_agp_allocate_memory(struct agp_bridge_data *bridge, size_t pages, u32 type);
extern int drm_agp_free_memory(DRM_AGP_MEM * handle);
extern int drm_agp_bind_memory(DRM_AGP_MEM * handle, off_t start);
extern int drm_agp_unbind_memory(DRM_AGP_MEM * handle);
extern void drm_agp_chipset_flush(struct drm_device *dev);
 
/* Stub support (drm_stub.h) */
extern int drm_setmaster_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_dropmaster_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
struct drm_master *drm_master_create(struct drm_minor *minor);
extern struct drm_master *drm_master_get(struct drm_master *master);
extern void drm_master_put(struct drm_master **master);
extern int drm_get_dev(struct pci_dev *pdev, const struct pci_device_id *ent,
struct drm_driver *driver);
extern void drm_put_dev(struct drm_device *dev);
extern int drm_put_minor(struct drm_minor **minor);
extern unsigned int drm_debug;
 
extern struct class *drm_class;
extern struct proc_dir_entry *drm_proc_root;
extern struct dentry *drm_debugfs_root;
 
extern struct idr drm_minors_idr;
 
extern struct drm_local_map *drm_getsarea(struct drm_device *dev);
 
/* Proc support (drm_proc.h) */
extern int drm_proc_init(struct drm_minor *minor, int minor_id,
struct proc_dir_entry *root);
extern int drm_proc_cleanup(struct drm_minor *minor, struct proc_dir_entry *root);
 
/* Debugfs support */
#if defined(CONFIG_DEBUG_FS)
extern int drm_debugfs_init(struct drm_minor *minor, int minor_id,
struct dentry *root);
extern int drm_debugfs_create_files(struct drm_info_list *files, int count,
struct dentry *root, struct drm_minor *minor);
extern int drm_debugfs_remove_files(struct drm_info_list *files, int count,
struct drm_minor *minor);
extern int drm_debugfs_cleanup(struct drm_minor *minor);
#endif
 
/* Info file support */
extern int drm_name_info(struct seq_file *m, void *data);
extern int drm_vm_info(struct seq_file *m, void *data);
extern int drm_queues_info(struct seq_file *m, void *data);
extern int drm_bufs_info(struct seq_file *m, void *data);
extern int drm_vblank_info(struct seq_file *m, void *data);
extern int drm_clients_info(struct seq_file *m, void* data);
extern int drm_gem_name_info(struct seq_file *m, void *data);
extern int drm_gem_object_info(struct seq_file *m, void* data);
 
#if DRM_DEBUG_CODE
extern int drm_vma_info(struct seq_file *m, void *data);
#endif
 
/* Scatter Gather Support (drm_scatter.h) */
extern void drm_sg_cleanup(struct drm_sg_mem * entry);
extern int drm_sg_alloc_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
extern int drm_sg_alloc(struct drm_device *dev, struct drm_scatter_gather * request);
extern int drm_sg_free(struct drm_device *dev, void *data,
struct drm_file *file_priv);
 
/* ATI PCIGART support (ati_pcigart.h) */
extern int drm_ati_pcigart_init(struct drm_device *dev,
struct drm_ati_pcigart_info * gart_info);
extern int drm_ati_pcigart_cleanup(struct drm_device *dev,
struct drm_ati_pcigart_info * gart_info);
 
extern drm_dma_handle_t *drm_pci_alloc(struct drm_device *dev, size_t size,
size_t align, dma_addr_t maxaddr);
extern void __drm_pci_free(struct drm_device *dev, drm_dma_handle_t * dmah);
extern void drm_pci_free(struct drm_device *dev, drm_dma_handle_t * dmah);
 
/* sysfs support (drm_sysfs.c) */
struct drm_sysfs_class;
extern struct class *drm_sysfs_create(struct module *owner, char *name);
extern void drm_sysfs_destroy(void);
extern int drm_sysfs_device_add(struct drm_minor *minor);
extern void drm_sysfs_hotplug_event(struct drm_device *dev);
extern void drm_sysfs_device_remove(struct drm_minor *minor);
extern char *drm_get_connector_status_name(enum drm_connector_status status);
extern int drm_sysfs_connector_add(struct drm_connector *connector);
extern void drm_sysfs_connector_remove(struct drm_connector *connector);
 
/* Graphics Execution Manager library functions (drm_gem.c) */
int drm_gem_init(struct drm_device *dev);
void drm_gem_destroy(struct drm_device *dev);
void drm_gem_object_free(struct kref *kref);
struct drm_gem_object *drm_gem_object_alloc(struct drm_device *dev,
size_t size);
void drm_gem_object_handle_free(struct kref *kref);
void drm_gem_vm_open(struct vm_area_struct *vma);
void drm_gem_vm_close(struct vm_area_struct *vma);
int drm_gem_mmap(struct file *filp, struct vm_area_struct *vma);
 
static inline void
drm_gem_object_reference(struct drm_gem_object *obj)
{
kref_get(&obj->refcount);
}
 
static inline void
drm_gem_object_unreference(struct drm_gem_object *obj)
{
if (obj == NULL)
return;
 
kref_put(&obj->refcount, drm_gem_object_free);
}
 
int drm_gem_handle_create(struct drm_file *file_priv,
struct drm_gem_object *obj,
int *handlep);
 
static inline void
drm_gem_object_handle_reference(struct drm_gem_object *obj)
{
drm_gem_object_reference(obj);
kref_get(&obj->handlecount);
}
 
static inline void
drm_gem_object_handle_unreference(struct drm_gem_object *obj)
{
if (obj == NULL)
return;
 
/*
* Must bump handle count first as this may be the last
* ref, in which case the object would disappear before we
* checked for a name
*/
kref_put(&obj->handlecount, drm_gem_object_handle_free);
drm_gem_object_unreference(obj);
}
 
struct drm_gem_object *drm_gem_object_lookup(struct drm_device *dev,
struct drm_file *filp,
int handle);
int drm_gem_close_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
int drm_gem_flink_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
int drm_gem_open_ioctl(struct drm_device *dev, void *data,
struct drm_file *file_priv);
void drm_gem_open(struct drm_device *dev, struct drm_file *file_private);
void drm_gem_release(struct drm_device *dev, struct drm_file *file_private);
 
extern void drm_core_ioremap(struct drm_local_map *map, struct drm_device *dev);
extern void drm_core_ioremap_wc(struct drm_local_map *map, struct drm_device *dev);
extern void drm_core_ioremapfree(struct drm_local_map *map, struct drm_device *dev);
 
static __inline__ struct drm_local_map *drm_core_findmap(struct drm_device *dev,
unsigned int token)
{
struct drm_map_list *_entry;
list_for_each_entry(_entry, &dev->maplist, head)
if (_entry->user_token == token)
return _entry->map;
return NULL;
}
 
static __inline__ int drm_device_is_agp(struct drm_device *dev)
{
if (dev->driver->device_is_agp != NULL) {
int err = (*dev->driver->device_is_agp) (dev);
 
if (err != 2) {
return err;
}
}
 
return pci_find_capability(dev->pdev, PCI_CAP_ID_AGP);
}
 
static __inline__ int drm_device_is_pcie(struct drm_device *dev)
{
return pci_find_capability(dev->pdev, PCI_CAP_ID_EXP);
}
 
static __inline__ void drm_core_dropmap(struct drm_local_map *map)
{
}
 
 
static __inline__ void *drm_calloc_large(size_t nmemb, size_t size)
{
if (size * nmemb <= PAGE_SIZE)
return kcalloc(nmemb, size, GFP_KERNEL);
 
if (size != 0 && nmemb > ULONG_MAX / size)
return NULL;
 
return __vmalloc(size * nmemb,
GFP_KERNEL | __GFP_HIGHMEM | __GFP_ZERO, PAGE_KERNEL);
}
 
static __inline void drm_free_large(void *ptr)
{
if (!is_vmalloc_addr(ptr))
return kfree(ptr);
 
vfree(ptr);
}
/*@}*/
 
#endif
 
 
#endif
/drivers/video/drm/include/drm_crtc.h
0,0 → 1,743
/*
* Copyright © 2006 Keith Packard
* Copyright © 2007-2008 Dave Airlie
* Copyright © 2007-2008 Intel Corporation
* Jesse Barnes <jesse.barnes@intel.com>
*
* Permission is hereby granted, free of charge, to any person obtaining a
* copy of this software and associated documentation files (the "Software"),
* to deal in the Software without restriction, including without limitation
* the rights to use, copy, modify, merge, publish, distribute, sublicense,
* and/or sell copies of the Software, and to permit persons to whom the
* Software is furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL
* THE COPYRIGHT HOLDER(S) OR AUTHOR(S) BE LIABLE FOR ANY CLAIM, DAMAGES OR
* OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE,
* ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR
* OTHER DEALINGS IN THE SOFTWARE.
*/
#ifndef __DRM_CRTC_H__
#define __DRM_CRTC_H__
 
#include <linux/i2c.h>
//#include <linux/spinlock.h>
//#include <linux/types.h>
#include <linux/idr.h>
 
//#include <linux/fb.h>
 
struct drm_device;
struct drm_mode_set;
struct drm_framebuffer;
 
 
#define DRM_MODE_OBJECT_CRTC 0xcccccccc
#define DRM_MODE_OBJECT_CONNECTOR 0xc0c0c0c0
#define DRM_MODE_OBJECT_ENCODER 0xe0e0e0e0
#define DRM_MODE_OBJECT_MODE 0xdededede
#define DRM_MODE_OBJECT_PROPERTY 0xb0b0b0b0
#define DRM_MODE_OBJECT_FB 0xfbfbfbfb
#define DRM_MODE_OBJECT_BLOB 0xbbbbbbbb
 
struct drm_mode_object {
uint32_t id;
uint32_t type;
};
 
/*
* Note on terminology: here, for brevity and convenience, we refer to connector
* control chips as 'CRTCs'. They can control any type of connector, VGA, LVDS,
* DVI, etc. And 'screen' refers to the whole of the visible display, which
* may span multiple monitors (and therefore multiple CRTC and connector
* structures).
*/
 
enum drm_mode_status {
MODE_OK = 0, /* Mode OK */
MODE_HSYNC, /* hsync out of range */
MODE_VSYNC, /* vsync out of range */
MODE_H_ILLEGAL, /* mode has illegal horizontal timings */
MODE_V_ILLEGAL, /* mode has illegal horizontal timings */
MODE_BAD_WIDTH, /* requires an unsupported linepitch */
MODE_NOMODE, /* no mode with a maching name */
MODE_NO_INTERLACE, /* interlaced mode not supported */
MODE_NO_DBLESCAN, /* doublescan mode not supported */
MODE_NO_VSCAN, /* multiscan mode not supported */
MODE_MEM, /* insufficient video memory */
MODE_VIRTUAL_X, /* mode width too large for specified virtual size */
MODE_VIRTUAL_Y, /* mode height too large for specified virtual size */
MODE_MEM_VIRT, /* insufficient video memory given virtual size */
MODE_NOCLOCK, /* no fixed clock available */
MODE_CLOCK_HIGH, /* clock required is too high */
MODE_CLOCK_LOW, /* clock required is too low */
MODE_CLOCK_RANGE, /* clock/mode isn't in a ClockRange */
MODE_BAD_HVALUE, /* horizontal timing was out of range */
MODE_BAD_VVALUE, /* vertical timing was out of range */
MODE_BAD_VSCAN, /* VScan value out of range */
MODE_HSYNC_NARROW, /* horizontal sync too narrow */
MODE_HSYNC_WIDE, /* horizontal sync too wide */
MODE_HBLANK_NARROW, /* horizontal blanking too narrow */
MODE_HBLANK_WIDE, /* horizontal blanking too wide */
MODE_VSYNC_NARROW, /* vertical sync too narrow */
MODE_VSYNC_WIDE, /* vertical sync too wide */
MODE_VBLANK_NARROW, /* vertical blanking too narrow */
MODE_VBLANK_WIDE, /* vertical blanking too wide */
MODE_PANEL, /* exceeds panel dimensions */
MODE_INTERLACE_WIDTH, /* width too large for interlaced mode */
MODE_ONE_WIDTH, /* only one width is supported */
MODE_ONE_HEIGHT, /* only one height is supported */
MODE_ONE_SIZE, /* only one resolution is supported */
MODE_NO_REDUCED, /* monitor doesn't accept reduced blanking */
MODE_UNVERIFIED = -3, /* mode needs to reverified */
MODE_BAD = -2, /* unspecified reason */
MODE_ERROR = -1 /* error condition */
};
 
#define DRM_MODE_TYPE_CLOCK_CRTC_C (DRM_MODE_TYPE_CLOCK_C | \
DRM_MODE_TYPE_CRTC_C)
 
#define DRM_MODE(nm, t, c, hd, hss, hse, ht, hsk, vd, vss, vse, vt, vs, f) \
.name = nm, .status = 0, .type = (t), .clock = (c), \
.hdisplay = (hd), .hsync_start = (hss), .hsync_end = (hse), \
.htotal = (ht), .hskew = (hsk), .vdisplay = (vd), \
.vsync_start = (vss), .vsync_end = (vse), .vtotal = (vt), \
.vscan = (vs), .flags = (f), .vrefresh = 0
 
#define CRTC_INTERLACE_HALVE_V 0x1 /* halve V values for interlacing */
 
struct drm_display_mode {
/* Header */
struct list_head head;
struct drm_mode_object base;
 
char name[DRM_DISPLAY_MODE_LEN];
 
int connector_count;
enum drm_mode_status status;
int type;
 
/* Proposed mode values */
int clock;
int hdisplay;
int hsync_start;
int hsync_end;
int htotal;
int hskew;
int vdisplay;
int vsync_start;
int vsync_end;
int vtotal;
int vscan;
unsigned int flags;
 
/* Addressable image size (may be 0 for projectors, etc.) */
int width_mm;
int height_mm;
 
/* Actual mode we give to hw */
int clock_index;
int synth_clock;
int crtc_hdisplay;
int crtc_hblank_start;
int crtc_hblank_end;
int crtc_hsync_start;
int crtc_hsync_end;
int crtc_htotal;
int crtc_hskew;
int crtc_vdisplay;
int crtc_vblank_start;
int crtc_vblank_end;
int crtc_vsync_start;
int crtc_vsync_end;
int crtc_vtotal;
int crtc_hadjusted;
int crtc_vadjusted;
 
/* Driver private mode info */
int private_size;
int *private;
int private_flags;
 
int vrefresh;
float hsync;
};
 
enum drm_connector_status {
connector_status_connected = 1,
connector_status_disconnected = 2,
connector_status_unknown = 3,
};
 
enum subpixel_order {
SubPixelUnknown = 0,
SubPixelHorizontalRGB,
SubPixelHorizontalBGR,
SubPixelVerticalRGB,
SubPixelVerticalBGR,
SubPixelNone,
};
 
 
/*
* Describes a given display (e.g. CRT or flat panel) and its limitations.
*/
struct drm_display_info {
char name[DRM_DISPLAY_INFO_LEN];
/* Input info */
bool serration_vsync;
bool sync_on_green;
bool composite_sync;
bool separate_syncs;
bool blank_to_black;
unsigned char video_level;
bool digital;
/* Physical size */
unsigned int width_mm;
unsigned int height_mm;
 
/* Display parameters */
unsigned char gamma; /* FIXME: storage format */
bool gtf_supported;
bool standard_color;
enum {
monochrome = 0,
rgb,
other,
unknown,
} display_type;
bool active_off_supported;
bool suspend_supported;
bool standby_supported;
 
/* Color info FIXME: storage format */
unsigned short redx, redy;
unsigned short greenx, greeny;
unsigned short bluex, bluey;
unsigned short whitex, whitey;
 
/* Clock limits FIXME: storage format */
unsigned int min_vfreq, max_vfreq;
unsigned int min_hfreq, max_hfreq;
unsigned int pixel_clock;
 
/* White point indices FIXME: storage format */
unsigned int wpx1, wpy1;
unsigned int wpgamma1;
unsigned int wpx2, wpy2;
unsigned int wpgamma2;
 
enum subpixel_order subpixel_order;
 
char *raw_edid; /* if any */
};
 
struct drm_framebuffer_funcs {
void (*destroy)(struct drm_framebuffer *framebuffer);
int (*create_handle)(struct drm_framebuffer *fb,
struct drm_file *file_priv,
unsigned int *handle);
};
 
struct drm_framebuffer {
struct drm_device *dev;
struct list_head head;
struct drm_mode_object base;
const struct drm_framebuffer_funcs *funcs;
unsigned int pitch;
unsigned int width;
unsigned int height;
/* depth can be 15 or 16 */
unsigned int depth;
int bits_per_pixel;
int flags;
void *fbdev;
u32 pseudo_palette[17];
struct list_head filp_head;
};
 
struct drm_property_blob {
struct drm_mode_object base;
struct list_head head;
unsigned int length;
void *data;
};
 
struct drm_property_enum {
uint64_t value;
struct list_head head;
char name[DRM_PROP_NAME_LEN];
};
 
struct drm_property {
struct list_head head;
struct drm_mode_object base;
uint32_t flags;
char name[DRM_PROP_NAME_LEN];
uint32_t num_values;
uint64_t *values;
 
struct list_head enum_blob_list;
};
 
struct drm_crtc;
struct drm_connector;
struct drm_encoder;
 
/**
* drm_crtc_funcs - control CRTCs for a given device
* @dpms: control display power levels
* @save: save CRTC state
* @resore: restore CRTC state
* @lock: lock the CRTC
* @unlock: unlock the CRTC
* @shadow_allocate: allocate shadow pixmap
* @shadow_create: create shadow pixmap for rotation support
* @shadow_destroy: free shadow pixmap
* @mode_fixup: fixup proposed mode
* @mode_set: set the desired mode on the CRTC
* @gamma_set: specify color ramp for CRTC
* @destroy: deinit and free object.
*
* The drm_crtc_funcs structure is the central CRTC management structure
* in the DRM. Each CRTC controls one or more connectors (note that the name
* CRTC is simply historical, a CRTC may control LVDS, VGA, DVI, TV out, etc.
* connectors, not just CRTs).
*
* Each driver is responsible for filling out this structure at startup time,
* in addition to providing other modesetting features, like i2c and DDC
* bus accessors.
*/
struct drm_crtc_funcs {
/* Save CRTC state */
void (*save)(struct drm_crtc *crtc); /* suspend? */
/* Restore CRTC state */
void (*restore)(struct drm_crtc *crtc); /* resume? */
 
/* cursor controls */
int (*cursor_set)(struct drm_crtc *crtc, struct drm_file *file_priv,
uint32_t handle, uint32_t width, uint32_t height);
int (*cursor_move)(struct drm_crtc *crtc, int x, int y);
 
/* Set gamma on the CRTC */
void (*gamma_set)(struct drm_crtc *crtc, u16_t *r, u16_t *g, u16_t *b,
uint32_t size);
/* Object destroy routine */
void (*destroy)(struct drm_crtc *crtc);
 
int (*set_config)(struct drm_mode_set *set);
};
 
/**
* drm_crtc - central CRTC control structure
* @enabled: is this CRTC enabled?
* @x: x position on screen
* @y: y position on screen
* @desired_mode: new desired mode
* @desired_x: desired x for desired_mode
* @desired_y: desired y for desired_mode
* @funcs: CRTC control functions
*
* Each CRTC may have one or more connectors associated with it. This structure
* allows the CRTC to be controlled.
*/
struct drm_crtc {
struct drm_device *dev;
struct list_head head;
 
struct drm_mode_object base;
 
/* framebuffer the connector is currently bound to */
struct drm_framebuffer *fb;
 
bool enabled;
 
struct drm_display_mode mode;
 
int x, y;
struct drm_display_mode *desired_mode;
int desired_x, desired_y;
const struct drm_crtc_funcs *funcs;
 
/* CRTC gamma size for reporting to userspace */
uint32_t gamma_size;
uint16_t *gamma_store;
 
/* if you are using the helper */
void *helper_private;
};
 
 
/**
* drm_connector_funcs - control connectors on a given device
* @dpms: set power state (see drm_crtc_funcs above)
* @save: save connector state
* @restore: restore connector state
* @mode_valid: is this mode valid on the given connector?
* @mode_fixup: try to fixup proposed mode for this connector
* @mode_set: set this mode
* @detect: is this connector active?
* @get_modes: get mode list for this connector
* @set_property: property for this connector may need update
* @destroy: make object go away
*
* Each CRTC may have one or more connectors attached to it. The functions
* below allow the core DRM code to control connectors, enumerate available modes,
* etc.
*/
struct drm_connector_funcs {
void (*dpms)(struct drm_connector *connector, int mode);
void (*save)(struct drm_connector *connector);
void (*restore)(struct drm_connector *connector);
enum drm_connector_status (*detect)(struct drm_connector *connector);
int (*fill_modes)(struct drm_connector *connector, uint32_t max_width, uint32_t max_height);
int (*set_property)(struct drm_connector *connector, struct drm_property *property,
uint64_t val);
void (*destroy)(struct drm_connector *connector);
};
 
struct drm_encoder_funcs {
void (*destroy)(struct drm_encoder *encoder);
};
 
#define DRM_CONNECTOR_MAX_UMODES 16
#define DRM_CONNECTOR_MAX_PROPERTY 16
#define DRM_CONNECTOR_LEN 32
#define DRM_CONNECTOR_MAX_ENCODER 2
 
/**
* drm_encoder - central DRM encoder structure
*/
struct drm_encoder {
struct drm_device *dev;
struct list_head head;
 
struct drm_mode_object base;
int encoder_type;
uint32_t possible_crtcs;
uint32_t possible_clones;
 
struct drm_crtc *crtc;
const struct drm_encoder_funcs *funcs;
void *helper_private;
};
 
/**
* drm_connector - central DRM connector control structure
* @crtc: CRTC this connector is currently connected to, NULL if none
* @interlace_allowed: can this connector handle interlaced modes?
* @doublescan_allowed: can this connector handle doublescan?
* @available_modes: modes available on this connector (from get_modes() + user)
* @initial_x: initial x position for this connector
* @initial_y: initial y position for this connector
* @status: connector connected?
* @funcs: connector control functions
*
* Each connector may be connected to one or more CRTCs, or may be clonable by
* another connector if they can share a CRTC. Each connector also has a specific
* position in the broader display (referred to as a 'screen' though it could
* span multiple monitors).
*/
struct drm_connector {
struct drm_device *dev;
// struct device kdev;
struct device_attribute *attr;
struct list_head head;
 
struct drm_mode_object base;
 
int connector_type;
int connector_type_id;
bool interlace_allowed;
bool doublescan_allowed;
struct list_head modes; /* list of modes on this connector */
 
int initial_x, initial_y;
enum drm_connector_status status;
 
/* these are modes added by probing with DDC or the BIOS */
struct list_head probed_modes;
 
struct drm_display_info display_info;
const struct drm_connector_funcs *funcs;
 
struct list_head user_modes;
struct drm_property_blob *edid_blob_ptr;
u32_t property_ids[DRM_CONNECTOR_MAX_PROPERTY];
uint64_t property_values[DRM_CONNECTOR_MAX_PROPERTY];
 
/* requested DPMS state */
int dpms;
 
void *helper_private;
 
uint32_t encoder_ids[DRM_CONNECTOR_MAX_ENCODER];
uint32_t force_encoder_id;
struct drm_encoder *encoder; /* currently active encoder */
};
 
/**
* struct drm_mode_set
*
* Represents a single crtc the connectors that it drives with what mode
* and from which framebuffer it scans out from.
*
* This is used to set modes.
*/
struct drm_mode_set {
struct list_head head;
 
struct drm_framebuffer *fb;
struct drm_crtc *crtc;
struct drm_display_mode *mode;
 
uint32_t x;
uint32_t y;
 
struct drm_connector **connectors;
size_t num_connectors;
};
 
/**
* struct drm_mode_config_funcs - configure CRTCs for a given screen layout
* @resize: adjust CRTCs as necessary for the proposed layout
*
* Currently only a resize hook is available. DRM will call back into the
* driver with a new screen width and height. If the driver can't support
* the proposed size, it can return false. Otherwise it should adjust
* the CRTC<->connector mappings as needed and update its view of the screen.
*/
struct drm_mode_config_funcs {
struct drm_framebuffer *(*fb_create)(struct drm_device *dev, struct drm_file *file_priv, struct drm_mode_fb_cmd *mode_cmd);
int (*fb_changed)(struct drm_device *dev);
};
 
struct drm_mode_group {
uint32_t num_crtcs;
uint32_t num_encoders;
uint32_t num_connectors;
 
/* list of object IDs for this group */
uint32_t *id_list;
};
 
/**
* drm_mode_config - Mode configuration control structure
*
*/
struct drm_mode_config {
// struct mutex mutex; /* protects configuration (mode lists etc.) */
// struct mutex idr_mutex; /* for IDR management */
struct idr crtc_idr; /* use this idr for all IDs, fb, crtc, connector, modes - just makes life easier */
/* this is limited to one for now */
int num_fb;
struct list_head fb_list;
int num_connector;
struct list_head connector_list;
int num_encoder;
struct list_head encoder_list;
 
int num_crtc;
struct list_head crtc_list;
 
struct list_head property_list;
 
/* in-kernel framebuffers - hung of filp_head in drm_framebuffer */
struct list_head fb_kernel_list;
 
int min_width, min_height;
int max_width, max_height;
struct drm_mode_config_funcs *funcs;
resource_size_t fb_base;
 
/* pointers to standard properties */
struct list_head property_blob_list;
struct drm_property *edid_property;
struct drm_property *dpms_property;
 
/* DVI-I properties */
struct drm_property *dvi_i_subconnector_property;
struct drm_property *dvi_i_select_subconnector_property;
 
/* TV properties */
struct drm_property *tv_subconnector_property;
struct drm_property *tv_select_subconnector_property;
struct drm_property *tv_mode_property;
struct drm_property *tv_left_margin_property;
struct drm_property *tv_right_margin_property;
struct drm_property *tv_top_margin_property;
struct drm_property *tv_bottom_margin_property;
 
/* Optional properties */
struct drm_property *scaling_mode_property;
struct drm_property *dithering_mode_property;
};
 
#define obj_to_crtc(x) container_of(x, struct drm_crtc, base)
#define obj_to_connector(x) container_of(x, struct drm_connector, base)
#define obj_to_encoder(x) container_of(x, struct drm_encoder, base)
#define obj_to_mode(x) container_of(x, struct drm_display_mode, base)
#define obj_to_fb(x) container_of(x, struct drm_framebuffer, base)
#define obj_to_property(x) container_of(x, struct drm_property, base)
#define obj_to_blob(x) container_of(x, struct drm_property_blob, base)
 
extern void drm_crtc_init(struct drm_device *dev,
struct drm_crtc *crtc,
const struct drm_crtc_funcs *funcs);
extern void drm_crtc_cleanup(struct drm_crtc *crtc);
 
extern void drm_connector_init(struct drm_device *dev,
struct drm_connector *connector,
const struct drm_connector_funcs *funcs,
int connector_type);
 
extern void drm_connector_cleanup(struct drm_connector *connector);
 
extern void drm_encoder_init(struct drm_device *dev,
struct drm_encoder *encoder,
const struct drm_encoder_funcs *funcs,
int encoder_type);
 
extern void drm_encoder_cleanup(struct drm_encoder *encoder);
 
extern char *drm_get_connector_name(struct drm_connector *connector);
extern char *drm_get_dpms_name(int val);
extern char *drm_get_dvi_i_subconnector_name(int val);
extern char *drm_get_dvi_i_select_name(int val);
extern char *drm_get_tv_subconnector_name(int val);
extern char *drm_get_tv_select_name(int val);
 
 
 
//extern void drm_fb_release(struct drm_file *file_priv);
//extern int drm_mode_group_init_legacy_group(struct drm_device *dev, struct drm_mode_group *group);
//extern struct edid *drm_get_edid(struct drm_connector *connector,
// struct i2c_adapter *adapter);
//extern int drm_do_probe_ddc_edid(struct i2c_adapter *adapter,
// unsigned char *buf, int len);
//extern int drm_add_edid_modes(struct drm_connector *connector, struct edid *edid);
extern void drm_mode_probed_add(struct drm_connector *connector, struct drm_display_mode *mode);
extern void drm_mode_remove(struct drm_connector *connector, struct drm_display_mode *mode);
extern struct drm_display_mode *drm_mode_duplicate(struct drm_device *dev,
struct drm_display_mode *mode);
extern void drm_mode_debug_printmodeline(struct drm_display_mode *mode);
extern void drm_mode_config_init(struct drm_device *dev);
extern void drm_mode_config_cleanup(struct drm_device *dev);
extern void drm_mode_set_name(struct drm_display_mode *mode);
extern bool drm_mode_equal(struct drm_display_mode *mode1, struct drm_display_mode *mode2);
extern int drm_mode_width(struct drm_display_mode *mode);
extern int drm_mode_height(struct drm_display_mode *mode);
 
/* for us by fb module */
extern int drm_mode_attachmode_crtc(struct drm_device *dev,
struct drm_crtc *crtc,
struct drm_display_mode *mode);
extern int drm_mode_detachmode_crtc(struct drm_device *dev, struct drm_display_mode *mode);
 
extern struct drm_display_mode *drm_mode_create(struct drm_device *dev);
extern void drm_mode_destroy(struct drm_device *dev, struct drm_display_mode *mode);
//extern void drm_mode_list_concat(struct list_head *head,
// struct list_head *new);
//extern void drm_mode_validate_size(struct drm_device *dev,
// struct list_head *mode_list,
// int maxX, int maxY, int maxPitch);
//extern void drm_mode_prune_invalid(struct drm_device *dev,
// struct list_head *mode_list, bool verbose);
//extern void drm_mode_sort(struct list_head *mode_list);
extern int drm_mode_vrefresh(struct drm_display_mode *mode);
extern void drm_mode_set_crtcinfo(struct drm_display_mode *p,
int adjust_flags);
extern void drm_mode_connector_list_update(struct drm_connector *connector);
//extern int drm_mode_connector_update_edid_property(struct drm_connector *connector,
// struct edid *edid);
extern int drm_connector_property_set_value(struct drm_connector *connector,
struct drm_property *property,
uint64_t value);
extern int drm_connector_property_get_value(struct drm_connector *connector,
struct drm_property *property,
uint64_t *value);
extern struct drm_display_mode *drm_crtc_mode_create(struct drm_device *dev);
extern void drm_framebuffer_set_object(struct drm_device *dev,
unsigned long handle);
extern int drm_framebuffer_init(struct drm_device *dev,
struct drm_framebuffer *fb,
const struct drm_framebuffer_funcs *funcs);
extern void drm_framebuffer_cleanup(struct drm_framebuffer *fb);
extern int drmfb_probe(struct drm_device *dev, struct drm_crtc *crtc);
extern int drmfb_remove(struct drm_device *dev, struct drm_framebuffer *fb);
extern void drm_crtc_probe_connector_modes(struct drm_device *dev, int maxX, int maxY);
extern bool drm_crtc_in_use(struct drm_crtc *crtc);
 
extern int drm_connector_attach_property(struct drm_connector *connector,
struct drm_property *property, uint64_t init_val);
extern struct drm_property *drm_property_create(struct drm_device *dev, int flags,
const char *name, int num_values);
extern void drm_property_destroy(struct drm_device *dev, struct drm_property *property);
extern int drm_property_add_enum(struct drm_property *property, int index,
uint64_t value, const char *name);
extern int drm_mode_create_dvi_i_properties(struct drm_device *dev);
extern int drm_mode_create_tv_properties(struct drm_device *dev, int num_formats,
char *formats[]);
extern int drm_mode_create_scaling_mode_property(struct drm_device *dev);
extern int drm_mode_create_dithering_property(struct drm_device *dev);
extern char *drm_get_encoder_name(struct drm_encoder *encoder);
 
extern int drm_mode_connector_attach_encoder(struct drm_connector *connector,
struct drm_encoder *encoder);
extern void drm_mode_connector_detach_encoder(struct drm_connector *connector,
struct drm_encoder *encoder);
extern bool drm_mode_crtc_set_gamma_size(struct drm_crtc *crtc,
int gamma_size);
extern void *drm_mode_object_find(struct drm_device *dev, uint32_t id, uint32_t type);
/* IOCTLs */
extern int drm_mode_getresources(struct drm_device *dev,
void *data, struct drm_file *file_priv);
 
extern int drm_mode_getcrtc(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_getconnector(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_setcrtc(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_cursor_ioctl(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_addfb(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_rmfb(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_getfb(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_addmode_ioctl(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_rmmode_ioctl(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_attachmode_ioctl(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_detachmode_ioctl(struct drm_device *dev,
void *data, struct drm_file *file_priv);
 
extern int drm_mode_getproperty_ioctl(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_getblob_ioctl(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_connector_property_set_ioctl(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_hotplug_ioctl(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_replacefb(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_getencoder(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_gamma_get_ioctl(struct drm_device *dev,
void *data, struct drm_file *file_priv);
extern int drm_mode_gamma_set_ioctl(struct drm_device *dev,
void *data, struct drm_file *file_priv);
//extern bool drm_detect_hdmi_monitor(struct edid *edid);
 
 
#endif /* __DRM_CRTC_H__ */
/drivers/video/drm/include/linux/sched.h
File deleted
/drivers/video/drm/include/linux/module.h
File deleted
/drivers/video/drm/include/linux/types.h
File deleted
/drivers/video/drm/include/linux/i2c-id.h
File deleted
/drivers/video/drm/include/linux/list.h
File deleted
/drivers/video/drm/include/linux/fb.h
File deleted
/drivers/video/drm/include/linux/seq_file.h
File deleted
/drivers/video/drm/include/drm.h
36,7 → 36,7
#ifndef _DRM_H_
#define _DRM_H_
 
#include <linux/types.h>
#include <types.h>
#include <errno-base.h>
 
//#include <asm/ioctl.h> /* For _IO* macros */
741,7 → 741,4
typedef struct drm_set_version drm_set_version_t;
#endif
 
#define mutex_lock(x)
#define mutex_unlock(x)
 
#endif
/drivers/video/drm/include/drm_crtc_helper.h
0,0 → 1,126
/*
* Copyright © 2006 Keith Packard
* Copyright © 2007-2008 Dave Airlie
* Copyright © 2007-2008 Intel Corporation
* Jesse Barnes <jesse.barnes@intel.com>
*
* Permission is hereby granted, free of charge, to any person obtaining a
* copy of this software and associated documentation files (the "Software"),
* to deal in the Software without restriction, including without limitation
* the rights to use, copy, modify, merge, publish, distribute, sublicense,
* and/or sell copies of the Software, and to permit persons to whom the
* Software is furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL
* THE COPYRIGHT HOLDER(S) OR AUTHOR(S) BE LIABLE FOR ANY CLAIM, DAMAGES OR
* OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE,
* ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR
* OTHER DEALINGS IN THE SOFTWARE.
*/
 
/*
* The DRM mode setting helper functions are common code for drivers to use if
* they wish. Drivers are not forced to use this code in their
* implementations but it would be useful if they code they do use at least
* provides a consistent interface and operation to userspace
*/
 
#ifndef __DRM_CRTC_HELPER_H__
#define __DRM_CRTC_HELPER_H__
 
//#include <linux/spinlock.h>
//#include <linux/types.h>
//#include <linux/idr.h>
 
//#include <linux/fb.h>
 
struct drm_crtc_helper_funcs {
/*
* Control power levels on the CRTC. If the mode passed in is
* unsupported, the provider must use the next lowest power level.
*/
void (*dpms)(struct drm_crtc *crtc, int mode);
void (*prepare)(struct drm_crtc *crtc);
void (*commit)(struct drm_crtc *crtc);
 
/* Provider can fixup or change mode timings before modeset occurs */
bool (*mode_fixup)(struct drm_crtc *crtc,
struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode);
/* Actually set the mode */
int (*mode_set)(struct drm_crtc *crtc, struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode, int x, int y,
struct drm_framebuffer *old_fb);
 
/* Move the crtc on the current fb to the given position *optional* */
int (*mode_set_base)(struct drm_crtc *crtc, int x, int y,
struct drm_framebuffer *old_fb);
};
 
struct drm_encoder_helper_funcs {
void (*dpms)(struct drm_encoder *encoder, int mode);
void (*save)(struct drm_encoder *encoder);
void (*restore)(struct drm_encoder *encoder);
 
bool (*mode_fixup)(struct drm_encoder *encoder,
struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode);
void (*prepare)(struct drm_encoder *encoder);
void (*commit)(struct drm_encoder *encoder);
void (*mode_set)(struct drm_encoder *encoder,
struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode);
struct drm_crtc *(*get_crtc)(struct drm_encoder *encoder);
/* detect for DAC style encoders */
enum drm_connector_status (*detect)(struct drm_encoder *encoder,
struct drm_connector *connector);
};
 
struct drm_connector_helper_funcs {
int (*get_modes)(struct drm_connector *connector);
int (*mode_valid)(struct drm_connector *connector,
struct drm_display_mode *mode);
struct drm_encoder *(*best_encoder)(struct drm_connector *connector);
};
 
extern int drm_helper_probe_single_connector_modes(struct drm_connector *connector, uint32_t maxX, uint32_t maxY);
extern void drm_helper_disable_unused_functions(struct drm_device *dev);
extern int drm_helper_hotplug_stage_two(struct drm_device *dev);
extern bool drm_helper_initial_config(struct drm_device *dev);
extern int drm_crtc_helper_set_config(struct drm_mode_set *set);
extern bool drm_crtc_helper_set_mode(struct drm_crtc *crtc,
struct drm_display_mode *mode,
int x, int y,
struct drm_framebuffer *old_fb);
extern bool drm_helper_crtc_in_use(struct drm_crtc *crtc);
 
extern void drm_helper_connector_dpms(struct drm_connector *connector, int mode);
 
extern int drm_helper_mode_fill_fb_struct(struct drm_framebuffer *fb,
struct drm_mode_fb_cmd *mode_cmd);
 
static inline void drm_crtc_helper_add(struct drm_crtc *crtc,
const struct drm_crtc_helper_funcs *funcs)
{
crtc->helper_private = (void *)funcs;
}
 
static inline void drm_encoder_helper_add(struct drm_encoder *encoder,
const struct drm_encoder_helper_funcs *funcs)
{
encoder->helper_private = (void *)funcs;
}
 
static inline void drm_connector_helper_add(struct drm_connector *connector,
const struct drm_connector_helper_funcs *funcs)
{
connector->helper_private = (void *)funcs;
}
 
extern int drm_helper_resume_force_mode(struct drm_device *dev);
#endif
/drivers/video/drm/include/list.h
0,0 → 1,703
#ifndef _LINUX_LIST_H
#define _LINUX_LIST_H
 
//#include <linux/stddef.h>
//#include <linux/poison.h>
//#include <linux/prefetch.h>
//#include <asm/system.h>
 
/*
* Simple doubly linked list implementation.
*
* Some of the internal functions ("__xxx") are useful when
* manipulating whole lists rather than single entries, as
* sometimes we already know the next/prev entries and we can
* generate better code by using them directly rather than
* using the generic single-entry routines.
*/
 
#define LIST_POISON1 ((struct list_head*)0xFFFF0100)
#define LIST_POISON2 ((struct list_head*)0xFFFF0200)
 
#define prefetch(x) __builtin_prefetch(x)
 
struct list_head {
struct list_head *next, *prev;
};
 
#define LIST_HEAD_INIT(name) { &(name), &(name) }
 
#define LIST_HEAD(name) \
struct list_head name = LIST_HEAD_INIT(name)
 
static inline void INIT_LIST_HEAD(struct list_head *list)
{
list->next = list;
list->prev = list;
}
 
/*
* Insert a new entry between two known consecutive entries.
*
* This is only for internal list manipulation where we know
* the prev/next entries already!
*/
#ifndef CONFIG_DEBUG_LIST
static inline void __list_add(struct list_head *new,
struct list_head *prev,
struct list_head *next)
{
next->prev = new;
new->next = next;
new->prev = prev;
prev->next = new;
}
#else
extern void __list_add(struct list_head *new,
struct list_head *prev,
struct list_head *next);
#endif
 
/**
* list_add - add a new entry
* @new: new entry to be added
* @head: list head to add it after
*
* Insert a new entry after the specified head.
* This is good for implementing stacks.
*/
static inline void list_add(struct list_head *new, struct list_head *head)
{
__list_add(new, head, head->next);
}
 
 
/**
* list_add_tail - add a new entry
* @new: new entry to be added
* @head: list head to add it before
*
* Insert a new entry before the specified head.
* This is useful for implementing queues.
*/
static inline void list_add_tail(struct list_head *new, struct list_head *head)
{
__list_add(new, head->prev, head);
}
 
/*
* Delete a list entry by making the prev/next entries
* point to each other.
*
* This is only for internal list manipulation where we know
* the prev/next entries already!
*/
static inline void __list_del(struct list_head * prev, struct list_head * next)
{
next->prev = prev;
prev->next = next;
}
 
/**
* list_del - deletes entry from list.
* @entry: the element to delete from the list.
* Note: list_empty() on entry does not return true after this, the entry is
* in an undefined state.
*/
#ifndef CONFIG_DEBUG_LIST
static inline void list_del(struct list_head *entry)
{
__list_del(entry->prev, entry->next);
entry->next = LIST_POISON1;
entry->prev = LIST_POISON2;
}
#else
extern void list_del(struct list_head *entry);
#endif
 
/**
* list_replace - replace old entry by new one
* @old : the element to be replaced
* @new : the new element to insert
*
* If @old was empty, it will be overwritten.
*/
static inline void list_replace(struct list_head *old,
struct list_head *new)
{
new->next = old->next;
new->next->prev = new;
new->prev = old->prev;
new->prev->next = new;
}
 
static inline void list_replace_init(struct list_head *old,
struct list_head *new)
{
list_replace(old, new);
INIT_LIST_HEAD(old);
}
 
/**
* list_del_init - deletes entry from list and reinitialize it.
* @entry: the element to delete from the list.
*/
static inline void list_del_init(struct list_head *entry)
{
__list_del(entry->prev, entry->next);
INIT_LIST_HEAD(entry);
}
 
/**
* list_move - delete from one list and add as another's head
* @list: the entry to move
* @head: the head that will precede our entry
*/
static inline void list_move(struct list_head *list, struct list_head *head)
{
__list_del(list->prev, list->next);
list_add(list, head);
}
 
/**
* list_move_tail - delete from one list and add as another's tail
* @list: the entry to move
* @head: the head that will follow our entry
*/
static inline void list_move_tail(struct list_head *list,
struct list_head *head)
{
__list_del(list->prev, list->next);
list_add_tail(list, head);
}
 
/**
* list_is_last - tests whether @list is the last entry in list @head
* @list: the entry to test
* @head: the head of the list
*/
static inline int list_is_last(const struct list_head *list,
const struct list_head *head)
{
return list->next == head;
}
 
/**
* list_empty - tests whether a list is empty
* @head: the list to test.
*/
static inline int list_empty(const struct list_head *head)
{
return head->next == head;
}
 
/**
* list_empty_careful - tests whether a list is empty and not being modified
* @head: the list to test
*
* Description:
* tests whether a list is empty _and_ checks that no other CPU might be
* in the process of modifying either member (next or prev)
*
* NOTE: using list_empty_careful() without synchronization
* can only be safe if the only activity that can happen
* to the list entry is list_del_init(). Eg. it cannot be used
* if another CPU could re-list_add() it.
*/
static inline int list_empty_careful(const struct list_head *head)
{
struct list_head *next = head->next;
return (next == head) && (next == head->prev);
}
 
/**
* list_is_singular - tests whether a list has just one entry.
* @head: the list to test.
*/
static inline int list_is_singular(const struct list_head *head)
{
return !list_empty(head) && (head->next == head->prev);
}
 
static inline void __list_cut_position(struct list_head *list,
struct list_head *head, struct list_head *entry)
{
struct list_head *new_first = entry->next;
list->next = head->next;
list->next->prev = list;
list->prev = entry;
entry->next = list;
head->next = new_first;
new_first->prev = head;
}
 
/**
* list_cut_position - cut a list into two
* @list: a new list to add all removed entries
* @head: a list with entries
* @entry: an entry within head, could be the head itself
* and if so we won't cut the list
*
* This helper moves the initial part of @head, up to and
* including @entry, from @head to @list. You should
* pass on @entry an element you know is on @head. @list
* should be an empty list or a list you do not care about
* losing its data.
*
*/
static inline void list_cut_position(struct list_head *list,
struct list_head *head, struct list_head *entry)
{
if (list_empty(head))
return;
if (list_is_singular(head) &&
(head->next != entry && head != entry))
return;
if (entry == head)
INIT_LIST_HEAD(list);
else
__list_cut_position(list, head, entry);
}
 
static inline void __list_splice(const struct list_head *list,
struct list_head *prev,
struct list_head *next)
{
struct list_head *first = list->next;
struct list_head *last = list->prev;
 
first->prev = prev;
prev->next = first;
 
last->next = next;
next->prev = last;
}
 
/**
* list_splice - join two lists, this is designed for stacks
* @list: the new list to add.
* @head: the place to add it in the first list.
*/
static inline void list_splice(const struct list_head *list,
struct list_head *head)
{
if (!list_empty(list))
__list_splice(list, head, head->next);
}
 
/**
* list_splice_tail - join two lists, each list being a queue
* @list: the new list to add.
* @head: the place to add it in the first list.
*/
static inline void list_splice_tail(struct list_head *list,
struct list_head *head)
{
if (!list_empty(list))
__list_splice(list, head->prev, head);
}
 
/**
* list_splice_init - join two lists and reinitialise the emptied list.
* @list: the new list to add.
* @head: the place to add it in the first list.
*
* The list at @list is reinitialised
*/
static inline void list_splice_init(struct list_head *list,
struct list_head *head)
{
if (!list_empty(list)) {
__list_splice(list, head, head->next);
INIT_LIST_HEAD(list);
}
}
 
/**
* list_splice_tail_init - join two lists and reinitialise the emptied list
* @list: the new list to add.
* @head: the place to add it in the first list.
*
* Each of the lists is a queue.
* The list at @list is reinitialised
*/
static inline void list_splice_tail_init(struct list_head *list,
struct list_head *head)
{
if (!list_empty(list)) {
__list_splice(list, head->prev, head);
INIT_LIST_HEAD(list);
}
}
 
/**
* list_entry - get the struct for this entry
* @ptr: the &struct list_head pointer.
* @type: the type of the struct this is embedded in.
* @member: the name of the list_struct within the struct.
*/
#define list_entry(ptr, type, member) \
container_of(ptr, type, member)
 
/**
* list_first_entry - get the first element from a list
* @ptr: the list head to take the element from.
* @type: the type of the struct this is embedded in.
* @member: the name of the list_struct within the struct.
*
* Note, that list is expected to be not empty.
*/
#define list_first_entry(ptr, type, member) \
list_entry((ptr)->next, type, member)
 
/**
* list_for_each - iterate over a list
* @pos: the &struct list_head to use as a loop cursor.
* @head: the head for your list.
*/
#define list_for_each(pos, head) \
for (pos = (head)->next; prefetch(pos->next), pos != (head); \
pos = pos->next)
 
/**
* __list_for_each - iterate over a list
* @pos: the &struct list_head to use as a loop cursor.
* @head: the head for your list.
*
* This variant differs from list_for_each() in that it's the
* simplest possible list iteration code, no prefetching is done.
* Use this for code that knows the list to be very short (empty
* or 1 entry) most of the time.
*/
#define __list_for_each(pos, head) \
for (pos = (head)->next; pos != (head); pos = pos->next)
 
/**
* list_for_each_prev - iterate over a list backwards
* @pos: the &struct list_head to use as a loop cursor.
* @head: the head for your list.
*/
#define list_for_each_prev(pos, head) \
for (pos = (head)->prev; prefetch(pos->prev), pos != (head); \
pos = pos->prev)
 
/**
* list_for_each_safe - iterate over a list safe against removal of list entry
* @pos: the &struct list_head to use as a loop cursor.
* @n: another &struct list_head to use as temporary storage
* @head: the head for your list.
*/
#define list_for_each_safe(pos, n, head) \
for (pos = (head)->next, n = pos->next; pos != (head); \
pos = n, n = pos->next)
 
/**
* list_for_each_prev_safe - iterate over a list backwards safe against removal of list entry
* @pos: the &struct list_head to use as a loop cursor.
* @n: another &struct list_head to use as temporary storage
* @head: the head for your list.
*/
#define list_for_each_prev_safe(pos, n, head) \
for (pos = (head)->prev, n = pos->prev; \
prefetch(pos->prev), pos != (head); \
pos = n, n = pos->prev)
 
/**
* list_for_each_entry - iterate over list of given type
* @pos: the type * to use as a loop cursor.
* @head: the head for your list.
* @member: the name of the list_struct within the struct.
*/
#define list_for_each_entry(pos, head, member) \
for (pos = list_entry((head)->next, typeof(*pos), member); \
prefetch(pos->member.next), &pos->member != (head); \
pos = list_entry(pos->member.next, typeof(*pos), member))
 
/**
* list_for_each_entry_reverse - iterate backwards over list of given type.
* @pos: the type * to use as a loop cursor.
* @head: the head for your list.
* @member: the name of the list_struct within the struct.
*/
#define list_for_each_entry_reverse(pos, head, member) \
for (pos = list_entry((head)->prev, typeof(*pos), member); \
prefetch(pos->member.prev), &pos->member != (head); \
pos = list_entry(pos->member.prev, typeof(*pos), member))
 
/**
* list_prepare_entry - prepare a pos entry for use in list_for_each_entry_continue()
* @pos: the type * to use as a start point
* @head: the head of the list
* @member: the name of the list_struct within the struct.
*
* Prepares a pos entry for use as a start point in list_for_each_entry_continue().
*/
#define list_prepare_entry(pos, head, member) \
((pos) ? : list_entry(head, typeof(*pos), member))
 
/**
* list_for_each_entry_continue - continue iteration over list of given type
* @pos: the type * to use as a loop cursor.
* @head: the head for your list.
* @member: the name of the list_struct within the struct.
*
* Continue to iterate over list of given type, continuing after
* the current position.
*/
#define list_for_each_entry_continue(pos, head, member) \
for (pos = list_entry(pos->member.next, typeof(*pos), member); \
prefetch(pos->member.next), &pos->member != (head); \
pos = list_entry(pos->member.next, typeof(*pos), member))
 
/**
* list_for_each_entry_continue_reverse - iterate backwards from the given point
* @pos: the type * to use as a loop cursor.
* @head: the head for your list.
* @member: the name of the list_struct within the struct.
*
* Start to iterate over list of given type backwards, continuing after
* the current position.
*/
#define list_for_each_entry_continue_reverse(pos, head, member) \
for (pos = list_entry(pos->member.prev, typeof(*pos), member); \
prefetch(pos->member.prev), &pos->member != (head); \
pos = list_entry(pos->member.prev, typeof(*pos), member))
 
/**
* list_for_each_entry_from - iterate over list of given type from the current point
* @pos: the type * to use as a loop cursor.
* @head: the head for your list.
* @member: the name of the list_struct within the struct.
*
* Iterate over list of given type, continuing from current position.
*/
#define list_for_each_entry_from(pos, head, member) \
for (; prefetch(pos->member.next), &pos->member != (head); \
pos = list_entry(pos->member.next, typeof(*pos), member))
 
/**
* list_for_each_entry_safe - iterate over list of given type safe against removal of list entry
* @pos: the type * to use as a loop cursor.
* @n: another type * to use as temporary storage
* @head: the head for your list.
* @member: the name of the list_struct within the struct.
*/
#define list_for_each_entry_safe(pos, n, head, member) \
for (pos = list_entry((head)->next, typeof(*pos), member), \
n = list_entry(pos->member.next, typeof(*pos), member); \
&pos->member != (head); \
pos = n, n = list_entry(n->member.next, typeof(*n), member))
 
/**
* list_for_each_entry_safe_continue
* @pos: the type * to use as a loop cursor.
* @n: another type * to use as temporary storage
* @head: the head for your list.
* @member: the name of the list_struct within the struct.
*
* Iterate over list of given type, continuing after current point,
* safe against removal of list entry.
*/
#define list_for_each_entry_safe_continue(pos, n, head, member) \
for (pos = list_entry(pos->member.next, typeof(*pos), member), \
n = list_entry(pos->member.next, typeof(*pos), member); \
&pos->member != (head); \
pos = n, n = list_entry(n->member.next, typeof(*n), member))
 
/**
* list_for_each_entry_safe_from
* @pos: the type * to use as a loop cursor.
* @n: another type * to use as temporary storage
* @head: the head for your list.
* @member: the name of the list_struct within the struct.
*
* Iterate over list of given type from current point, safe against
* removal of list entry.
*/
#define list_for_each_entry_safe_from(pos, n, head, member) \
for (n = list_entry(pos->member.next, typeof(*pos), member); \
&pos->member != (head); \
pos = n, n = list_entry(n->member.next, typeof(*n), member))
 
/**
* list_for_each_entry_safe_reverse
* @pos: the type * to use as a loop cursor.
* @n: another type * to use as temporary storage
* @head: the head for your list.
* @member: the name of the list_struct within the struct.
*
* Iterate backwards over list of given type, safe against removal
* of list entry.
*/
#define list_for_each_entry_safe_reverse(pos, n, head, member) \
for (pos = list_entry((head)->prev, typeof(*pos), member), \
n = list_entry(pos->member.prev, typeof(*pos), member); \
&pos->member != (head); \
pos = n, n = list_entry(n->member.prev, typeof(*n), member))
 
/*
* Double linked lists with a single pointer list head.
* Mostly useful for hash tables where the two pointer list head is
* too wasteful.
* You lose the ability to access the tail in O(1).
*/
 
#if 0
struct hlist_head {
struct hlist_node *first;
};
 
struct hlist_node {
struct hlist_node *next, **pprev;
};
 
#define HLIST_HEAD_INIT { .first = NULL }
#define HLIST_HEAD(name) struct hlist_head name = { .first = NULL }
#define INIT_HLIST_HEAD(ptr) ((ptr)->first = NULL)
static inline void INIT_HLIST_NODE(struct hlist_node *h)
{
h->next = NULL;
h->pprev = NULL;
}
 
static inline int hlist_unhashed(const struct hlist_node *h)
{
return !h->pprev;
}
 
static inline int hlist_empty(const struct hlist_head *h)
{
return !h->first;
}
 
static inline void __hlist_del(struct hlist_node *n)
{
struct hlist_node *next = n->next;
struct hlist_node **pprev = n->pprev;
*pprev = next;
if (next)
next->pprev = pprev;
}
 
static inline void hlist_del(struct hlist_node *n)
{
__hlist_del(n);
n->next = LIST_POISON1;
n->pprev = LIST_POISON2;
}
 
static inline void hlist_del_init(struct hlist_node *n)
{
if (!hlist_unhashed(n)) {
__hlist_del(n);
INIT_HLIST_NODE(n);
}
}
 
static inline void hlist_add_head(struct hlist_node *n, struct hlist_head *h)
{
struct hlist_node *first = h->first;
n->next = first;
if (first)
first->pprev = &n->next;
h->first = n;
n->pprev = &h->first;
}
 
/* next must be != NULL */
static inline void hlist_add_before(struct hlist_node *n,
struct hlist_node *next)
{
n->pprev = next->pprev;
n->next = next;
next->pprev = &n->next;
*(n->pprev) = n;
}
 
static inline void hlist_add_after(struct hlist_node *n,
struct hlist_node *next)
{
next->next = n->next;
n->next = next;
next->pprev = &n->next;
 
if(next->next)
next->next->pprev = &next->next;
}
 
/*
* Move a list from one list head to another. Fixup the pprev
* reference of the first entry if it exists.
*/
static inline void hlist_move_list(struct hlist_head *old,
struct hlist_head *new)
{
new->first = old->first;
if (new->first)
new->first->pprev = &new->first;
old->first = NULL;
}
 
#define hlist_entry(ptr, type, member) container_of(ptr,type,member)
 
#define hlist_for_each(pos, head) \
for (pos = (head)->first; pos && ({ prefetch(pos->next); 1; }); \
pos = pos->next)
 
#define hlist_for_each_safe(pos, n, head) \
for (pos = (head)->first; pos && ({ n = pos->next; 1; }); \
pos = n)
 
/**
* hlist_for_each_entry - iterate over list of given type
* @tpos: the type * to use as a loop cursor.
* @pos: the &struct hlist_node to use as a loop cursor.
* @head: the head for your list.
* @member: the name of the hlist_node within the struct.
*/
#define hlist_for_each_entry(tpos, pos, head, member) \
for (pos = (head)->first; \
pos && ({ prefetch(pos->next); 1;}) && \
({ tpos = hlist_entry(pos, typeof(*tpos), member); 1;}); \
pos = pos->next)
 
/**
* hlist_for_each_entry_continue - iterate over a hlist continuing after current point
* @tpos: the type * to use as a loop cursor.
* @pos: the &struct hlist_node to use as a loop cursor.
* @member: the name of the hlist_node within the struct.
*/
#define hlist_for_each_entry_continue(tpos, pos, member) \
for (pos = (pos)->next; \
pos && ({ prefetch(pos->next); 1;}) && \
({ tpos = hlist_entry(pos, typeof(*tpos), member); 1;}); \
pos = pos->next)
 
/**
* hlist_for_each_entry_from - iterate over a hlist continuing from current point
* @tpos: the type * to use as a loop cursor.
* @pos: the &struct hlist_node to use as a loop cursor.
* @member: the name of the hlist_node within the struct.
*/
#define hlist_for_each_entry_from(tpos, pos, member) \
for (; pos && ({ prefetch(pos->next); 1;}) && \
({ tpos = hlist_entry(pos, typeof(*tpos), member); 1;}); \
pos = pos->next)
 
/**
* hlist_for_each_entry_safe - iterate over list of given type safe against removal of list entry
* @tpos: the type * to use as a loop cursor.
* @pos: the &struct hlist_node to use as a loop cursor.
* @n: another &struct hlist_node to use as temporary storage
* @head: the head for your list.
* @member: the name of the hlist_node within the struct.
*/
#define hlist_for_each_entry_safe(tpos, pos, n, head, member) \
for (pos = (head)->first; \
pos && ({ n = pos->next; 1; }) && \
({ tpos = hlist_entry(pos, typeof(*tpos), member); 1;}); \
pos = n)
 
#endif
 
#endif
/drivers/video/drm/include/drm_mode.h
0,0 → 1,268
/*
* Copyright (c) 2007 Dave Airlie <airlied@linux.ie>
* Copyright (c) 2007 Jakob Bornecrantz <wallbraker@gmail.com>
* Copyright (c) 2008 Red Hat Inc.
* Copyright (c) 2007-2008 Tungsten Graphics, Inc., Cedar Park, TX., USA
* Copyright (c) 2007-2008 Intel Corporation
*
* Permission is hereby granted, free of charge, to any person obtaining a
* copy of this software and associated documentation files (the "Software"),
* to deal in the Software without restriction, including without limitation
* the rights to use, copy, modify, merge, publish, distribute, sublicense,
* and/or sell copies of the Software, and to permit persons to whom the
* Software is furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
* AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING
* FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS
* IN THE SOFTWARE.
*/
 
#ifndef _DRM_MODE_H
#define _DRM_MODE_H
 
//#include <linux/kernel.h>
//#include <linux/types.h>
 
#define DRM_DISPLAY_INFO_LEN 32
#define DRM_CONNECTOR_NAME_LEN 32
#define DRM_DISPLAY_MODE_LEN 32
#define DRM_PROP_NAME_LEN 32
 
#define DRM_MODE_TYPE_BUILTIN (1<<0)
#define DRM_MODE_TYPE_CLOCK_C ((1<<1) | DRM_MODE_TYPE_BUILTIN)
#define DRM_MODE_TYPE_CRTC_C ((1<<2) | DRM_MODE_TYPE_BUILTIN)
#define DRM_MODE_TYPE_PREFERRED (1<<3)
#define DRM_MODE_TYPE_DEFAULT (1<<4)
#define DRM_MODE_TYPE_USERDEF (1<<5)
#define DRM_MODE_TYPE_DRIVER (1<<6)
 
/* Video mode flags */
/* bit compatible with the xorg definitions. */
#define DRM_MODE_FLAG_PHSYNC (1<<0)
#define DRM_MODE_FLAG_NHSYNC (1<<1)
#define DRM_MODE_FLAG_PVSYNC (1<<2)
#define DRM_MODE_FLAG_NVSYNC (1<<3)
#define DRM_MODE_FLAG_INTERLACE (1<<4)
#define DRM_MODE_FLAG_DBLSCAN (1<<5)
#define DRM_MODE_FLAG_CSYNC (1<<6)
#define DRM_MODE_FLAG_PCSYNC (1<<7)
#define DRM_MODE_FLAG_NCSYNC (1<<8)
#define DRM_MODE_FLAG_HSKEW (1<<9) /* hskew provided */
#define DRM_MODE_FLAG_BCAST (1<<10)
#define DRM_MODE_FLAG_PIXMUX (1<<11)
#define DRM_MODE_FLAG_DBLCLK (1<<12)
#define DRM_MODE_FLAG_CLKDIV2 (1<<13)
 
/* DPMS flags */
/* bit compatible with the xorg definitions. */
#define DRM_MODE_DPMS_ON 0
#define DRM_MODE_DPMS_STANDBY 1
#define DRM_MODE_DPMS_SUSPEND 2
#define DRM_MODE_DPMS_OFF 3
 
/* Scaling mode options */
#define DRM_MODE_SCALE_NON_GPU 0
#define DRM_MODE_SCALE_FULLSCREEN 1
#define DRM_MODE_SCALE_NO_SCALE 2
#define DRM_MODE_SCALE_ASPECT 3
 
/* Dithering mode options */
#define DRM_MODE_DITHERING_OFF 0
#define DRM_MODE_DITHERING_ON 1
 
struct drm_mode_modeinfo {
__u32 clock;
__u16 hdisplay, hsync_start, hsync_end, htotal, hskew;
__u16 vdisplay, vsync_start, vsync_end, vtotal, vscan;
 
__u32 vrefresh; /* vertical refresh * 1000 */
 
__u32 flags;
__u32 type;
char name[DRM_DISPLAY_MODE_LEN];
};
 
struct drm_mode_card_res {
__u64 fb_id_ptr;
__u64 crtc_id_ptr;
__u64 connector_id_ptr;
__u64 encoder_id_ptr;
__u32 count_fbs;
__u32 count_crtcs;
__u32 count_connectors;
__u32 count_encoders;
__u32 min_width, max_width;
__u32 min_height, max_height;
};
 
struct drm_mode_crtc {
__u64 set_connectors_ptr;
__u32 count_connectors;
 
__u32 crtc_id; /**< Id */
__u32 fb_id; /**< Id of framebuffer */
 
__u32 x, y; /**< Position on the frameuffer */
 
__u32 gamma_size;
__u32 mode_valid;
struct drm_mode_modeinfo mode;
};
 
#define DRM_MODE_ENCODER_NONE 0
#define DRM_MODE_ENCODER_DAC 1
#define DRM_MODE_ENCODER_TMDS 2
#define DRM_MODE_ENCODER_LVDS 3
#define DRM_MODE_ENCODER_TVDAC 4
 
struct drm_mode_get_encoder {
__u32 encoder_id;
__u32 encoder_type;
 
__u32 crtc_id; /**< Id of crtc */
 
__u32 possible_crtcs;
__u32 possible_clones;
};
 
/* This is for connectors with multiple signal types. */
/* Try to match DRM_MODE_CONNECTOR_X as closely as possible. */
#define DRM_MODE_SUBCONNECTOR_Automatic 0
#define DRM_MODE_SUBCONNECTOR_Unknown 0
#define DRM_MODE_SUBCONNECTOR_DVID 3
#define DRM_MODE_SUBCONNECTOR_DVIA 4
#define DRM_MODE_SUBCONNECTOR_Composite 5
#define DRM_MODE_SUBCONNECTOR_SVIDEO 6
#define DRM_MODE_SUBCONNECTOR_Component 8
 
#define DRM_MODE_CONNECTOR_Unknown 0
#define DRM_MODE_CONNECTOR_VGA 1
#define DRM_MODE_CONNECTOR_DVII 2
#define DRM_MODE_CONNECTOR_DVID 3
#define DRM_MODE_CONNECTOR_DVIA 4
#define DRM_MODE_CONNECTOR_Composite 5
#define DRM_MODE_CONNECTOR_SVIDEO 6
#define DRM_MODE_CONNECTOR_LVDS 7
#define DRM_MODE_CONNECTOR_Component 8
#define DRM_MODE_CONNECTOR_9PinDIN 9
#define DRM_MODE_CONNECTOR_DisplayPort 10
#define DRM_MODE_CONNECTOR_HDMIA 11
#define DRM_MODE_CONNECTOR_HDMIB 12
 
struct drm_mode_get_connector {
 
__u64 encoders_ptr;
__u64 modes_ptr;
__u64 props_ptr;
__u64 prop_values_ptr;
 
__u32 count_modes;
__u32 count_props;
__u32 count_encoders;
 
__u32 encoder_id; /**< Current Encoder */
__u32 connector_id; /**< Id */
__u32 connector_type;
__u32 connector_type_id;
 
__u32 connection;
__u32 mm_width, mm_height; /**< HxW in millimeters */
__u32 subpixel;
};
 
#define DRM_MODE_PROP_PENDING (1<<0)
#define DRM_MODE_PROP_RANGE (1<<1)
#define DRM_MODE_PROP_IMMUTABLE (1<<2)
#define DRM_MODE_PROP_ENUM (1<<3) /* enumerated type with text strings */
#define DRM_MODE_PROP_BLOB (1<<4)
 
struct drm_mode_property_enum {
__u64 value;
char name[DRM_PROP_NAME_LEN];
};
 
struct drm_mode_get_property {
__u64 values_ptr; /* values and blob lengths */
__u64 enum_blob_ptr; /* enum and blob id ptrs */
 
__u32 prop_id;
__u32 flags;
char name[DRM_PROP_NAME_LEN];
 
__u32 count_values;
__u32 count_enum_blobs;
};
 
struct drm_mode_connector_set_property {
__u64 value;
__u32 prop_id;
__u32 connector_id;
};
 
struct drm_mode_get_blob {
__u32 blob_id;
__u32 length;
__u64 data;
};
 
struct drm_mode_fb_cmd {
__u32 fb_id;
__u32 width, height;
__u32 pitch;
__u32 bpp;
__u32 depth;
/* driver specific handle */
__u32 handle;
};
 
struct drm_mode_mode_cmd {
__u32 connector_id;
struct drm_mode_modeinfo mode;
};
 
#define DRM_MODE_CURSOR_BO (1<<0)
#define DRM_MODE_CURSOR_MOVE (1<<1)
 
/*
* depending on the value in flags diffrent members are used.
*
* CURSOR_BO uses
* crtc
* width
* height
* handle - if 0 turns the cursor of
*
* CURSOR_MOVE uses
* crtc
* x
* y
*/
struct drm_mode_cursor {
__u32 flags;
__u32 crtc_id;
__s32 x;
__s32 y;
__u32 width;
__u32 height;
/* driver specific handle */
__u32 handle;
};
 
struct drm_mode_crtc_lut {
__u32 crtc_id;
__u32 gamma_size;
 
/* pointers to arrays */
__u64 red;
__u64 green;
__u64 blue;
};
 
#endif
/drivers/video/drm/include/syscall.h
21,7 → 21,7
#define ERR_PARAM -1
 
 
u32_t drvEntry(int, char *)__asm__("_drvEntry");
u32_t __stdcall drvEntry(int)__asm__("_drvEntry");
 
///////////////////////////////////////////////////////////////////////////////
 
/drivers/video/drm/radeon/r100d.h
File deleted
/drivers/video/drm/radeon/r300d.h
File deleted
/drivers/video/drm/radeon/radeon_family.h
File deleted
/drivers/video/drm/radeon/rs600_reg_safe.h
File deleted
/drivers/video/drm/radeon/rv515_reg_safe.h
File deleted
/drivers/video/drm/radeon/avivod.h
File deleted
/drivers/video/drm/radeon/r420.c
File deleted
/drivers/video/drm/radeon/rn50_reg_safe.h
File deleted
/drivers/video/drm/radeon/radeon_cursor.c
File deleted
/drivers/video/drm/radeon/display.h
File deleted
/drivers/video/drm/radeon/rs690r.h
File deleted
/drivers/video/drm/radeon/rv515d.h
File deleted
/drivers/video/drm/radeon/radeon_legacy_tv.c
File deleted
/drivers/video/drm/radeon/r200.c
File deleted
/drivers/video/drm/radeon/r100_reg_safe.h
File deleted
/drivers/video/drm/radeon/r200_reg_safe.h
File deleted
/drivers/video/drm/radeon/r300_reg_safe.h
File deleted
/drivers/video/drm/radeon/r420d.h
File deleted
/drivers/video/drm/radeon/radeon_share.h
File deleted
/drivers/video/drm/radeon/atombios_crtc.c
23,159 → 23,14
* Authors: Dave Airlie
* Alex Deucher
*/
#include <drm/drmP.h>
#include <drm/drm_crtc_helper.h>
#include <drm/radeon_drm.h>
#include <drmP.h>
#include <drm_crtc_helper.h>
#include "radeon_drm.h"
#include "radeon_fixed.h"
#include "radeon.h"
#include "atom.h"
#include "atom-bits.h"
 
/* evil but including atombios.h is much worse */
bool radeon_atom_get_tv_timings(struct radeon_device *rdev, int index,
SET_CRTC_TIMING_PARAMETERS_PS_ALLOCATION *crtc_timing,
int32_t *pixel_clock);
static void atombios_overscan_setup(struct drm_crtc *crtc,
struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode)
{
struct drm_device *dev = crtc->dev;
struct radeon_device *rdev = dev->dev_private;
struct radeon_crtc *radeon_crtc = to_radeon_crtc(crtc);
SET_CRTC_OVERSCAN_PS_ALLOCATION args;
int index = GetIndexIntoMasterTable(COMMAND, SetCRTC_OverScan);
int a1, a2;
 
memset(&args, 0, sizeof(args));
 
args.usOverscanRight = 0;
args.usOverscanLeft = 0;
args.usOverscanBottom = 0;
args.usOverscanTop = 0;
args.ucCRTC = radeon_crtc->crtc_id;
 
switch (radeon_crtc->rmx_type) {
case RMX_CENTER:
args.usOverscanTop = (adjusted_mode->crtc_vdisplay - mode->crtc_vdisplay) / 2;
args.usOverscanBottom = (adjusted_mode->crtc_vdisplay - mode->crtc_vdisplay) / 2;
args.usOverscanLeft = (adjusted_mode->crtc_hdisplay - mode->crtc_hdisplay) / 2;
args.usOverscanRight = (adjusted_mode->crtc_hdisplay - mode->crtc_hdisplay) / 2;
atom_execute_table(rdev->mode_info.atom_context, index, (uint32_t *)&args);
break;
case RMX_ASPECT:
a1 = mode->crtc_vdisplay * adjusted_mode->crtc_hdisplay;
a2 = adjusted_mode->crtc_vdisplay * mode->crtc_hdisplay;
 
if (a1 > a2) {
args.usOverscanLeft = (adjusted_mode->crtc_hdisplay - (a2 / mode->crtc_vdisplay)) / 2;
args.usOverscanRight = (adjusted_mode->crtc_hdisplay - (a2 / mode->crtc_vdisplay)) / 2;
} else if (a2 > a1) {
args.usOverscanLeft = (adjusted_mode->crtc_vdisplay - (a1 / mode->crtc_hdisplay)) / 2;
args.usOverscanRight = (adjusted_mode->crtc_vdisplay - (a1 / mode->crtc_hdisplay)) / 2;
}
atom_execute_table(rdev->mode_info.atom_context, index, (uint32_t *)&args);
break;
case RMX_FULL:
default:
args.usOverscanRight = 0;
args.usOverscanLeft = 0;
args.usOverscanBottom = 0;
args.usOverscanTop = 0;
atom_execute_table(rdev->mode_info.atom_context, index, (uint32_t *)&args);
break;
}
}
 
static void atombios_scaler_setup(struct drm_crtc *crtc)
{
struct drm_device *dev = crtc->dev;
struct radeon_device *rdev = dev->dev_private;
struct radeon_crtc *radeon_crtc = to_radeon_crtc(crtc);
ENABLE_SCALER_PS_ALLOCATION args;
int index = GetIndexIntoMasterTable(COMMAND, EnableScaler);
 
/* fixme - fill in enc_priv for atom dac */
enum radeon_tv_std tv_std = TV_STD_NTSC;
bool is_tv = false, is_cv = false;
struct drm_encoder *encoder;
 
if (!ASIC_IS_AVIVO(rdev) && radeon_crtc->crtc_id)
return;
 
list_for_each_entry(encoder, &dev->mode_config.encoder_list, head) {
/* find tv std */
if (encoder->crtc == crtc) {
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
if (radeon_encoder->active_device & ATOM_DEVICE_TV_SUPPORT) {
struct radeon_encoder_atom_dac *tv_dac = radeon_encoder->enc_priv;
tv_std = tv_dac->tv_std;
is_tv = true;
}
}
}
 
memset(&args, 0, sizeof(args));
 
args.ucScaler = radeon_crtc->crtc_id;
 
if (is_tv) {
switch (tv_std) {
case TV_STD_NTSC:
default:
args.ucTVStandard = ATOM_TV_NTSC;
break;
case TV_STD_PAL:
args.ucTVStandard = ATOM_TV_PAL;
break;
case TV_STD_PAL_M:
args.ucTVStandard = ATOM_TV_PALM;
break;
case TV_STD_PAL_60:
args.ucTVStandard = ATOM_TV_PAL60;
break;
case TV_STD_NTSC_J:
args.ucTVStandard = ATOM_TV_NTSCJ;
break;
case TV_STD_SCART_PAL:
args.ucTVStandard = ATOM_TV_PAL; /* ??? */
break;
case TV_STD_SECAM:
args.ucTVStandard = ATOM_TV_SECAM;
break;
case TV_STD_PAL_CN:
args.ucTVStandard = ATOM_TV_PALCN;
break;
}
args.ucEnable = SCALER_ENABLE_MULTITAP_MODE;
} else if (is_cv) {
args.ucTVStandard = ATOM_TV_CV;
args.ucEnable = SCALER_ENABLE_MULTITAP_MODE;
} else {
switch (radeon_crtc->rmx_type) {
case RMX_FULL:
args.ucEnable = ATOM_SCALER_EXPANSION;
break;
case RMX_CENTER:
args.ucEnable = ATOM_SCALER_CENTER;
break;
case RMX_ASPECT:
args.ucEnable = ATOM_SCALER_EXPANSION;
break;
default:
if (ASIC_IS_AVIVO(rdev))
args.ucEnable = ATOM_SCALER_DISABLE;
else
args.ucEnable = ATOM_SCALER_CENTER;
break;
}
}
atom_execute_table(rdev->mode_info.atom_context, index, (uint32_t *)&args);
if ((is_tv || is_cv)
&& rdev->family >= CHIP_RV515 && rdev->family <= CHIP_R580) {
atom_rv515_force_tv_scaler(rdev, radeon_crtc);
}
}
 
static void atombios_lock_crtc(struct drm_crtc *crtc, int lock)
{
struct radeon_crtc *radeon_crtc = to_radeon_crtc(crtc);
348,12 → 203,6
if (ASIC_IS_AVIVO(rdev)) {
uint32_t ss_cntl;
 
if ((rdev->family == CHIP_RS600) ||
(rdev->family == CHIP_RS690) ||
(rdev->family == CHIP_RS740))
pll_flags |= (RADEON_PLL_USE_FRAC_FB_DIV |
RADEON_PLL_PREFER_CLOSEST_LOWER);
 
if (ASIC_IS_DCE32(rdev) && mode->clock > 200000) /* range limits??? */
pll_flags |= RADEON_PLL_PREFER_HIGH_FB_DIV;
else
389,7 → 238,6
pll_flags |= RADEON_PLL_USE_REF_DIV;
}
radeon_encoder = to_radeon_encoder(encoder);
break;
}
}
 
473,15 → 321,13
struct drm_gem_object *obj;
struct drm_radeon_gem_object *obj_priv;
uint64_t fb_location;
uint32_t fb_format, fb_pitch_pixels, tiling_flags;
uint32_t fb_format, fb_pitch_pixels;
 
ENTRY();
 
if (!crtc->fb)
return -EINVAL;
 
dbgprintf("x = %d y = %d width = %d height = %d\n",
x, y, crtc->fb->width, crtc->fb->height);
dbgprintf("hdisplay = %d\n", crtc->mode.hdisplay);
 
radeon_fb = to_radeon_framebuffer(crtc->fb);
 
obj = radeon_fb->obj;
494,14 → 340,9
fb_location = 0; //rdev->mc.vram_location;
 
dbgprintf("fb_location %x\n", fb_location);
dbgprintf("bpp %d\n", crtc->fb->bits_per_pixel);
dbgprintf("bpp %x\n", crtc->fb->bits_per_pixel);
 
switch (crtc->fb->bits_per_pixel) {
case 8:
fb_format =
AVIVO_D1GRPH_CONTROL_DEPTH_8BPP |
AVIVO_D1GRPH_CONTROL_8BPP_INDEXED;
break;
case 15:
fb_format =
AVIVO_D1GRPH_CONTROL_DEPTH_16BPP |
524,14 → 365,7
return -EINVAL;
}
 
// radeon_object_get_tiling_flags(obj->driver_private,
// &tiling_flags, NULL);
// if (tiling_flags & RADEON_TILING_MACRO)
// fb_format |= AVIVO_D1GRPH_MACRO_ADDRESS_MODE;
 
// if (tiling_flags & RADEON_TILING_MICRO)
// fb_format |= AVIVO_D1GRPH_TILED;
 
/* TODO tiling */
if (radeon_crtc->crtc_id == 0)
WREG32(AVIVO_D1VGA_CONTROL, 0);
else
569,9 → 403,10
WREG32(AVIVO_D1MODE_DATA_FORMAT + radeon_crtc->crtc_offset, 0);
 
if (old_fb && old_fb != crtc->fb) {
// radeon_fb = to_radeon_framebuffer(old_fb);
radeon_fb = to_radeon_framebuffer(old_fb);
// radeon_gem_object_unpin(radeon_fb->obj);
}
LEAVE();
return 0;
}
 
585,41 → 420,18
struct radeon_device *rdev = dev->dev_private;
struct drm_encoder *encoder;
SET_CRTC_TIMING_PARAMETERS_PS_ALLOCATION crtc_timing;
int need_tv_timings = 0;
bool ret;
 
ENTRY();
 
/* TODO color tiling */
memset(&crtc_timing, 0, sizeof(crtc_timing));
 
/* TODO tv */
list_for_each_entry(encoder, &dev->mode_config.encoder_list, head) {
/* find tv std */
if (encoder->crtc == crtc) {
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
 
if (radeon_encoder->active_device & ATOM_DEVICE_TV_SUPPORT) {
struct radeon_encoder_atom_dac *tv_dac = radeon_encoder->enc_priv;
if (tv_dac) {
if (tv_dac->tv_std == TV_STD_NTSC ||
tv_dac->tv_std == TV_STD_NTSC_J ||
tv_dac->tv_std == TV_STD_PAL_M)
need_tv_timings = 1;
else
need_tv_timings = 2;
break;
}
}
}
}
 
crtc_timing.ucCRTC = radeon_crtc->crtc_id;
if (need_tv_timings) {
ret = radeon_atom_get_tv_timings(rdev, need_tv_timings - 1,
&crtc_timing, &adjusted_mode->clock);
if (ret == false)
need_tv_timings = 0;
}
 
if (!need_tv_timings) {
crtc_timing.usH_Total = adjusted_mode->crtc_htotal;
crtc_timing.usH_Disp = adjusted_mode->crtc_hdisplay;
crtc_timing.usH_SyncStart = adjusted_mode->crtc_hsync_start;
646,7 → 458,6
 
if (adjusted_mode->flags & DRM_MODE_FLAG_DBLSCAN)
crtc_timing.susModeMiscInfo.usAccess |= ATOM_DOUBLE_CLOCK_MODE;
}
 
atombios_crtc_set_pll(crtc, adjusted_mode);
atombios_crtc_set_timing(crtc, &crtc_timing);
708,9 → 519,8
radeon_crtc_set_base(crtc, x, y, old_fb);
radeon_legacy_atom_set_surface(crtc);
}
atombios_overscan_setup(crtc, mode, adjusted_mode);
atombios_scaler_setup(crtc);
radeon_bandwidth_update(rdev);
LEAVE();
 
return 0;
}
 
718,8 → 528,6
struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode)
{
if (!radeon_crtc_scaling_mode_fixup(crtc, mode, adjusted_mode))
return false;
return true;
}
 
752,3 → 560,150
AVIVO_D2CRTC_H_TOTAL - AVIVO_D1CRTC_H_TOTAL;
drm_crtc_helper_add(&radeon_crtc->base, &atombios_helper_funcs);
}
 
void radeon_init_disp_bw_avivo(struct drm_device *dev,
struct drm_display_mode *mode1,
uint32_t pixel_bytes1,
struct drm_display_mode *mode2,
uint32_t pixel_bytes2)
{
struct radeon_device *rdev = dev->dev_private;
fixed20_12 min_mem_eff;
fixed20_12 peak_disp_bw, mem_bw, pix_clk, pix_clk2, temp_ff;
fixed20_12 sclk_ff, mclk_ff;
uint32_t dc_lb_memory_split, temp;
 
min_mem_eff.full = rfixed_const_8(0);
if (rdev->disp_priority == 2) {
uint32_t mc_init_misc_lat_timer = 0;
if (rdev->family == CHIP_RV515)
mc_init_misc_lat_timer =
RREG32_MC(RV515_MC_INIT_MISC_LAT_TIMER);
else if (rdev->family == CHIP_RS690)
mc_init_misc_lat_timer =
RREG32_MC(RS690_MC_INIT_MISC_LAT_TIMER);
 
mc_init_misc_lat_timer &=
~(R300_MC_DISP1R_INIT_LAT_MASK <<
R300_MC_DISP1R_INIT_LAT_SHIFT);
mc_init_misc_lat_timer &=
~(R300_MC_DISP0R_INIT_LAT_MASK <<
R300_MC_DISP0R_INIT_LAT_SHIFT);
 
if (mode2)
mc_init_misc_lat_timer |=
(1 << R300_MC_DISP1R_INIT_LAT_SHIFT);
if (mode1)
mc_init_misc_lat_timer |=
(1 << R300_MC_DISP0R_INIT_LAT_SHIFT);
 
if (rdev->family == CHIP_RV515)
WREG32_MC(RV515_MC_INIT_MISC_LAT_TIMER,
mc_init_misc_lat_timer);
else if (rdev->family == CHIP_RS690)
WREG32_MC(RS690_MC_INIT_MISC_LAT_TIMER,
mc_init_misc_lat_timer);
}
 
/*
* determine is there is enough bw for current mode
*/
temp_ff.full = rfixed_const(100);
mclk_ff.full = rfixed_const(rdev->clock.default_mclk);
mclk_ff.full = rfixed_div(mclk_ff, temp_ff);
sclk_ff.full = rfixed_const(rdev->clock.default_sclk);
sclk_ff.full = rfixed_div(sclk_ff, temp_ff);
 
temp = (rdev->mc.vram_width / 8) * (rdev->mc.vram_is_ddr ? 2 : 1);
temp_ff.full = rfixed_const(temp);
mem_bw.full = rfixed_mul(mclk_ff, temp_ff);
mem_bw.full = rfixed_mul(mem_bw, min_mem_eff);
 
pix_clk.full = 0;
pix_clk2.full = 0;
peak_disp_bw.full = 0;
if (mode1) {
temp_ff.full = rfixed_const(1000);
pix_clk.full = rfixed_const(mode1->clock); /* convert to fixed point */
pix_clk.full = rfixed_div(pix_clk, temp_ff);
temp_ff.full = rfixed_const(pixel_bytes1);
peak_disp_bw.full += rfixed_mul(pix_clk, temp_ff);
}
if (mode2) {
temp_ff.full = rfixed_const(1000);
pix_clk2.full = rfixed_const(mode2->clock); /* convert to fixed point */
pix_clk2.full = rfixed_div(pix_clk2, temp_ff);
temp_ff.full = rfixed_const(pixel_bytes2);
peak_disp_bw.full += rfixed_mul(pix_clk2, temp_ff);
}
 
if (peak_disp_bw.full >= mem_bw.full) {
DRM_ERROR
("You may not have enough display bandwidth for current mode\n"
"If you have flickering problem, try to lower resolution, refresh rate, or color depth\n");
printk("peak disp bw %d, mem_bw %d\n",
rfixed_trunc(peak_disp_bw), rfixed_trunc(mem_bw));
}
 
/*
* Line Buffer Setup
* There is a single line buffer shared by both display controllers.
* DC_LB_MEMORY_SPLIT controls how that line buffer is shared between the display
* controllers. The paritioning can either be done manually or via one of four
* preset allocations specified in bits 1:0:
* 0 - line buffer is divided in half and shared between each display controller
* 1 - D1 gets 3/4 of the line buffer, D2 gets 1/4
* 2 - D1 gets the whole buffer
* 3 - D1 gets 1/4 of the line buffer, D2 gets 3/4
* Setting bit 2 of DC_LB_MEMORY_SPLIT controls switches to manual allocation mode.
* In manual allocation mode, D1 always starts at 0, D1 end/2 is specified in bits
* 14:4; D2 allocation follows D1.
*/
 
/* is auto or manual better ? */
dc_lb_memory_split =
RREG32(AVIVO_DC_LB_MEMORY_SPLIT) & ~AVIVO_DC_LB_MEMORY_SPLIT_MASK;
dc_lb_memory_split &= ~AVIVO_DC_LB_MEMORY_SPLIT_SHIFT_MODE;
#if 1
/* auto */
if (mode1 && mode2) {
if (mode1->hdisplay > mode2->hdisplay) {
if (mode1->hdisplay > 2560)
dc_lb_memory_split |=
AVIVO_DC_LB_MEMORY_SPLIT_D1_3Q_D2_1Q;
else
dc_lb_memory_split |=
AVIVO_DC_LB_MEMORY_SPLIT_D1HALF_D2HALF;
} else if (mode2->hdisplay > mode1->hdisplay) {
if (mode2->hdisplay > 2560)
dc_lb_memory_split |=
AVIVO_DC_LB_MEMORY_SPLIT_D1_1Q_D2_3Q;
else
dc_lb_memory_split |=
AVIVO_DC_LB_MEMORY_SPLIT_D1HALF_D2HALF;
} else
dc_lb_memory_split |=
AVIVO_DC_LB_MEMORY_SPLIT_D1HALF_D2HALF;
} else if (mode1) {
dc_lb_memory_split |= AVIVO_DC_LB_MEMORY_SPLIT_D1_ONLY;
} else if (mode2) {
dc_lb_memory_split |= AVIVO_DC_LB_MEMORY_SPLIT_D1_1Q_D2_3Q;
}
#else
/* manual */
dc_lb_memory_split |= AVIVO_DC_LB_MEMORY_SPLIT_SHIFT_MODE;
dc_lb_memory_split &=
~(AVIVO_DC_LB_DISP1_END_ADR_MASK <<
AVIVO_DC_LB_DISP1_END_ADR_SHIFT);
if (mode1) {
dc_lb_memory_split |=
((((mode1->hdisplay / 2) + 64) & AVIVO_DC_LB_DISP1_END_ADR_MASK)
<< AVIVO_DC_LB_DISP1_END_ADR_SHIFT);
} else if (mode2) {
dc_lb_memory_split |= (0 << AVIVO_DC_LB_DISP1_END_ADR_SHIFT);
}
#endif
WREG32(AVIVO_DC_LB_MEMORY_SPLIT, dc_lb_memory_split);
}
 
 
/drivers/video/drm/radeon/makefile
4,6 → 4,7
CFLAGS = -c -O2 -fomit-frame-pointer -fno-builtin-printf
LDFLAGS = -nostdlib -shared -s -Map atikms.map --image-base 0 --file-alignment 512 --section-alignment 4096
 
 
DRM_TOPDIR = $(CURDIR)/..
DRM_INCLUDES = $(DRM_TOPDIR)/include
 
13,16 → 14,16
 
NAME:= atikms
 
INCLUDES = -I $(DRM_INCLUDES) -I $(DRM_INCLUDES)/linux -I $(DRM_INCLUDES)/drm
INCLUDES = -I $(DRM_INCLUDES) -I $(DRM_INCLUDES)/ttm
 
HFILES:= $(DRM_INCLUDES)/linux/types.h \
$(DRM_INCLUDES)/linux/list.h \
HFILES:= $(DRM_INCLUDES)/types.h \
$(DRM_INCLUDES)/list.h \
$(DRM_INCLUDES)/pci.h \
$(DRM_INCLUDES)/drm.h \
$(DRM_INCLUDES)/drm/drmP.h \
$(DRM_INCLUDES)/drmP.h \
$(DRM_INCLUDES)/drm_edid.h \
$(DRM_INCLUDES)/drm/drm_crtc.h \
$(DRM_INCLUDES)/drm/drm_mode.h \
$(DRM_INCLUDES)/drm_crtc.h \
$(DRM_INCLUDES)/drm_mode.h \
$(DRM_INCLUDES)/drm_mm.h \
atom.h \
radeon.h \
35,7 → 36,6
$(DRM_TOPDIR)/drm_modes.c \
$(DRM_TOPDIR)/drm_crtc.c \
$(DRM_TOPDIR)/drm_crtc_helper.c \
$(DRM_TOPDIR)/drm_fb_helper.c \
$(DRM_TOPDIR)/i2c/i2c-core.c \
$(DRM_TOPDIR)/i2c/i2c-algo-bit.c \
$(DRM_TOPDIR)/idr.c \
52,14 → 52,11
radeon_combios.c \
radeon_legacy_crtc.c \
radeon_legacy_encoders.c \
radeon_legacy_tv.c \
radeon_display.c \
radeon_cursor.c \
radeon_object.c \
radeon_gart.c \
radeon_ring.c \
r100.c \
r200.c \
r300.c \
r420.c \
rv515.c \
74,8 → 71,8
SRC_DEP:=
 
 
NAME_OBJS = $(patsubst %.s, %.o, $(patsubst %.asm, %.o,\
$(patsubst %.c, %.o, $(NAME_SRC))))
NAME_OBJS = $(patsubst %.s, %.obj, $(patsubst %.asm, %.obj,\
$(patsubst %.c, %.obj, $(NAME_SRC))))
 
 
 
85,5 → 82,5
ld -L$(LIBPATH) $(LDFLAGS) -T atikms.lds -o $@ $(NAME_OBJS) vsprintf.obj icompute.obj $(LIBS)
 
 
%.o : %.c $(HFILES) Makefile
%.obj : %.c $(HFILES) Makefile
$(CC) $(CFLAGS) $(DEFINES) $(INCLUDES) -o $@ -c $<
/drivers/video/drm/radeon/r100.c
25,7 → 25,7
* Alex Deucher
* Jerome Glisse
*/
#include <linux/seq_file.h>
//#include <linux/seq_file.h>
#include "drmP.h"
#include "drm.h"
#include "radeon_drm.h"
32,16 → 32,12
#include "radeon_microcode.h"
#include "radeon_reg.h"
#include "radeon.h"
#include "r100d.h"
 
#include "r100_reg_safe.h"
#include "rn50_reg_safe.h"
/* This files gather functions specifics to:
* r100,rv100,rs100,rv200,rs200,r200,rv250,rs300,rv280
*
* Some of these functions might be used by newer ASICs.
*/
int r200_init(struct radeon_device *rdev);
void r100_hdp_reset(struct radeon_device *rdev);
void r100_gpu_init(struct radeon_device *rdev);
int r100_gui_wait_for_idle(struct radeon_device *rdev);
50,7 → 46,6
void r100_gpu_wait_for_vsync2(struct radeon_device *rdev);
int r100_debugfs_mc_info_init(struct radeon_device *rdev);
 
 
/*
* PCI GART
*/
62,28 → 57,23
* could end up in wrong address. */
}
 
int r100_pci_gart_init(struct radeon_device *rdev)
int r100_pci_gart_enable(struct radeon_device *rdev)
{
uint32_t tmp;
int r;
 
if (rdev->gart.table.ram.ptr) {
WARN(1, "R100 PCI GART already initialized.\n");
return 0;
}
/* Initialize common gart structure */
r = radeon_gart_init(rdev);
if (r)
if (r) {
return r;
}
if (rdev->gart.table.ram.ptr == NULL) {
rdev->gart.table_size = rdev->gart.num_gpu_pages * 4;
rdev->asic->gart_tlb_flush = &r100_pci_gart_tlb_flush;
rdev->asic->gart_set_page = &r100_pci_gart_set_page;
return radeon_gart_table_ram_alloc(rdev);
r = radeon_gart_table_ram_alloc(rdev);
if (r) {
return r;
}
 
int r100_pci_gart_enable(struct radeon_device *rdev)
{
uint32_t tmp;
 
}
/* discard memory request outside of configured range */
tmp = RREG32(RADEON_AIC_CNTL) | RADEON_DIS_OUT_OF_PCI_GART_ACCESS;
WREG32(RADEON_AIC_CNTL, tmp);
114,21 → 104,24
WREG32(RADEON_AIC_HI_ADDR, 0);
}
 
 
int r100_pci_gart_set_page(struct radeon_device *rdev, int i, uint64_t addr)
{
if (i < 0 || i > rdev->gart.num_gpu_pages) {
return -EINVAL;
}
rdev->gart.table.ram.ptr[i] = cpu_to_le32(lower_32_bits(addr));
rdev->gart.table.ram.ptr[i] = cpu_to_le32((uint32_t)addr);
return 0;
}
 
void r100_pci_gart_fini(struct radeon_device *rdev)
int r100_gart_enable(struct radeon_device *rdev)
{
if (rdev->flags & RADEON_IS_AGP) {
r100_pci_gart_disable(rdev);
radeon_gart_table_ram_free(rdev);
radeon_gart_fini(rdev);
return 0;
}
return r100_pci_gart_enable(rdev);
}
 
 
/*
180,12 → 173,8
DRM_ERROR("Failed to register debugfs file for R100 MC !\n");
}
/* Write VRAM size in case we are limiting it */
WREG32(RADEON_CONFIG_MEMSIZE, rdev->mc.real_vram_size);
/* Novell bug 204882 for RN50/M6/M7 with 8/16/32MB VRAM,
* if the aperture is 64MB but we have 32MB VRAM
* we report only 32MB VRAM but we have to set MC_FB_LOCATION
* to 64MB, otherwise the gpu accidentially dies */
tmp = rdev->mc.vram_location + rdev->mc.mc_vram_size - 1;
WREG32(RADEON_CONFIG_MEMSIZE, rdev->mc.vram_size);
tmp = rdev->mc.vram_location + rdev->mc.vram_size - 1;
tmp = REG_SET(RADEON_MC_FB_TOP, tmp >> 16);
tmp |= REG_SET(RADEON_MC_FB_START, rdev->mc.vram_location >> 16);
WREG32(RADEON_MC_FB_LOCATION, tmp);
226,7 → 215,18
r100_pci_gart_disable(rdev);
 
/* Setup GPU memory space */
rdev->mc.vram_location = 0xFFFFFFFFUL;
rdev->mc.gtt_location = 0xFFFFFFFFUL;
if (rdev->flags & RADEON_IS_AGP) {
r = radeon_agp_init(rdev);
if (r) {
printk(KERN_WARNING "[drm] Disabling AGP\n");
rdev->flags &= ~RADEON_IS_AGP;
rdev->mc.gtt_size = radeon_gart_size * 1024 * 1024;
} else {
rdev->mc.gtt_location = rdev->mc.agp_base;
}
}
r = radeon_mc_setup(rdev);
if (r) {
return r;
244,17 → 244,11
 
void r100_mc_fini(struct radeon_device *rdev)
{
r100_pci_gart_disable(rdev);
// radeon_gart_table_ram_free(rdev);
// radeon_gart_fini(rdev);
}
 
u32 r100_get_vblank_counter(struct radeon_device *rdev, int crtc)
{
if (crtc == 0)
return RREG32(RADEON_CRTC_CRNT_FRAME);
else
return RREG32(RADEON_CRTC2_CRNT_FRAME);
}
 
 
/*
* Fence emission
*/
303,21 → 297,14
return r;
}
}
WREG32(R_000774_SCRATCH_ADDR, rdev->wb.gpu_addr);
WREG32(R_00070C_CP_RB_RPTR_ADDR,
S_00070C_RB_RPTR_ADDR((rdev->wb.gpu_addr + 1024) >> 2));
WREG32(R_000770_SCRATCH_UMSK, 0xff);
WREG32(0x774, rdev->wb.gpu_addr);
WREG32(0x70C, rdev->wb.gpu_addr + 1024);
WREG32(0x770, 0xff);
return 0;
}
 
void r100_wb_disable(struct radeon_device *rdev)
{
WREG32(R_000770_SCRATCH_UMSK, 0);
}
 
void r100_wb_fini(struct radeon_device *rdev)
{
r100_wb_disable(rdev);
if (rdev->wb.wb_obj) {
// radeon_object_kunmap(rdev->wb.wb_obj);
// radeon_object_unpin(rdev->wb.wb_obj);
327,6 → 314,7
}
}
 
 
int r100_copy_blit(struct radeon_device *rdev,
uint64_t src_offset,
uint64_t dst_offset,
405,21 → 393,6
/*
* CP
*/
static int r100_cp_wait_for_idle(struct radeon_device *rdev)
{
unsigned i;
u32 tmp;
 
for (i = 0; i < rdev->usec_timeout; i++) {
tmp = RREG32(R_000E40_RBBM_STATUS);
if (!G_000E40_CP_CMDSTRM_BUSY(tmp)) {
return 0;
}
udelay(1);
}
return -1;
}
 
void r100_ring_start(struct radeon_device *rdev)
{
int r;
510,12 → 483,6
}
}
 
static int r100_cp_init_microcode(struct radeon_device *rdev)
{
return 0;
}
 
 
int r100_cp_init(struct radeon_device *rdev, unsigned ring_size)
{
unsigned rb_bufsz;
550,15 → 517,6
} else {
DRM_INFO("radeon: cp idle (0x%08X)\n", tmp);
}
 
if (!rdev->me_fw) {
r = r100_cp_init_microcode(rdev);
if (r) {
DRM_ERROR("Failed to load firmware!\n");
return r;
}
}
 
/* Align ring size */
rb_bufsz = drm_order(ring_size / 8);
ring_size = (1 << (rb_bufsz + 1)) * 4;
630,13 → 588,12
return 0;
}
 
 
void r100_cp_fini(struct radeon_device *rdev)
{
if (r100_cp_wait_for_idle(rdev)) {
DRM_ERROR("Wait for CP idle timeout, shutting down CP.\n");
}
/* Disable ring */
r100_cp_disable(rdev);
rdev->cp.ready = false;
WREG32(RADEON_CP_CSQ_CNTL, 0);
radeon_ring_fini(rdev);
DRM_INFO("radeon: cp finalized\n");
}
653,6 → 610,7
}
}
 
 
int r100_cp_reset(struct radeon_device *rdev)
{
uint32_t tmp;
659,8 → 617,9
bool reinit_cp;
int i;
 
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
 
reinit_cp = rdev->cp.ready;
rdev->cp.ready = false;
WREG32(RADEON_CP_CSQ_MODE, 0);
688,13 → 647,6
return -1;
}
 
void r100_cp_commit(struct radeon_device *rdev)
{
WREG32(RADEON_CP_RB_WPTR, rdev->cp.wptr);
(void)RREG32(RADEON_CP_RB_WPTR);
}
 
 
#if 0
/*
* CS functions
773,7 → 725,7
unsigned idx)
{
struct radeon_cs_chunk *ib_chunk = &p->chunks[p->chunk_ib_idx];
uint32_t header;
uint32_t header = ib_chunk->kdata[idx];
 
if (idx >= ib_chunk->length_dw) {
DRM_ERROR("Can not parse packet at %d after CS end %d !\n",
780,7 → 732,6
idx, ib_chunk->length_dw);
return -EINVAL;
}
header = ib_chunk->kdata[idx];
pkt->idx = idx;
pkt->type = CP_PACKET_GET_TYPE(header);
pkt->count = CP_PACKET_GET_COUNT(header);
808,102 → 759,6
}
 
/**
* r100_cs_packet_next_vline() - parse userspace VLINE packet
* @parser: parser structure holding parsing context.
*
* Userspace sends a special sequence for VLINE waits.
* PACKET0 - VLINE_START_END + value
* PACKET0 - WAIT_UNTIL +_value
* RELOC (P3) - crtc_id in reloc.
*
* This function parses this and relocates the VLINE START END
* and WAIT UNTIL packets to the correct crtc.
* It also detects a switched off crtc and nulls out the
* wait in that case.
*/
int r100_cs_packet_parse_vline(struct radeon_cs_parser *p)
{
struct radeon_cs_chunk *ib_chunk;
struct drm_mode_object *obj;
struct drm_crtc *crtc;
struct radeon_crtc *radeon_crtc;
struct radeon_cs_packet p3reloc, waitreloc;
int crtc_id;
int r;
uint32_t header, h_idx, reg;
 
ib_chunk = &p->chunks[p->chunk_ib_idx];
 
/* parse the wait until */
r = r100_cs_packet_parse(p, &waitreloc, p->idx);
if (r)
return r;
 
/* check its a wait until and only 1 count */
if (waitreloc.reg != RADEON_WAIT_UNTIL ||
waitreloc.count != 0) {
DRM_ERROR("vline wait had illegal wait until segment\n");
r = -EINVAL;
return r;
}
 
if (ib_chunk->kdata[waitreloc.idx + 1] != RADEON_WAIT_CRTC_VLINE) {
DRM_ERROR("vline wait had illegal wait until\n");
r = -EINVAL;
return r;
}
 
/* jump over the NOP */
r = r100_cs_packet_parse(p, &p3reloc, p->idx);
if (r)
return r;
 
h_idx = p->idx - 2;
p->idx += waitreloc.count;
p->idx += p3reloc.count;
 
header = ib_chunk->kdata[h_idx];
crtc_id = ib_chunk->kdata[h_idx + 5];
reg = ib_chunk->kdata[h_idx] >> 2;
mutex_lock(&p->rdev->ddev->mode_config.mutex);
obj = drm_mode_object_find(p->rdev->ddev, crtc_id, DRM_MODE_OBJECT_CRTC);
if (!obj) {
DRM_ERROR("cannot find crtc %d\n", crtc_id);
r = -EINVAL;
goto out;
}
crtc = obj_to_crtc(obj);
radeon_crtc = to_radeon_crtc(crtc);
crtc_id = radeon_crtc->crtc_id;
 
if (!crtc->enabled) {
/* if the CRTC isn't enabled - we need to nop out the wait until */
ib_chunk->kdata[h_idx + 2] = PACKET2(0);
ib_chunk->kdata[h_idx + 3] = PACKET2(0);
} else if (crtc_id == 1) {
switch (reg) {
case AVIVO_D1MODE_VLINE_START_END:
header &= R300_CP_PACKET0_REG_MASK;
header |= AVIVO_D2MODE_VLINE_START_END >> 2;
break;
case RADEON_CRTC_GUI_TRIG_VLINE:
header &= R300_CP_PACKET0_REG_MASK;
header |= RADEON_CRTC2_GUI_TRIG_VLINE >> 2;
break;
default:
DRM_ERROR("unknown crtc reloc\n");
r = -EINVAL;
goto out;
}
ib_chunk->kdata[h_idx] = header;
ib_chunk->kdata[h_idx + 3] |= RADEON_ENG_DISPLAY_SELECT_CRTC1;
}
out:
mutex_unlock(&p->rdev->ddev->mode_config.mutex);
return r;
}
 
/**
* r100_cs_packet_next_reloc() - parse next packet which should be reloc packet3
* @parser: parser structure holding parsing context.
* @data: pointer to relocation data
953,95 → 808,33
return 0;
}
 
static int r100_get_vtx_size(uint32_t vtx_fmt)
{
int vtx_size;
vtx_size = 2;
/* ordered according to bits in spec */
if (vtx_fmt & RADEON_SE_VTX_FMT_W0)
vtx_size++;
if (vtx_fmt & RADEON_SE_VTX_FMT_FPCOLOR)
vtx_size += 3;
if (vtx_fmt & RADEON_SE_VTX_FMT_FPALPHA)
vtx_size++;
if (vtx_fmt & RADEON_SE_VTX_FMT_PKCOLOR)
vtx_size++;
if (vtx_fmt & RADEON_SE_VTX_FMT_FPSPEC)
vtx_size += 3;
if (vtx_fmt & RADEON_SE_VTX_FMT_FPFOG)
vtx_size++;
if (vtx_fmt & RADEON_SE_VTX_FMT_PKSPEC)
vtx_size++;
if (vtx_fmt & RADEON_SE_VTX_FMT_ST0)
vtx_size += 2;
if (vtx_fmt & RADEON_SE_VTX_FMT_ST1)
vtx_size += 2;
if (vtx_fmt & RADEON_SE_VTX_FMT_Q1)
vtx_size++;
if (vtx_fmt & RADEON_SE_VTX_FMT_ST2)
vtx_size += 2;
if (vtx_fmt & RADEON_SE_VTX_FMT_Q2)
vtx_size++;
if (vtx_fmt & RADEON_SE_VTX_FMT_ST3)
vtx_size += 2;
if (vtx_fmt & RADEON_SE_VTX_FMT_Q3)
vtx_size++;
if (vtx_fmt & RADEON_SE_VTX_FMT_Q0)
vtx_size++;
/* blend weight */
if (vtx_fmt & (0x7 << 15))
vtx_size += (vtx_fmt >> 15) & 0x7;
if (vtx_fmt & RADEON_SE_VTX_FMT_N0)
vtx_size += 3;
if (vtx_fmt & RADEON_SE_VTX_FMT_XY1)
vtx_size += 2;
if (vtx_fmt & RADEON_SE_VTX_FMT_Z1)
vtx_size++;
if (vtx_fmt & RADEON_SE_VTX_FMT_W1)
vtx_size++;
if (vtx_fmt & RADEON_SE_VTX_FMT_N1)
vtx_size++;
if (vtx_fmt & RADEON_SE_VTX_FMT_Z)
vtx_size++;
return vtx_size;
}
 
static int r100_packet0_check(struct radeon_cs_parser *p,
struct radeon_cs_packet *pkt,
unsigned idx, unsigned reg)
struct radeon_cs_packet *pkt)
{
struct radeon_cs_chunk *ib_chunk;
struct radeon_cs_reloc *reloc;
struct r100_cs_track *track;
volatile uint32_t *ib;
uint32_t tmp;
unsigned reg;
unsigned i;
unsigned idx;
bool onereg;
int r;
int i, face;
u32 tile_flags = 0;
 
ib = p->ib->ptr;
ib_chunk = &p->chunks[p->chunk_ib_idx];
track = (struct r100_cs_track *)p->track;
 
idx = pkt->idx + 1;
reg = pkt->reg;
onereg = false;
if (CP_PACKET0_GET_ONE_REG_WR(ib_chunk->kdata[pkt->idx])) {
onereg = true;
}
for (i = 0; i <= pkt->count; i++, idx++, reg += 4) {
switch (reg) {
case RADEON_CRTC_GUI_TRIG_VLINE:
r = r100_cs_packet_parse_vline(p);
if (r) {
DRM_ERROR("No reloc for ib[%d]=0x%04X\n",
idx, reg);
r100_cs_dump_packet(p, pkt);
return r;
}
break;
/* FIXME: only allow PACKET3 blit? easier to check for out of
* range access */
case RADEON_DST_PITCH_OFFSET:
case RADEON_SRC_PITCH_OFFSET:
r = r100_reloc_pitch_offset(p, pkt, idx, reg);
if (r)
return r;
break;
case RADEON_RB3D_DEPTHOFFSET:
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
DRM_ERROR("No reloc for ib[%d]=0x%04X\n",
1049,26 → 842,39
r100_cs_dump_packet(p, pkt);
return r;
}
track->zb.robj = reloc->robj;
track->zb.offset = ib_chunk->kdata[idx];
ib[idx] = ib_chunk->kdata[idx] + ((u32)reloc->lobj.gpu_offset);
tmp = ib_chunk->kdata[idx] & 0x003fffff;
tmp += (((u32)reloc->lobj.gpu_offset) >> 10);
ib[idx] = (ib_chunk->kdata[idx] & 0xffc00000) | tmp;
break;
case RADEON_RB3D_DEPTHOFFSET:
case RADEON_RB3D_COLOROFFSET:
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
DRM_ERROR("No reloc for ib[%d]=0x%04X\n",
idx, reg);
r100_cs_dump_packet(p, pkt);
return r;
}
track->cb[0].robj = reloc->robj;
track->cb[0].offset = ib_chunk->kdata[idx];
ib[idx] = ib_chunk->kdata[idx] + ((u32)reloc->lobj.gpu_offset);
break;
case R300_RB3D_COLOROFFSET0:
case R300_ZB_DEPTHOFFSET:
case R200_PP_TXOFFSET_0:
case R200_PP_TXOFFSET_1:
case R200_PP_TXOFFSET_2:
case R200_PP_TXOFFSET_3:
case R200_PP_TXOFFSET_4:
case R200_PP_TXOFFSET_5:
case RADEON_PP_TXOFFSET_0:
case RADEON_PP_TXOFFSET_1:
case RADEON_PP_TXOFFSET_2:
i = (reg - RADEON_PP_TXOFFSET_0) / 24;
case R300_TX_OFFSET_0:
case R300_TX_OFFSET_0+4:
case R300_TX_OFFSET_0+8:
case R300_TX_OFFSET_0+12:
case R300_TX_OFFSET_0+16:
case R300_TX_OFFSET_0+20:
case R300_TX_OFFSET_0+24:
case R300_TX_OFFSET_0+28:
case R300_TX_OFFSET_0+32:
case R300_TX_OFFSET_0+36:
case R300_TX_OFFSET_0+40:
case R300_TX_OFFSET_0+44:
case R300_TX_OFFSET_0+48:
case R300_TX_OFFSET_0+52:
case R300_TX_OFFSET_0+56:
case R300_TX_OFFSET_0+60:
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
DRM_ERROR("No reloc for ib[%d]=0x%04X\n",
1077,233 → 883,16
return r;
}
ib[idx] = ib_chunk->kdata[idx] + ((u32)reloc->lobj.gpu_offset);
track->textures[i].robj = reloc->robj;
break;
case RADEON_PP_CUBIC_OFFSET_T0_0:
case RADEON_PP_CUBIC_OFFSET_T0_1:
case RADEON_PP_CUBIC_OFFSET_T0_2:
case RADEON_PP_CUBIC_OFFSET_T0_3:
case RADEON_PP_CUBIC_OFFSET_T0_4:
i = (reg - RADEON_PP_CUBIC_OFFSET_T0_0) / 4;
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
DRM_ERROR("No reloc for ib[%d]=0x%04X\n",
idx, reg);
r100_cs_dump_packet(p, pkt);
return r;
}
track->textures[0].cube_info[i].offset = ib_chunk->kdata[idx];
ib[idx] = ib_chunk->kdata[idx] + ((u32)reloc->lobj.gpu_offset);
track->textures[0].cube_info[i].robj = reloc->robj;
break;
case RADEON_PP_CUBIC_OFFSET_T1_0:
case RADEON_PP_CUBIC_OFFSET_T1_1:
case RADEON_PP_CUBIC_OFFSET_T1_2:
case RADEON_PP_CUBIC_OFFSET_T1_3:
case RADEON_PP_CUBIC_OFFSET_T1_4:
i = (reg - RADEON_PP_CUBIC_OFFSET_T1_0) / 4;
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
DRM_ERROR("No reloc for ib[%d]=0x%04X\n",
idx, reg);
r100_cs_dump_packet(p, pkt);
return r;
}
track->textures[1].cube_info[i].offset = ib_chunk->kdata[idx];
ib[idx] = ib_chunk->kdata[idx] + ((u32)reloc->lobj.gpu_offset);
track->textures[1].cube_info[i].robj = reloc->robj;
break;
case RADEON_PP_CUBIC_OFFSET_T2_0:
case RADEON_PP_CUBIC_OFFSET_T2_1:
case RADEON_PP_CUBIC_OFFSET_T2_2:
case RADEON_PP_CUBIC_OFFSET_T2_3:
case RADEON_PP_CUBIC_OFFSET_T2_4:
i = (reg - RADEON_PP_CUBIC_OFFSET_T2_0) / 4;
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
DRM_ERROR("No reloc for ib[%d]=0x%04X\n",
idx, reg);
r100_cs_dump_packet(p, pkt);
return r;
}
track->textures[2].cube_info[i].offset = ib_chunk->kdata[idx];
ib[idx] = ib_chunk->kdata[idx] + ((u32)reloc->lobj.gpu_offset);
track->textures[2].cube_info[i].robj = reloc->robj;
break;
case RADEON_RE_WIDTH_HEIGHT:
track->maxy = ((ib_chunk->kdata[idx] >> 16) & 0x7FF);
break;
case RADEON_RB3D_COLORPITCH:
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
DRM_ERROR("No reloc for ib[%d]=0x%04X\n",
idx, reg);
r100_cs_dump_packet(p, pkt);
return r;
}
 
if (reloc->lobj.tiling_flags & RADEON_TILING_MACRO)
tile_flags |= RADEON_COLOR_TILE_ENABLE;
if (reloc->lobj.tiling_flags & RADEON_TILING_MICRO)
tile_flags |= RADEON_COLOR_MICROTILE_ENABLE;
 
tmp = ib_chunk->kdata[idx] & ~(0x7 << 16);
tmp |= tile_flags;
ib[idx] = tmp;
 
track->cb[0].pitch = ib_chunk->kdata[idx] & RADEON_COLORPITCH_MASK;
break;
case RADEON_RB3D_DEPTHPITCH:
track->zb.pitch = ib_chunk->kdata[idx] & RADEON_DEPTHPITCH_MASK;
break;
case RADEON_RB3D_CNTL:
switch ((ib_chunk->kdata[idx] >> RADEON_RB3D_COLOR_FORMAT_SHIFT) & 0x1f) {
case 7:
case 8:
case 9:
case 11:
case 12:
track->cb[0].cpp = 1;
break;
case 3:
case 4:
case 15:
track->cb[0].cpp = 2;
break;
case 6:
track->cb[0].cpp = 4;
break;
default:
DRM_ERROR("Invalid color buffer format (%d) !\n",
((ib_chunk->kdata[idx] >> RADEON_RB3D_COLOR_FORMAT_SHIFT) & 0x1f));
return -EINVAL;
}
track->z_enabled = !!(ib_chunk->kdata[idx] & RADEON_Z_ENABLE);
/* FIXME: we don't want to allow anyothers packet */
break;
case RADEON_RB3D_ZSTENCILCNTL:
switch (ib_chunk->kdata[idx] & 0xf) {
case 0:
track->zb.cpp = 2;
break;
case 2:
case 3:
case 4:
case 5:
case 9:
case 11:
track->zb.cpp = 4;
break;
default:
break;
}
if (onereg) {
/* FIXME: forbid onereg write to register on relocate */
break;
case RADEON_RB3D_ZPASS_ADDR:
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
DRM_ERROR("No reloc for ib[%d]=0x%04X\n",
idx, reg);
r100_cs_dump_packet(p, pkt);
return r;
}
ib[idx] = ib_chunk->kdata[idx] + ((u32)reloc->lobj.gpu_offset);
break;
case RADEON_PP_CNTL:
{
uint32_t temp = ib_chunk->kdata[idx] >> 4;
for (i = 0; i < track->num_texture; i++)
track->textures[i].enabled = !!(temp & (1 << i));
}
break;
case RADEON_SE_VF_CNTL:
track->vap_vf_cntl = ib_chunk->kdata[idx];
break;
case RADEON_SE_VTX_FMT:
track->vtx_size = r100_get_vtx_size(ib_chunk->kdata[idx]);
break;
case RADEON_PP_TEX_SIZE_0:
case RADEON_PP_TEX_SIZE_1:
case RADEON_PP_TEX_SIZE_2:
i = (reg - RADEON_PP_TEX_SIZE_0) / 8;
track->textures[i].width = (ib_chunk->kdata[idx] & RADEON_TEX_USIZE_MASK) + 1;
track->textures[i].height = ((ib_chunk->kdata[idx] & RADEON_TEX_VSIZE_MASK) >> RADEON_TEX_VSIZE_SHIFT) + 1;
break;
case RADEON_PP_TEX_PITCH_0:
case RADEON_PP_TEX_PITCH_1:
case RADEON_PP_TEX_PITCH_2:
i = (reg - RADEON_PP_TEX_PITCH_0) / 8;
track->textures[i].pitch = ib_chunk->kdata[idx] + 32;
break;
case RADEON_PP_TXFILTER_0:
case RADEON_PP_TXFILTER_1:
case RADEON_PP_TXFILTER_2:
i = (reg - RADEON_PP_TXFILTER_0) / 24;
track->textures[i].num_levels = ((ib_chunk->kdata[idx] & RADEON_MAX_MIP_LEVEL_MASK)
>> RADEON_MAX_MIP_LEVEL_SHIFT);
tmp = (ib_chunk->kdata[idx] >> 23) & 0x7;
if (tmp == 2 || tmp == 6)
track->textures[i].roundup_w = false;
tmp = (ib_chunk->kdata[idx] >> 27) & 0x7;
if (tmp == 2 || tmp == 6)
track->textures[i].roundup_h = false;
break;
case RADEON_PP_TXFORMAT_0:
case RADEON_PP_TXFORMAT_1:
case RADEON_PP_TXFORMAT_2:
i = (reg - RADEON_PP_TXFORMAT_0) / 24;
if (ib_chunk->kdata[idx] & RADEON_TXFORMAT_NON_POWER2) {
track->textures[i].use_pitch = 1;
} else {
track->textures[i].use_pitch = 0;
track->textures[i].width = 1 << ((ib_chunk->kdata[idx] >> RADEON_TXFORMAT_WIDTH_SHIFT) & RADEON_TXFORMAT_WIDTH_MASK);
track->textures[i].height = 1 << ((ib_chunk->kdata[idx] >> RADEON_TXFORMAT_HEIGHT_SHIFT) & RADEON_TXFORMAT_HEIGHT_MASK);
}
if (ib_chunk->kdata[idx] & RADEON_TXFORMAT_CUBIC_MAP_ENABLE)
track->textures[i].tex_coord_type = 2;
switch ((ib_chunk->kdata[idx] & RADEON_TXFORMAT_FORMAT_MASK)) {
case RADEON_TXFORMAT_I8:
case RADEON_TXFORMAT_RGB332:
case RADEON_TXFORMAT_Y8:
track->textures[i].cpp = 1;
break;
case RADEON_TXFORMAT_AI88:
case RADEON_TXFORMAT_ARGB1555:
case RADEON_TXFORMAT_RGB565:
case RADEON_TXFORMAT_ARGB4444:
case RADEON_TXFORMAT_VYUY422:
case RADEON_TXFORMAT_YVYU422:
case RADEON_TXFORMAT_DXT1:
case RADEON_TXFORMAT_SHADOW16:
case RADEON_TXFORMAT_LDUDV655:
case RADEON_TXFORMAT_DUDV88:
track->textures[i].cpp = 2;
break;
case RADEON_TXFORMAT_ARGB8888:
case RADEON_TXFORMAT_RGBA8888:
case RADEON_TXFORMAT_DXT23:
case RADEON_TXFORMAT_DXT45:
case RADEON_TXFORMAT_SHADOW32:
case RADEON_TXFORMAT_LDUDUV8888:
track->textures[i].cpp = 4;
break;
}
track->textures[i].cube_info[4].width = 1 << ((ib_chunk->kdata[idx] >> 16) & 0xf);
track->textures[i].cube_info[4].height = 1 << ((ib_chunk->kdata[idx] >> 20) & 0xf);
break;
case RADEON_PP_CUBIC_FACES_0:
case RADEON_PP_CUBIC_FACES_1:
case RADEON_PP_CUBIC_FACES_2:
tmp = ib_chunk->kdata[idx];
i = (reg - RADEON_PP_CUBIC_FACES_0) / 4;
for (face = 0; face < 4; face++) {
track->textures[i].cube_info[face].width = 1 << ((tmp >> (face * 8)) & 0xf);
track->textures[i].cube_info[face].height = 1 << ((tmp >> ((face * 8) + 4)) & 0xf);
}
break;
default:
printk(KERN_ERR "Forbidden register 0x%04X in cs at %d\n",
reg, idx);
return -EINVAL;
}
return 0;
}
 
1331,7 → 920,6
{
struct radeon_cs_chunk *ib_chunk;
struct radeon_cs_reloc *reloc;
struct r100_cs_track *track;
unsigned idx;
unsigned i, c;
volatile uint32_t *ib;
1340,11 → 928,9
ib = p->ib->ptr;
ib_chunk = &p->chunks[p->chunk_ib_idx];
idx = pkt->idx + 1;
track = (struct r100_cs_track *)p->track;
switch (pkt->opcode) {
case PACKET3_3D_LOAD_VBPNTR:
c = ib_chunk->kdata[idx++];
track->num_arrays = c;
for (i = 0; i < (c - 1); i += 2, idx += 3) {
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
1354,9 → 940,6
return r;
}
ib[idx+1] = ib_chunk->kdata[idx+1] + ((u32)reloc->lobj.gpu_offset);
track->arrays[i + 0].robj = reloc->robj;
track->arrays[i + 0].esize = ib_chunk->kdata[idx] >> 8;
track->arrays[i + 0].esize &= 0x7F;
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
DRM_ERROR("No reloc for packet3 %d\n",
1365,9 → 948,6
return r;
}
ib[idx+2] = ib_chunk->kdata[idx+2] + ((u32)reloc->lobj.gpu_offset);
track->arrays[i + 1].robj = reloc->robj;
track->arrays[i + 1].esize = ib_chunk->kdata[idx] >> 24;
track->arrays[i + 1].esize &= 0x7F;
}
if (c & 1) {
r = r100_cs_packet_next_reloc(p, &reloc);
1378,9 → 958,6
return r;
}
ib[idx+1] = ib_chunk->kdata[idx+1] + ((u32)reloc->lobj.gpu_offset);
track->arrays[i + 0].robj = reloc->robj;
track->arrays[i + 0].esize = ib_chunk->kdata[idx] >> 8;
track->arrays[i + 0].esize &= 0x7F;
}
break;
case PACKET3_INDX_BUFFER:
1397,6 → 974,7
}
break;
case 0x23:
/* FIXME: cleanup */
/* 3D_RNDR_GEN_INDX_PRIM on r100/r200 */
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
1405,71 → 983,18
return r;
}
ib[idx] = ib_chunk->kdata[idx] + ((u32)reloc->lobj.gpu_offset);
track->num_arrays = 1;
track->vtx_size = r100_get_vtx_size(ib_chunk->kdata[idx+2]);
 
track->arrays[0].robj = reloc->robj;
track->arrays[0].esize = track->vtx_size;
 
track->max_indx = ib_chunk->kdata[idx+1];
 
track->vap_vf_cntl = ib_chunk->kdata[idx+3];
track->immd_dwords = pkt->count - 1;
r = r100_cs_track_check(p->rdev, track);
if (r)
return r;
break;
case PACKET3_3D_DRAW_IMMD:
if (((ib_chunk->kdata[idx+1] >> 4) & 0x3) != 3) {
DRM_ERROR("PRIM_WALK must be 3 for IMMD draw\n");
return -EINVAL;
}
track->vap_vf_cntl = ib_chunk->kdata[idx+1];
track->immd_dwords = pkt->count - 1;
r = r100_cs_track_check(p->rdev, track);
if (r)
return r;
break;
/* triggers drawing using in-packet vertex data */
case PACKET3_3D_DRAW_IMMD_2:
if (((ib_chunk->kdata[idx] >> 4) & 0x3) != 3) {
DRM_ERROR("PRIM_WALK must be 3 for IMMD draw\n");
return -EINVAL;
}
track->vap_vf_cntl = ib_chunk->kdata[idx];
track->immd_dwords = pkt->count;
r = r100_cs_track_check(p->rdev, track);
if (r)
return r;
break;
/* triggers drawing using in-packet vertex data */
case PACKET3_3D_DRAW_VBUF_2:
track->vap_vf_cntl = ib_chunk->kdata[idx];
r = r100_cs_track_check(p->rdev, track);
if (r)
return r;
break;
/* triggers drawing of vertex buffers setup elsewhere */
case PACKET3_3D_DRAW_INDX_2:
track->vap_vf_cntl = ib_chunk->kdata[idx];
r = r100_cs_track_check(p->rdev, track);
if (r)
return r;
break;
/* triggers drawing using indices to vertex buffer */
case PACKET3_3D_DRAW_VBUF:
track->vap_vf_cntl = ib_chunk->kdata[idx + 1];
r = r100_cs_track_check(p->rdev, track);
if (r)
return r;
break;
/* triggers drawing of vertex buffers setup elsewhere */
case PACKET3_3D_DRAW_INDX:
track->vap_vf_cntl = ib_chunk->kdata[idx + 1];
r = r100_cs_track_check(p->rdev, track);
if (r)
return r;
break;
/* triggers drawing using indices to vertex buffer */
case PACKET3_NOP:
break;
1483,12 → 1008,8
int r100_cs_parse(struct radeon_cs_parser *p)
{
struct radeon_cs_packet pkt;
struct r100_cs_track *track;
int r;
 
track = kzalloc(sizeof(*track), GFP_KERNEL);
r100_cs_track_clear(p->rdev, track);
p->track = track;
do {
r = r100_cs_packet_parse(p, &pkt, p->idx);
if (r) {
1497,16 → 1018,7
p->idx += pkt.count + 2;
switch (pkt.type) {
case PACKET_TYPE0:
if (p->rdev->family >= CHIP_R200)
r = r100_cs_parse_packet0(p, &pkt,
p->rdev->config.r100.reg_safe_bm,
p->rdev->config.r100.reg_safe_bm_size,
&r200_packet0_check);
else
r = r100_cs_parse_packet0(p, &pkt,
p->rdev->config.r100.reg_safe_bm,
p->rdev->config.r100.reg_safe_bm_size,
&r100_packet0_check);
r = r100_packet0_check(p, &pkt);
break;
case PACKET_TYPE2:
break;
1545,6 → 1057,8
}
}
 
 
 
/* Wait for vertical sync on primary CRTC */
void r100_gpu_wait_for_vsync(struct radeon_device *rdev)
{
1649,7 → 1163,7
{
uint32_t tmp;
 
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
tmp = RREG32(RADEON_HOST_PATH_CNTL) & RADEON_HDP_APER_CNTL;
tmp |= (7 << 28);
1666,7 → 1180,7
uint32_t tmp;
int i;
 
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
WREG32(RADEON_RBBM_SOFT_RESET, RADEON_SOFT_RESET_E2);
(void)RREG32(RADEON_RBBM_SOFT_RESET);
1755,117 → 1269,31
}
}
 
static u32 r100_get_accessible_vram(struct radeon_device *rdev)
void r100_vram_info(struct radeon_device *rdev)
{
u32 aper_size;
u8 byte;
r100_vram_get_type(rdev);
 
aper_size = RREG32(RADEON_CONFIG_APER_SIZE);
 
/* Set HDP_APER_CNTL only on cards that are known not to be broken,
* that is has the 2nd generation multifunction PCI interface
*/
if (rdev->family == CHIP_RV280 ||
rdev->family >= CHIP_RV350) {
WREG32_P(RADEON_HOST_PATH_CNTL, RADEON_HDP_APER_CNTL,
~RADEON_HDP_APER_CNTL);
DRM_INFO("Generation 2 PCI interface, using max accessible memory\n");
return aper_size * 2;
}
 
/* Older cards have all sorts of funny issues to deal with. First
* check if it's a multifunction card by reading the PCI config
* header type... Limit those to one aperture size
*/
// pci_read_config_byte(rdev->pdev, 0xe, &byte);
// if (byte & 0x80) {
// DRM_INFO("Generation 1 PCI interface in multifunction mode\n");
// DRM_INFO("Limiting VRAM to one aperture\n");
// return aper_size;
// }
 
/* Single function older card. We read HDP_APER_CNTL to see how the BIOS
* have set it up. We don't write this as it's broken on some ASICs but
* we expect the BIOS to have done the right thing (might be too optimistic...)
*/
if (RREG32(RADEON_HOST_PATH_CNTL) & RADEON_HDP_APER_CNTL)
return aper_size * 2;
return aper_size;
}
 
void r100_vram_init_sizes(struct radeon_device *rdev)
{
u64 config_aper_size;
u32 accessible;
 
config_aper_size = RREG32(RADEON_CONFIG_APER_SIZE);
 
if (rdev->flags & RADEON_IS_IGP) {
uint32_t tom;
/* read NB_TOM to get the amount of ram stolen for the GPU */
tom = RREG32(RADEON_NB_TOM);
rdev->mc.real_vram_size = (((tom >> 16) - (tom & 0xffff) + 1) << 16);
/* for IGPs we need to keep VRAM where it was put by the BIOS */
rdev->mc.vram_location = (tom & 0xffff) << 16;
WREG32(RADEON_CONFIG_MEMSIZE, rdev->mc.real_vram_size);
rdev->mc.mc_vram_size = rdev->mc.real_vram_size;
rdev->mc.vram_size = (((tom >> 16) - (tom & 0xffff) + 1) << 16);
WREG32(RADEON_CONFIG_MEMSIZE, rdev->mc.vram_size);
} else {
rdev->mc.real_vram_size = RREG32(RADEON_CONFIG_MEMSIZE);
rdev->mc.vram_size = RREG32(RADEON_CONFIG_MEMSIZE);
/* Some production boards of m6 will report 0
* if it's 8 MB
*/
if (rdev->mc.real_vram_size == 0) {
rdev->mc.real_vram_size = 8192 * 1024;
WREG32(RADEON_CONFIG_MEMSIZE, rdev->mc.real_vram_size);
if (rdev->mc.vram_size == 0) {
rdev->mc.vram_size = 8192 * 1024;
WREG32(RADEON_CONFIG_MEMSIZE, rdev->mc.vram_size);
}
/* let driver place VRAM */
rdev->mc.vram_location = 0xFFFFFFFFUL;
/* Fix for RN50, M6, M7 with 8/16/32(??) MBs of VRAM -
* Novell bug 204882 + along with lots of ubuntu ones */
if (config_aper_size > rdev->mc.real_vram_size)
rdev->mc.mc_vram_size = config_aper_size;
else
rdev->mc.mc_vram_size = rdev->mc.real_vram_size;
}
 
/* work out accessible VRAM */
accessible = r100_get_accessible_vram(rdev);
 
rdev->mc.aper_base = drm_get_resource_start(rdev->ddev, 0);
rdev->mc.aper_size = drm_get_resource_len(rdev->ddev, 0);
 
if (accessible > rdev->mc.aper_size)
accessible = rdev->mc.aper_size;
 
if (rdev->mc.mc_vram_size > rdev->mc.aper_size)
rdev->mc.mc_vram_size = rdev->mc.aper_size;
 
if (rdev->mc.real_vram_size > rdev->mc.aper_size)
rdev->mc.real_vram_size = rdev->mc.aper_size;
}
 
void r100_vga_set_state(struct radeon_device *rdev, bool state)
{
uint32_t temp;
 
temp = RREG32(RADEON_CONFIG_CNTL);
if (state == false) {
temp &= ~(1<<8);
temp |= (1<<9);
} else {
temp &= ~(1<<9);
}
WREG32(RADEON_CONFIG_CNTL, temp);
}
 
void r100_vram_info(struct radeon_device *rdev)
{
r100_vram_get_type(rdev);
 
r100_vram_init_sizes(rdev);
}
 
 
/*
* Indirect registers accessor
*/
1922,17 → 1350,28
r100_pll_errata_after_data(rdev);
}
 
uint32_t r100_mm_rreg(struct radeon_device *rdev, uint32_t reg)
{
if (reg < 0x10000)
return readl(((void __iomem *)rdev->rmmio) + reg);
else {
writel(reg, ((void __iomem *)rdev->rmmio) + RADEON_MM_INDEX);
return readl(((void __iomem *)rdev->rmmio) + RADEON_MM_DATA);
}
}
 
void r100_mm_wreg(struct radeon_device *rdev, uint32_t reg, uint32_t v)
{
if (reg < 0x10000)
writel(v, ((void __iomem *)rdev->rmmio) + reg);
else {
writel(reg, ((void __iomem *)rdev->rmmio) + RADEON_MM_INDEX);
writel(v, ((void __iomem *)rdev->rmmio) + RADEON_MM_DATA);
}
}
 
int r100_init(struct radeon_device *rdev)
{
if (ASIC_IS_RN50(rdev)) {
rdev->config.r100.reg_safe_bm = rn50_reg_safe_bm;
rdev->config.r100.reg_safe_bm_size = ARRAY_SIZE(rn50_reg_safe_bm);
} else if (rdev->family < CHIP_R200) {
rdev->config.r100.reg_safe_bm = r100_reg_safe_bm;
rdev->config.r100.reg_safe_bm_size = ARRAY_SIZE(r100_reg_safe_bm);
} else {
return r200_init(rdev);
}
return 0;
}
 
2106,611 → 1545,3
return 0;
#endif
}
 
int r100_set_surface_reg(struct radeon_device *rdev, int reg,
uint32_t tiling_flags, uint32_t pitch,
uint32_t offset, uint32_t obj_size)
{
int surf_index = reg * 16;
int flags = 0;
 
/* r100/r200 divide by 16 */
if (rdev->family < CHIP_R300)
flags = pitch / 16;
else
flags = pitch / 8;
 
if (rdev->family <= CHIP_RS200) {
if ((tiling_flags & (RADEON_TILING_MACRO|RADEON_TILING_MICRO))
== (RADEON_TILING_MACRO|RADEON_TILING_MICRO))
flags |= RADEON_SURF_TILE_COLOR_BOTH;
if (tiling_flags & RADEON_TILING_MACRO)
flags |= RADEON_SURF_TILE_COLOR_MACRO;
} else if (rdev->family <= CHIP_RV280) {
if (tiling_flags & (RADEON_TILING_MACRO))
flags |= R200_SURF_TILE_COLOR_MACRO;
if (tiling_flags & RADEON_TILING_MICRO)
flags |= R200_SURF_TILE_COLOR_MICRO;
} else {
if (tiling_flags & RADEON_TILING_MACRO)
flags |= R300_SURF_TILE_MACRO;
if (tiling_flags & RADEON_TILING_MICRO)
flags |= R300_SURF_TILE_MICRO;
}
 
if (tiling_flags & RADEON_TILING_SWAP_16BIT)
flags |= RADEON_SURF_AP0_SWP_16BPP | RADEON_SURF_AP1_SWP_16BPP;
if (tiling_flags & RADEON_TILING_SWAP_32BIT)
flags |= RADEON_SURF_AP0_SWP_32BPP | RADEON_SURF_AP1_SWP_32BPP;
 
DRM_DEBUG("writing surface %d %d %x %x\n", reg, flags, offset, offset+obj_size-1);
WREG32(RADEON_SURFACE0_INFO + surf_index, flags);
WREG32(RADEON_SURFACE0_LOWER_BOUND + surf_index, offset);
WREG32(RADEON_SURFACE0_UPPER_BOUND + surf_index, offset + obj_size - 1);
return 0;
}
 
void r100_clear_surface_reg(struct radeon_device *rdev, int reg)
{
int surf_index = reg * 16;
WREG32(RADEON_SURFACE0_INFO + surf_index, 0);
}
 
void r100_bandwidth_update(struct radeon_device *rdev)
{
fixed20_12 trcd_ff, trp_ff, tras_ff, trbs_ff, tcas_ff;
fixed20_12 sclk_ff, mclk_ff, sclk_eff_ff, sclk_delay_ff;
fixed20_12 peak_disp_bw, mem_bw, pix_clk, pix_clk2, temp_ff, crit_point_ff;
uint32_t temp, data, mem_trcd, mem_trp, mem_tras;
fixed20_12 memtcas_ff[8] = {
fixed_init(1),
fixed_init(2),
fixed_init(3),
fixed_init(0),
fixed_init_half(1),
fixed_init_half(2),
fixed_init(0),
};
fixed20_12 memtcas_rs480_ff[8] = {
fixed_init(0),
fixed_init(1),
fixed_init(2),
fixed_init(3),
fixed_init(0),
fixed_init_half(1),
fixed_init_half(2),
fixed_init_half(3),
};
fixed20_12 memtcas2_ff[8] = {
fixed_init(0),
fixed_init(1),
fixed_init(2),
fixed_init(3),
fixed_init(4),
fixed_init(5),
fixed_init(6),
fixed_init(7),
};
fixed20_12 memtrbs[8] = {
fixed_init(1),
fixed_init_half(1),
fixed_init(2),
fixed_init_half(2),
fixed_init(3),
fixed_init_half(3),
fixed_init(4),
fixed_init_half(4)
};
fixed20_12 memtrbs_r4xx[8] = {
fixed_init(4),
fixed_init(5),
fixed_init(6),
fixed_init(7),
fixed_init(8),
fixed_init(9),
fixed_init(10),
fixed_init(11)
};
fixed20_12 min_mem_eff;
fixed20_12 mc_latency_sclk, mc_latency_mclk, k1;
fixed20_12 cur_latency_mclk, cur_latency_sclk;
fixed20_12 disp_latency, disp_latency_overhead, disp_drain_rate,
disp_drain_rate2, read_return_rate;
fixed20_12 time_disp1_drop_priority;
int c;
int cur_size = 16; /* in octawords */
int critical_point = 0, critical_point2;
/* uint32_t read_return_rate, time_disp1_drop_priority; */
int stop_req, max_stop_req;
struct drm_display_mode *mode1 = NULL;
struct drm_display_mode *mode2 = NULL;
uint32_t pixel_bytes1 = 0;
uint32_t pixel_bytes2 = 0;
 
if (rdev->mode_info.crtcs[0]->base.enabled) {
mode1 = &rdev->mode_info.crtcs[0]->base.mode;
pixel_bytes1 = rdev->mode_info.crtcs[0]->base.fb->bits_per_pixel / 8;
}
if (rdev->mode_info.crtcs[1]->base.enabled) {
mode2 = &rdev->mode_info.crtcs[1]->base.mode;
pixel_bytes2 = rdev->mode_info.crtcs[1]->base.fb->bits_per_pixel / 8;
}
 
min_mem_eff.full = rfixed_const_8(0);
/* get modes */
if ((rdev->disp_priority == 2) && ASIC_IS_R300(rdev)) {
uint32_t mc_init_misc_lat_timer = RREG32(R300_MC_INIT_MISC_LAT_TIMER);
mc_init_misc_lat_timer &= ~(R300_MC_DISP1R_INIT_LAT_MASK << R300_MC_DISP1R_INIT_LAT_SHIFT);
mc_init_misc_lat_timer &= ~(R300_MC_DISP0R_INIT_LAT_MASK << R300_MC_DISP0R_INIT_LAT_SHIFT);
/* check crtc enables */
if (mode2)
mc_init_misc_lat_timer |= (1 << R300_MC_DISP1R_INIT_LAT_SHIFT);
if (mode1)
mc_init_misc_lat_timer |= (1 << R300_MC_DISP0R_INIT_LAT_SHIFT);
WREG32(R300_MC_INIT_MISC_LAT_TIMER, mc_init_misc_lat_timer);
}
 
/*
* determine is there is enough bw for current mode
*/
mclk_ff.full = rfixed_const(rdev->clock.default_mclk);
temp_ff.full = rfixed_const(100);
mclk_ff.full = rfixed_div(mclk_ff, temp_ff);
sclk_ff.full = rfixed_const(rdev->clock.default_sclk);
sclk_ff.full = rfixed_div(sclk_ff, temp_ff);
 
temp = (rdev->mc.vram_width / 8) * (rdev->mc.vram_is_ddr ? 2 : 1);
temp_ff.full = rfixed_const(temp);
mem_bw.full = rfixed_mul(mclk_ff, temp_ff);
 
pix_clk.full = 0;
pix_clk2.full = 0;
peak_disp_bw.full = 0;
if (mode1) {
temp_ff.full = rfixed_const(1000);
pix_clk.full = rfixed_const(mode1->clock); /* convert to fixed point */
pix_clk.full = rfixed_div(pix_clk, temp_ff);
temp_ff.full = rfixed_const(pixel_bytes1);
peak_disp_bw.full += rfixed_mul(pix_clk, temp_ff);
}
if (mode2) {
temp_ff.full = rfixed_const(1000);
pix_clk2.full = rfixed_const(mode2->clock); /* convert to fixed point */
pix_clk2.full = rfixed_div(pix_clk2, temp_ff);
temp_ff.full = rfixed_const(pixel_bytes2);
peak_disp_bw.full += rfixed_mul(pix_clk2, temp_ff);
}
 
mem_bw.full = rfixed_mul(mem_bw, min_mem_eff);
if (peak_disp_bw.full >= mem_bw.full) {
DRM_ERROR("You may not have enough display bandwidth for current mode\n"
"If you have flickering problem, try to lower resolution, refresh rate, or color depth\n");
}
 
/* Get values from the EXT_MEM_CNTL register...converting its contents. */
temp = RREG32(RADEON_MEM_TIMING_CNTL);
if ((rdev->family == CHIP_RV100) || (rdev->flags & RADEON_IS_IGP)) { /* RV100, M6, IGPs */
mem_trcd = ((temp >> 2) & 0x3) + 1;
mem_trp = ((temp & 0x3)) + 1;
mem_tras = ((temp & 0x70) >> 4) + 1;
} else if (rdev->family == CHIP_R300 ||
rdev->family == CHIP_R350) { /* r300, r350 */
mem_trcd = (temp & 0x7) + 1;
mem_trp = ((temp >> 8) & 0x7) + 1;
mem_tras = ((temp >> 11) & 0xf) + 4;
} else if (rdev->family == CHIP_RV350 ||
rdev->family <= CHIP_RV380) {
/* rv3x0 */
mem_trcd = (temp & 0x7) + 3;
mem_trp = ((temp >> 8) & 0x7) + 3;
mem_tras = ((temp >> 11) & 0xf) + 6;
} else if (rdev->family == CHIP_R420 ||
rdev->family == CHIP_R423 ||
rdev->family == CHIP_RV410) {
/* r4xx */
mem_trcd = (temp & 0xf) + 3;
if (mem_trcd > 15)
mem_trcd = 15;
mem_trp = ((temp >> 8) & 0xf) + 3;
if (mem_trp > 15)
mem_trp = 15;
mem_tras = ((temp >> 12) & 0x1f) + 6;
if (mem_tras > 31)
mem_tras = 31;
} else { /* RV200, R200 */
mem_trcd = (temp & 0x7) + 1;
mem_trp = ((temp >> 8) & 0x7) + 1;
mem_tras = ((temp >> 12) & 0xf) + 4;
}
/* convert to FF */
trcd_ff.full = rfixed_const(mem_trcd);
trp_ff.full = rfixed_const(mem_trp);
tras_ff.full = rfixed_const(mem_tras);
 
/* Get values from the MEM_SDRAM_MODE_REG register...converting its */
temp = RREG32(RADEON_MEM_SDRAM_MODE_REG);
data = (temp & (7 << 20)) >> 20;
if ((rdev->family == CHIP_RV100) || rdev->flags & RADEON_IS_IGP) {
if (rdev->family == CHIP_RS480) /* don't think rs400 */
tcas_ff = memtcas_rs480_ff[data];
else
tcas_ff = memtcas_ff[data];
} else
tcas_ff = memtcas2_ff[data];
 
if (rdev->family == CHIP_RS400 ||
rdev->family == CHIP_RS480) {
/* extra cas latency stored in bits 23-25 0-4 clocks */
data = (temp >> 23) & 0x7;
if (data < 5)
tcas_ff.full += rfixed_const(data);
}
 
if (ASIC_IS_R300(rdev) && !(rdev->flags & RADEON_IS_IGP)) {
/* on the R300, Tcas is included in Trbs.
*/
temp = RREG32(RADEON_MEM_CNTL);
data = (R300_MEM_NUM_CHANNELS_MASK & temp);
if (data == 1) {
if (R300_MEM_USE_CD_CH_ONLY & temp) {
temp = RREG32(R300_MC_IND_INDEX);
temp &= ~R300_MC_IND_ADDR_MASK;
temp |= R300_MC_READ_CNTL_CD_mcind;
WREG32(R300_MC_IND_INDEX, temp);
temp = RREG32(R300_MC_IND_DATA);
data = (R300_MEM_RBS_POSITION_C_MASK & temp);
} else {
temp = RREG32(R300_MC_READ_CNTL_AB);
data = (R300_MEM_RBS_POSITION_A_MASK & temp);
}
} else {
temp = RREG32(R300_MC_READ_CNTL_AB);
data = (R300_MEM_RBS_POSITION_A_MASK & temp);
}
if (rdev->family == CHIP_RV410 ||
rdev->family == CHIP_R420 ||
rdev->family == CHIP_R423)
trbs_ff = memtrbs_r4xx[data];
else
trbs_ff = memtrbs[data];
tcas_ff.full += trbs_ff.full;
}
 
sclk_eff_ff.full = sclk_ff.full;
 
if (rdev->flags & RADEON_IS_AGP) {
fixed20_12 agpmode_ff;
agpmode_ff.full = rfixed_const(radeon_agpmode);
temp_ff.full = rfixed_const_666(16);
sclk_eff_ff.full -= rfixed_mul(agpmode_ff, temp_ff);
}
/* TODO PCIE lanes may affect this - agpmode == 16?? */
 
if (ASIC_IS_R300(rdev)) {
sclk_delay_ff.full = rfixed_const(250);
} else {
if ((rdev->family == CHIP_RV100) ||
rdev->flags & RADEON_IS_IGP) {
if (rdev->mc.vram_is_ddr)
sclk_delay_ff.full = rfixed_const(41);
else
sclk_delay_ff.full = rfixed_const(33);
} else {
if (rdev->mc.vram_width == 128)
sclk_delay_ff.full = rfixed_const(57);
else
sclk_delay_ff.full = rfixed_const(41);
}
}
 
mc_latency_sclk.full = rfixed_div(sclk_delay_ff, sclk_eff_ff);
 
if (rdev->mc.vram_is_ddr) {
if (rdev->mc.vram_width == 32) {
k1.full = rfixed_const(40);
c = 3;
} else {
k1.full = rfixed_const(20);
c = 1;
}
} else {
k1.full = rfixed_const(40);
c = 3;
}
 
temp_ff.full = rfixed_const(2);
mc_latency_mclk.full = rfixed_mul(trcd_ff, temp_ff);
temp_ff.full = rfixed_const(c);
mc_latency_mclk.full += rfixed_mul(tcas_ff, temp_ff);
temp_ff.full = rfixed_const(4);
mc_latency_mclk.full += rfixed_mul(tras_ff, temp_ff);
mc_latency_mclk.full += rfixed_mul(trp_ff, temp_ff);
mc_latency_mclk.full += k1.full;
 
mc_latency_mclk.full = rfixed_div(mc_latency_mclk, mclk_ff);
mc_latency_mclk.full += rfixed_div(temp_ff, sclk_eff_ff);
 
/*
HW cursor time assuming worst case of full size colour cursor.
*/
temp_ff.full = rfixed_const((2 * (cur_size - (rdev->mc.vram_is_ddr + 1))));
temp_ff.full += trcd_ff.full;
if (temp_ff.full < tras_ff.full)
temp_ff.full = tras_ff.full;
cur_latency_mclk.full = rfixed_div(temp_ff, mclk_ff);
 
temp_ff.full = rfixed_const(cur_size);
cur_latency_sclk.full = rfixed_div(temp_ff, sclk_eff_ff);
/*
Find the total latency for the display data.
*/
disp_latency_overhead.full = rfixed_const(80);
disp_latency_overhead.full = rfixed_div(disp_latency_overhead, sclk_ff);
mc_latency_mclk.full += disp_latency_overhead.full + cur_latency_mclk.full;
mc_latency_sclk.full += disp_latency_overhead.full + cur_latency_sclk.full;
 
if (mc_latency_mclk.full > mc_latency_sclk.full)
disp_latency.full = mc_latency_mclk.full;
else
disp_latency.full = mc_latency_sclk.full;
 
/* setup Max GRPH_STOP_REQ default value */
if (ASIC_IS_RV100(rdev))
max_stop_req = 0x5c;
else
max_stop_req = 0x7c;
 
if (mode1) {
/* CRTC1
Set GRPH_BUFFER_CNTL register using h/w defined optimal values.
GRPH_STOP_REQ <= MIN[ 0x7C, (CRTC_H_DISP + 1) * (bit depth) / 0x10 ]
*/
stop_req = mode1->hdisplay * pixel_bytes1 / 16;
 
if (stop_req > max_stop_req)
stop_req = max_stop_req;
 
/*
Find the drain rate of the display buffer.
*/
temp_ff.full = rfixed_const((16/pixel_bytes1));
disp_drain_rate.full = rfixed_div(pix_clk, temp_ff);
 
/*
Find the critical point of the display buffer.
*/
crit_point_ff.full = rfixed_mul(disp_drain_rate, disp_latency);
crit_point_ff.full += rfixed_const_half(0);
 
critical_point = rfixed_trunc(crit_point_ff);
 
if (rdev->disp_priority == 2) {
critical_point = 0;
}
 
/*
The critical point should never be above max_stop_req-4. Setting
GRPH_CRITICAL_CNTL = 0 will thus force high priority all the time.
*/
if (max_stop_req - critical_point < 4)
critical_point = 0;
 
if (critical_point == 0 && mode2 && rdev->family == CHIP_R300) {
/* some R300 cards have problem with this set to 0, when CRTC2 is enabled.*/
critical_point = 0x10;
}
 
temp = RREG32(RADEON_GRPH_BUFFER_CNTL);
temp &= ~(RADEON_GRPH_STOP_REQ_MASK);
temp |= (stop_req << RADEON_GRPH_STOP_REQ_SHIFT);
temp &= ~(RADEON_GRPH_START_REQ_MASK);
if ((rdev->family == CHIP_R350) &&
(stop_req > 0x15)) {
stop_req -= 0x10;
}
temp |= (stop_req << RADEON_GRPH_START_REQ_SHIFT);
temp |= RADEON_GRPH_BUFFER_SIZE;
temp &= ~(RADEON_GRPH_CRITICAL_CNTL |
RADEON_GRPH_CRITICAL_AT_SOF |
RADEON_GRPH_STOP_CNTL);
/*
Write the result into the register.
*/
WREG32(RADEON_GRPH_BUFFER_CNTL, ((temp & ~RADEON_GRPH_CRITICAL_POINT_MASK) |
(critical_point << RADEON_GRPH_CRITICAL_POINT_SHIFT)));
 
#if 0
if ((rdev->family == CHIP_RS400) ||
(rdev->family == CHIP_RS480)) {
/* attempt to program RS400 disp regs correctly ??? */
temp = RREG32(RS400_DISP1_REG_CNTL);
temp &= ~(RS400_DISP1_START_REQ_LEVEL_MASK |
RS400_DISP1_STOP_REQ_LEVEL_MASK);
WREG32(RS400_DISP1_REQ_CNTL1, (temp |
(critical_point << RS400_DISP1_START_REQ_LEVEL_SHIFT) |
(critical_point << RS400_DISP1_STOP_REQ_LEVEL_SHIFT)));
temp = RREG32(RS400_DMIF_MEM_CNTL1);
temp &= ~(RS400_DISP1_CRITICAL_POINT_START_MASK |
RS400_DISP1_CRITICAL_POINT_STOP_MASK);
WREG32(RS400_DMIF_MEM_CNTL1, (temp |
(critical_point << RS400_DISP1_CRITICAL_POINT_START_SHIFT) |
(critical_point << RS400_DISP1_CRITICAL_POINT_STOP_SHIFT)));
}
#endif
 
DRM_DEBUG("GRPH_BUFFER_CNTL from to %x\n",
/* (unsigned int)info->SavedReg->grph_buffer_cntl, */
(unsigned int)RREG32(RADEON_GRPH_BUFFER_CNTL));
}
 
if (mode2) {
u32 grph2_cntl;
stop_req = mode2->hdisplay * pixel_bytes2 / 16;
 
if (stop_req > max_stop_req)
stop_req = max_stop_req;
 
/*
Find the drain rate of the display buffer.
*/
temp_ff.full = rfixed_const((16/pixel_bytes2));
disp_drain_rate2.full = rfixed_div(pix_clk2, temp_ff);
 
grph2_cntl = RREG32(RADEON_GRPH2_BUFFER_CNTL);
grph2_cntl &= ~(RADEON_GRPH_STOP_REQ_MASK);
grph2_cntl |= (stop_req << RADEON_GRPH_STOP_REQ_SHIFT);
grph2_cntl &= ~(RADEON_GRPH_START_REQ_MASK);
if ((rdev->family == CHIP_R350) &&
(stop_req > 0x15)) {
stop_req -= 0x10;
}
grph2_cntl |= (stop_req << RADEON_GRPH_START_REQ_SHIFT);
grph2_cntl |= RADEON_GRPH_BUFFER_SIZE;
grph2_cntl &= ~(RADEON_GRPH_CRITICAL_CNTL |
RADEON_GRPH_CRITICAL_AT_SOF |
RADEON_GRPH_STOP_CNTL);
 
if ((rdev->family == CHIP_RS100) ||
(rdev->family == CHIP_RS200))
critical_point2 = 0;
else {
temp = (rdev->mc.vram_width * rdev->mc.vram_is_ddr + 1)/128;
temp_ff.full = rfixed_const(temp);
temp_ff.full = rfixed_mul(mclk_ff, temp_ff);
if (sclk_ff.full < temp_ff.full)
temp_ff.full = sclk_ff.full;
 
read_return_rate.full = temp_ff.full;
 
if (mode1) {
temp_ff.full = read_return_rate.full - disp_drain_rate.full;
time_disp1_drop_priority.full = rfixed_div(crit_point_ff, temp_ff);
} else {
time_disp1_drop_priority.full = 0;
}
crit_point_ff.full = disp_latency.full + time_disp1_drop_priority.full + disp_latency.full;
crit_point_ff.full = rfixed_mul(crit_point_ff, disp_drain_rate2);
crit_point_ff.full += rfixed_const_half(0);
 
critical_point2 = rfixed_trunc(crit_point_ff);
 
if (rdev->disp_priority == 2) {
critical_point2 = 0;
}
 
if (max_stop_req - critical_point2 < 4)
critical_point2 = 0;
 
}
 
if (critical_point2 == 0 && rdev->family == CHIP_R300) {
/* some R300 cards have problem with this set to 0 */
critical_point2 = 0x10;
}
 
WREG32(RADEON_GRPH2_BUFFER_CNTL, ((grph2_cntl & ~RADEON_GRPH_CRITICAL_POINT_MASK) |
(critical_point2 << RADEON_GRPH_CRITICAL_POINT_SHIFT)));
 
if ((rdev->family == CHIP_RS400) ||
(rdev->family == CHIP_RS480)) {
#if 0
/* attempt to program RS400 disp2 regs correctly ??? */
temp = RREG32(RS400_DISP2_REQ_CNTL1);
temp &= ~(RS400_DISP2_START_REQ_LEVEL_MASK |
RS400_DISP2_STOP_REQ_LEVEL_MASK);
WREG32(RS400_DISP2_REQ_CNTL1, (temp |
(critical_point2 << RS400_DISP1_START_REQ_LEVEL_SHIFT) |
(critical_point2 << RS400_DISP1_STOP_REQ_LEVEL_SHIFT)));
temp = RREG32(RS400_DISP2_REQ_CNTL2);
temp &= ~(RS400_DISP2_CRITICAL_POINT_START_MASK |
RS400_DISP2_CRITICAL_POINT_STOP_MASK);
WREG32(RS400_DISP2_REQ_CNTL2, (temp |
(critical_point2 << RS400_DISP2_CRITICAL_POINT_START_SHIFT) |
(critical_point2 << RS400_DISP2_CRITICAL_POINT_STOP_SHIFT)));
#endif
WREG32(RS400_DISP2_REQ_CNTL1, 0x105DC1CC);
WREG32(RS400_DISP2_REQ_CNTL2, 0x2749D000);
WREG32(RS400_DMIF_MEM_CNTL1, 0x29CA71DC);
WREG32(RS400_DISP1_REQ_CNTL1, 0x28FBC3AC);
}
 
DRM_DEBUG("GRPH2_BUFFER_CNTL from to %x\n",
(unsigned int)RREG32(RADEON_GRPH2_BUFFER_CNTL));
}
}
 
 
 
 
void r100_mc_stop(struct radeon_device *rdev, struct r100_mc_save *save)
{
/* Shutdown CP we shouldn't need to do that but better be safe than
* sorry
*/
rdev->cp.ready = false;
WREG32(R_000740_CP_CSQ_CNTL, 0);
 
/* Save few CRTC registers */
save->GENMO_WT = RREG32(R_0003C0_GENMO_WT);
save->CRTC_EXT_CNTL = RREG32(R_000054_CRTC_EXT_CNTL);
save->CRTC_GEN_CNTL = RREG32(R_000050_CRTC_GEN_CNTL);
save->CUR_OFFSET = RREG32(R_000260_CUR_OFFSET);
if (!(rdev->flags & RADEON_SINGLE_CRTC)) {
save->CRTC2_GEN_CNTL = RREG32(R_0003F8_CRTC2_GEN_CNTL);
save->CUR2_OFFSET = RREG32(R_000360_CUR2_OFFSET);
}
 
/* Disable VGA aperture access */
WREG32(R_0003C0_GENMO_WT, C_0003C0_VGA_RAM_EN & save->GENMO_WT);
/* Disable cursor, overlay, crtc */
WREG32(R_000260_CUR_OFFSET, save->CUR_OFFSET | S_000260_CUR_LOCK(1));
WREG32(R_000054_CRTC_EXT_CNTL, save->CRTC_EXT_CNTL |
S_000054_CRTC_DISPLAY_DIS(1));
WREG32(R_000050_CRTC_GEN_CNTL,
(C_000050_CRTC_CUR_EN & save->CRTC_GEN_CNTL) |
S_000050_CRTC_DISP_REQ_EN_B(1));
WREG32(R_000420_OV0_SCALE_CNTL,
C_000420_OV0_OVERLAY_EN & RREG32(R_000420_OV0_SCALE_CNTL));
WREG32(R_000260_CUR_OFFSET, C_000260_CUR_LOCK & save->CUR_OFFSET);
if (!(rdev->flags & RADEON_SINGLE_CRTC)) {
WREG32(R_000360_CUR2_OFFSET, save->CUR2_OFFSET |
S_000360_CUR2_LOCK(1));
WREG32(R_0003F8_CRTC2_GEN_CNTL,
(C_0003F8_CRTC2_CUR_EN & save->CRTC2_GEN_CNTL) |
S_0003F8_CRTC2_DISPLAY_DIS(1) |
S_0003F8_CRTC2_DISP_REQ_EN_B(1));
WREG32(R_000360_CUR2_OFFSET,
C_000360_CUR2_LOCK & save->CUR2_OFFSET);
}
}
 
void r100_mc_resume(struct radeon_device *rdev, struct r100_mc_save *save)
{
/* Update base address for crtc */
WREG32(R_00023C_DISPLAY_BASE_ADDR, rdev->mc.vram_location);
if (!(rdev->flags & RADEON_SINGLE_CRTC)) {
WREG32(R_00033C_CRTC2_DISPLAY_BASE_ADDR,
rdev->mc.vram_location);
}
/* Restore CRTC registers */
WREG32(R_0003C0_GENMO_WT, save->GENMO_WT);
WREG32(R_000054_CRTC_EXT_CNTL, save->CRTC_EXT_CNTL);
WREG32(R_000050_CRTC_GEN_CNTL, save->CRTC_GEN_CNTL);
if (!(rdev->flags & RADEON_SINGLE_CRTC)) {
WREG32(R_0003F8_CRTC2_GEN_CNTL, save->CRTC2_GEN_CNTL);
}
}
 
int drm_order(unsigned long size)
{
int order;
unsigned long tmp;
 
for (order = 0, tmp = size >> 1; tmp; tmp >>= 1, order++) ;
 
if (size & (size - 1))
++order;
 
return order;
}
 
/drivers/video/drm/radeon/r300.c
25,17 → 25,12
* Alex Deucher
* Jerome Glisse
*/
#include <linux/seq_file.h>
//#include <linux/seq_file.h>
#include "drmP.h"
#include "drm.h"
#include "radeon_reg.h"
#include "radeon.h"
#include "radeon_drm.h"
 
#include "r300d.h"
 
#include "r300_reg_safe.h"
 
/* r300,r350,rv350,rv370,rv380 depends on : */
void r100_hdp_reset(struct radeon_device *rdev);
int r100_cp_reset(struct radeon_device *rdev);
42,6 → 37,7
int r100_rb2d_reset(struct radeon_device *rdev);
int r100_cp_init(struct radeon_device *rdev, unsigned ring_size);
int r100_pci_gart_enable(struct radeon_device *rdev);
void r100_pci_gart_disable(struct radeon_device *rdev);
void r100_mc_setup(struct radeon_device *rdev);
void r100_mc_disable_clients(struct radeon_device *rdev);
int r100_gui_wait_for_idle(struct radeon_device *rdev);
48,11 → 44,14
int r100_cs_packet_parse(struct radeon_cs_parser *p,
struct radeon_cs_packet *pkt,
unsigned idx);
int r100_cs_packet_parse_vline(struct radeon_cs_parser *p);
int r100_cs_packet_next_reloc(struct radeon_cs_parser *p,
struct radeon_cs_reloc **cs_reloc);
int r100_cs_parse_packet0(struct radeon_cs_parser *p,
struct radeon_cs_packet *pkt,
const unsigned *auth, unsigned n,
radeon_packet0_check_t check);
void r100_cs_dump_packet(struct radeon_cs_parser *p,
struct radeon_cs_packet *pkt);
int r100_cs_track_check_pkt3_indx_buffer(struct radeon_cs_parser *p,
struct radeon_cs_packet *pkt,
struct radeon_object *robj);
81,61 → 80,30
WREG32_PCIE(RADEON_PCIE_TX_GART_CNTL, tmp | RADEON_PCIE_TX_GART_INVALIDATE_TLB);
(void)RREG32_PCIE(RADEON_PCIE_TX_GART_CNTL);
WREG32_PCIE(RADEON_PCIE_TX_GART_CNTL, tmp);
}
mb();
}
 
int rv370_pcie_gart_set_page(struct radeon_device *rdev, int i, uint64_t addr)
{
void __iomem *ptr = (void *)rdev->gart.table.vram.ptr;
 
if (i < 0 || i > rdev->gart.num_gpu_pages) {
return -EINVAL;
}
addr = (lower_32_bits(addr) >> 8) |
((upper_32_bits(addr) & 0xff) << 24) |
0xc;
/* on x86 we want this to be CPU endian, on powerpc
* on powerpc without HW swappers, it'll get swapped on way
* into VRAM - so no need for cpu_to_le32 on VRAM tables */
writel(addr, ((void __iomem *)ptr) + (i * 4));
return 0;
}
 
int rv370_pcie_gart_init(struct radeon_device *rdev)
int rv370_pcie_gart_enable(struct radeon_device *rdev)
{
uint32_t table_addr;
uint32_t tmp;
int r;
 
if (rdev->gart.table.vram.robj) {
WARN(1, "RV370 PCIE GART already initialized.\n");
return 0;
}
/* Initialize common gart structure */
r = radeon_gart_init(rdev);
if (r)
if (r) {
return r;
}
r = rv370_debugfs_pcie_gart_info_init(rdev);
if (r)
if (r) {
DRM_ERROR("Failed to register debugfs file for PCIE gart !\n");
}
rdev->gart.table_size = rdev->gart.num_gpu_pages * 4;
rdev->asic->gart_tlb_flush = &rv370_pcie_gart_tlb_flush;
rdev->asic->gart_set_page = &rv370_pcie_gart_set_page;
return radeon_gart_table_vram_alloc(rdev);
r = radeon_gart_table_vram_alloc(rdev);
if (r) {
return r;
}
 
int rv370_pcie_gart_enable(struct radeon_device *rdev)
{
uint32_t table_addr;
uint32_t tmp;
int r;
 
if (rdev->gart.table.vram.robj == NULL) {
dev_err(rdev->dev, "No VRAM object for PCIE GART.\n");
return -EINVAL;
}
r = radeon_gart_table_vram_pin(rdev);
if (r)
return r;
/* discard memory request outside of configured range */
tmp = RADEON_PCIE_TX_GART_UNMAPPED_ACCESS_DISCARD;
WREG32_PCIE(RADEON_PCIE_TX_GART_CNTL, tmp);
157,7 → 125,7
WREG32_PCIE(RADEON_PCIE_TX_GART_CNTL, tmp);
rv370_pcie_gart_tlb_flush(rdev);
DRM_INFO("PCIE GART of %uM enabled (table at 0x%08X).\n",
(unsigned)(rdev->mc.gtt_size >> 20), table_addr);
rdev->mc.gtt_size >> 20, table_addr);
rdev->gart.ready = true;
return 0;
}
175,13 → 143,40
}
}
 
void rv370_pcie_gart_fini(struct radeon_device *rdev)
int rv370_pcie_gart_set_page(struct radeon_device *rdev, int i, uint64_t addr)
{
void __iomem *ptr = (void *)rdev->gart.table.vram.ptr;
 
if (i < 0 || i > rdev->gart.num_gpu_pages) {
return -EINVAL;
}
addr = (((u32)addr) >> 8) | ((upper_32_bits(addr) & 0xff) << 4) | 0xC;
writel(cpu_to_le32(addr), ((void __iomem *)ptr) + (i * 4));
return 0;
}
 
int r300_gart_enable(struct radeon_device *rdev)
{
#if __OS_HAS_AGP
if (rdev->flags & RADEON_IS_AGP) {
if (rdev->family > CHIP_RV350) {
rv370_pcie_gart_disable(rdev);
radeon_gart_table_vram_free(rdev);
radeon_gart_fini(rdev);
} else {
r100_pci_gart_disable(rdev);
}
return 0;
}
#endif
if (rdev->flags & RADEON_IS_PCIE) {
rdev->asic->gart_disable = &rv370_pcie_gart_disable;
rdev->asic->gart_tlb_flush = &rv370_pcie_gart_tlb_flush;
rdev->asic->gart_set_page = &rv370_pcie_gart_set_page;
return rv370_pcie_gart_enable(rdev);
}
return r100_pci_gart_enable(rdev);
}
 
 
/*
* MC
*/
202,6 → 197,16
/* Setup GPU memory space */
rdev->mc.vram_location = 0xFFFFFFFFUL;
rdev->mc.gtt_location = 0xFFFFFFFFUL;
if (rdev->flags & RADEON_IS_AGP) {
r = radeon_agp_init(rdev);
if (r) {
printk(KERN_WARNING "[drm] Disabling AGP\n");
rdev->flags &= ~RADEON_IS_AGP;
rdev->mc.gtt_size = radeon_gart_size * 1024 * 1024;
} else {
rdev->mc.gtt_location = rdev->mc.agp_base;
}
}
r = radeon_mc_setup(rdev);
if (r) {
return r;
219,7 → 224,15
 
void r300_mc_fini(struct radeon_device *rdev)
{
if (rdev->flags & RADEON_IS_PCIE) {
rv370_pcie_gart_disable(rdev);
radeon_gart_table_vram_free(rdev);
} else {
r100_pci_gart_disable(rdev);
radeon_gart_table_ram_free(rdev);
}
radeon_gart_fini(rdev);
}
 
 
/*
431,7 → 444,6
/* rv350,rv370,rv380 */
rdev->num_gb_pipes = 1;
}
rdev->num_z_pipes = 1;
gb_tile_config = (R300_ENABLE_TILING | R300_TILE_SIZE_16);
switch (rdev->num_gb_pipes) {
case 2:
470,8 → 482,7
printk(KERN_WARNING "Failed to wait MC idle while "
"programming pipes. Bad things might happen.\n");
}
DRM_INFO("radeon: %d quad pipes, %d Z pipes initialized.\n",
rdev->num_gb_pipes, rdev->num_z_pipes);
DRM_INFO("radeon: %d pipes initialized.\n", rdev->num_gb_pipes);
}
 
int r300_ga_reset(struct radeon_device *rdev)
572,12 → 583,35
} else {
rdev->mc.vram_width = 64;
}
rdev->mc.vram_size = RREG32(RADEON_CONFIG_MEMSIZE);
 
r100_vram_init_sizes(rdev);
rdev->mc.aper_base = drm_get_resource_start(rdev->ddev, 0);
rdev->mc.aper_size = drm_get_resource_len(rdev->ddev, 0);
}
 
 
/*
* Indirect registers accessor
*/
uint32_t rv370_pcie_rreg(struct radeon_device *rdev, uint32_t reg)
{
uint32_t r;
 
WREG8(RADEON_PCIE_INDEX, ((reg) & 0xff));
(void)RREG32(RADEON_PCIE_INDEX);
r = RREG32(RADEON_PCIE_DATA);
return r;
}
 
void rv370_pcie_wreg(struct radeon_device *rdev, uint32_t reg, uint32_t v)
{
WREG8(RADEON_PCIE_INDEX, ((reg) & 0xff));
(void)RREG32(RADEON_PCIE_INDEX);
WREG32(RADEON_PCIE_DATA, (v));
(void)RREG32(RADEON_PCIE_DATA);
}
 
/*
* PCIE Lanes
*/
 
688,6 → 722,304
/*
* CS functions
*/
struct r300_cs_track_cb {
struct radeon_object *robj;
unsigned pitch;
unsigned cpp;
unsigned offset;
};
 
struct r300_cs_track_array {
struct radeon_object *robj;
unsigned esize;
};
 
struct r300_cs_track_texture {
struct radeon_object *robj;
unsigned pitch;
unsigned width;
unsigned height;
unsigned num_levels;
unsigned cpp;
unsigned tex_coord_type;
unsigned txdepth;
unsigned width_11;
unsigned height_11;
bool use_pitch;
bool enabled;
bool roundup_w;
bool roundup_h;
};
 
struct r300_cs_track {
unsigned num_cb;
unsigned maxy;
unsigned vtx_size;
unsigned vap_vf_cntl;
unsigned immd_dwords;
unsigned num_arrays;
unsigned max_indx;
struct r300_cs_track_array arrays[11];
struct r300_cs_track_cb cb[4];
struct r300_cs_track_cb zb;
struct r300_cs_track_texture textures[16];
bool z_enabled;
};
 
static inline void r300_cs_track_texture_print(struct r300_cs_track_texture *t)
{
DRM_ERROR("pitch %d\n", t->pitch);
DRM_ERROR("width %d\n", t->width);
DRM_ERROR("height %d\n", t->height);
DRM_ERROR("num levels %d\n", t->num_levels);
DRM_ERROR("depth %d\n", t->txdepth);
DRM_ERROR("bpp %d\n", t->cpp);
DRM_ERROR("coordinate type %d\n", t->tex_coord_type);
DRM_ERROR("width round to power of 2 %d\n", t->roundup_w);
DRM_ERROR("height round to power of 2 %d\n", t->roundup_h);
}
 
static inline int r300_cs_track_texture_check(struct radeon_device *rdev,
struct r300_cs_track *track)
{
struct radeon_object *robj;
unsigned long size;
unsigned u, i, w, h;
 
for (u = 0; u < 16; u++) {
if (!track->textures[u].enabled)
continue;
robj = track->textures[u].robj;
if (robj == NULL) {
DRM_ERROR("No texture bound to unit %u\n", u);
return -EINVAL;
}
size = 0;
for (i = 0; i <= track->textures[u].num_levels; i++) {
if (track->textures[u].use_pitch) {
w = track->textures[u].pitch / (1 << i);
} else {
w = track->textures[u].width / (1 << i);
if (rdev->family >= CHIP_RV515)
w |= track->textures[u].width_11;
if (track->textures[u].roundup_w)
w = roundup_pow_of_two(w);
}
h = track->textures[u].height / (1 << i);
if (rdev->family >= CHIP_RV515)
h |= track->textures[u].height_11;
if (track->textures[u].roundup_h)
h = roundup_pow_of_two(h);
size += w * h;
}
size *= track->textures[u].cpp;
switch (track->textures[u].tex_coord_type) {
case 0:
break;
case 1:
size *= (1 << track->textures[u].txdepth);
break;
case 2:
size *= 6;
break;
default:
DRM_ERROR("Invalid texture coordinate type %u for unit "
"%u\n", track->textures[u].tex_coord_type, u);
return -EINVAL;
}
if (size > radeon_object_size(robj)) {
DRM_ERROR("Texture of unit %u needs %lu bytes but is "
"%lu\n", u, size, radeon_object_size(robj));
r300_cs_track_texture_print(&track->textures[u]);
return -EINVAL;
}
}
return 0;
}
 
int r300_cs_track_check(struct radeon_device *rdev, struct r300_cs_track *track)
{
unsigned i;
unsigned long size;
unsigned prim_walk;
unsigned nverts;
 
for (i = 0; i < track->num_cb; i++) {
if (track->cb[i].robj == NULL) {
DRM_ERROR("[drm] No buffer for color buffer %d !\n", i);
return -EINVAL;
}
size = track->cb[i].pitch * track->cb[i].cpp * track->maxy;
size += track->cb[i].offset;
if (size > radeon_object_size(track->cb[i].robj)) {
DRM_ERROR("[drm] Buffer too small for color buffer %d "
"(need %lu have %lu) !\n", i, size,
radeon_object_size(track->cb[i].robj));
DRM_ERROR("[drm] color buffer %d (%u %u %u %u)\n",
i, track->cb[i].pitch, track->cb[i].cpp,
track->cb[i].offset, track->maxy);
return -EINVAL;
}
}
if (track->z_enabled) {
if (track->zb.robj == NULL) {
DRM_ERROR("[drm] No buffer for z buffer !\n");
return -EINVAL;
}
size = track->zb.pitch * track->zb.cpp * track->maxy;
size += track->zb.offset;
if (size > radeon_object_size(track->zb.robj)) {
DRM_ERROR("[drm] Buffer too small for z buffer "
"(need %lu have %lu) !\n", size,
radeon_object_size(track->zb.robj));
return -EINVAL;
}
}
prim_walk = (track->vap_vf_cntl >> 4) & 0x3;
nverts = (track->vap_vf_cntl >> 16) & 0xFFFF;
switch (prim_walk) {
case 1:
for (i = 0; i < track->num_arrays; i++) {
size = track->arrays[i].esize * track->max_indx * 4;
if (track->arrays[i].robj == NULL) {
DRM_ERROR("(PW %u) Vertex array %u no buffer "
"bound\n", prim_walk, i);
return -EINVAL;
}
if (size > radeon_object_size(track->arrays[i].robj)) {
DRM_ERROR("(PW %u) Vertex array %u need %lu dwords "
"have %lu dwords\n", prim_walk, i,
size >> 2,
radeon_object_size(track->arrays[i].robj) >> 2);
DRM_ERROR("Max indices %u\n", track->max_indx);
return -EINVAL;
}
}
break;
case 2:
for (i = 0; i < track->num_arrays; i++) {
size = track->arrays[i].esize * (nverts - 1) * 4;
if (track->arrays[i].robj == NULL) {
DRM_ERROR("(PW %u) Vertex array %u no buffer "
"bound\n", prim_walk, i);
return -EINVAL;
}
if (size > radeon_object_size(track->arrays[i].robj)) {
DRM_ERROR("(PW %u) Vertex array %u need %lu dwords "
"have %lu dwords\n", prim_walk, i, size >> 2,
radeon_object_size(track->arrays[i].robj) >> 2);
return -EINVAL;
}
}
break;
case 3:
size = track->vtx_size * nverts;
if (size != track->immd_dwords) {
DRM_ERROR("IMMD draw %u dwors but needs %lu dwords\n",
track->immd_dwords, size);
DRM_ERROR("VAP_VF_CNTL.NUM_VERTICES %u, VTX_SIZE %u\n",
nverts, track->vtx_size);
return -EINVAL;
}
break;
default:
DRM_ERROR("[drm] Invalid primitive walk %d for VAP_VF_CNTL\n",
prim_walk);
return -EINVAL;
}
return r300_cs_track_texture_check(rdev, track);
}
 
static inline void r300_cs_track_clear(struct r300_cs_track *track)
{
unsigned i;
 
track->num_cb = 4;
track->maxy = 4096;
for (i = 0; i < track->num_cb; i++) {
track->cb[i].robj = NULL;
track->cb[i].pitch = 8192;
track->cb[i].cpp = 16;
track->cb[i].offset = 0;
}
track->z_enabled = true;
track->zb.robj = NULL;
track->zb.pitch = 8192;
track->zb.cpp = 4;
track->zb.offset = 0;
track->vtx_size = 0x7F;
track->immd_dwords = 0xFFFFFFFFUL;
track->num_arrays = 11;
track->max_indx = 0x00FFFFFFUL;
for (i = 0; i < track->num_arrays; i++) {
track->arrays[i].robj = NULL;
track->arrays[i].esize = 0x7F;
}
for (i = 0; i < 16; i++) {
track->textures[i].pitch = 16536;
track->textures[i].width = 16536;
track->textures[i].height = 16536;
track->textures[i].width_11 = 1 << 11;
track->textures[i].height_11 = 1 << 11;
track->textures[i].num_levels = 12;
track->textures[i].txdepth = 16;
track->textures[i].cpp = 64;
track->textures[i].tex_coord_type = 1;
track->textures[i].robj = NULL;
/* CS IB emission code makes sure texture unit are disabled */
track->textures[i].enabled = false;
track->textures[i].roundup_w = true;
track->textures[i].roundup_h = true;
}
}
 
#endif
 
static const unsigned r300_reg_safe_bm[159] = {
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFBF, 0xFFFFFFFF, 0xFFFFFFBF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0x17FF1FFF, 0xFFFFFFFC, 0xFFFFFFFF, 0xFF30FFBF,
0xFFFFFFF8, 0xC3E6FFFF, 0xFFFFF6DF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFF03F,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFEFCE, 0xF00EBFFF, 0x007C0000,
0xF0000078, 0xFF000009, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFF7FF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFC78, 0xFFFFFFFF, 0xFFFFFFFE, 0xFFFFFFFF,
0x38FF8F50, 0xFFF88082, 0xF000000C, 0xFAE009FF,
0x0000FFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0x00000000,
0x00000000, 0x0000C100, 0x00000000, 0x00000000,
0x00000000, 0x00000000, 0x00000000, 0x00000000,
0x00000000, 0xFFFF0000, 0xFFFFFFFF, 0xFF80FFFF,
0x00000000, 0x00000000, 0x00000000, 0x00000000,
0x0003FC01, 0xFFFFFFF8, 0xFE800B19,
};
 
#if 0
 
static int r300_packet0_check(struct radeon_cs_parser *p,
struct radeon_cs_packet *pkt,
unsigned idx, unsigned reg)
694,19 → 1026,19
{
struct radeon_cs_chunk *ib_chunk;
struct radeon_cs_reloc *reloc;
struct r100_cs_track *track;
struct r300_cs_track *track;
volatile uint32_t *ib;
uint32_t tmp, tile_flags = 0;
uint32_t tmp;
unsigned i;
int r;
 
ib = p->ib->ptr;
ib_chunk = &p->chunks[p->chunk_ib_idx];
track = (struct r100_cs_track *)p->track;
track = (struct r300_cs_track*)p->track;
switch(reg) {
case AVIVO_D1MODE_VLINE_START_END:
case RADEON_CRTC_GUI_TRIG_VLINE:
r = r100_cs_packet_parse_vline(p);
case RADEON_DST_PITCH_OFFSET:
case RADEON_SRC_PITCH_OFFSET:
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
DRM_ERROR("No reloc for ib[%d]=0x%04X\n",
idx, reg);
713,13 → 1045,10
r100_cs_dump_packet(p, pkt);
return r;
}
tmp = ib_chunk->kdata[idx] & 0x003fffff;
tmp += (((u32)reloc->lobj.gpu_offset) >> 10);
ib[idx] = (ib_chunk->kdata[idx] & 0xffc00000) | tmp;
break;
case RADEON_DST_PITCH_OFFSET:
case RADEON_SRC_PITCH_OFFSET:
r = r100_reloc_pitch_offset(p, pkt, idx, reg);
if (r)
return r;
break;
case R300_RB3D_COLOROFFSET0:
case R300_RB3D_COLOROFFSET1:
case R300_RB3D_COLOROFFSET2:
807,23 → 1136,6
/* RB3D_COLORPITCH1 */
/* RB3D_COLORPITCH2 */
/* RB3D_COLORPITCH3 */
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
DRM_ERROR("No reloc for ib[%d]=0x%04X\n",
idx, reg);
r100_cs_dump_packet(p, pkt);
return r;
}
 
if (reloc->lobj.tiling_flags & RADEON_TILING_MACRO)
tile_flags |= R300_COLOR_TILE_ENABLE;
if (reloc->lobj.tiling_flags & RADEON_TILING_MICRO)
tile_flags |= R300_COLOR_MICROTILE_ENABLE;
 
tmp = ib_chunk->kdata[idx] & ~(0x7 << 16);
tmp |= tile_flags;
ib[idx] = tmp;
 
i = (reg - 0x4E38) >> 2;
track->cb[i].pitch = ib_chunk->kdata[idx] & 0x3FFE;
switch (((ib_chunk->kdata[idx] >> 21) & 0xF)) {
879,23 → 1191,6
break;
case 0x4F24:
/* ZB_DEPTHPITCH */
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
DRM_ERROR("No reloc for ib[%d]=0x%04X\n",
idx, reg);
r100_cs_dump_packet(p, pkt);
return r;
}
 
if (reloc->lobj.tiling_flags & RADEON_TILING_MACRO)
tile_flags |= R300_DEPTHMACROTILE_ENABLE;
if (reloc->lobj.tiling_flags & RADEON_TILING_MICRO)
tile_flags |= R300_DEPTHMICROTILE_TILED;;
 
tmp = ib_chunk->kdata[idx] & ~(0x7 << 16);
tmp |= tile_flags;
ib[idx] = tmp;
 
track->zb.pitch = ib_chunk->kdata[idx] & 0x3FFC;
break;
case 0x4104:
927,41 → 1222,42
tmp = (ib_chunk->kdata[idx] >> 25) & 0x3;
track->textures[i].tex_coord_type = tmp;
switch ((ib_chunk->kdata[idx] & 0x1F)) {
case R300_TX_FORMAT_X8:
case R300_TX_FORMAT_Y4X4:
case R300_TX_FORMAT_Z3Y3X2:
case 0:
case 2:
case 5:
case 18:
case 20:
case 21:
track->textures[i].cpp = 1;
break;
case R300_TX_FORMAT_X16:
case R300_TX_FORMAT_Y8X8:
case R300_TX_FORMAT_Z5Y6X5:
case R300_TX_FORMAT_Z6Y5X5:
case R300_TX_FORMAT_W4Z4Y4X4:
case R300_TX_FORMAT_W1Z5Y5X5:
case R300_TX_FORMAT_DXT1:
case R300_TX_FORMAT_D3DMFT_CxV8U8:
case R300_TX_FORMAT_B8G8_B8G8:
case R300_TX_FORMAT_G8R8_G8B8:
case 1:
case 3:
case 6:
case 7:
case 10:
case 11:
case 19:
case 22:
case 24:
track->textures[i].cpp = 2;
break;
case R300_TX_FORMAT_Y16X16:
case R300_TX_FORMAT_Z11Y11X10:
case R300_TX_FORMAT_Z10Y11X11:
case R300_TX_FORMAT_W8Z8Y8X8:
case R300_TX_FORMAT_W2Z10Y10X10:
case 0x17:
case R300_TX_FORMAT_FL_I32:
case 0x1e:
case R300_TX_FORMAT_DXT3:
case R300_TX_FORMAT_DXT5:
case 4:
case 8:
case 9:
case 12:
case 13:
case 23:
case 25:
case 27:
case 30:
track->textures[i].cpp = 4;
break;
case R300_TX_FORMAT_W16Z16Y16X16:
case R300_TX_FORMAT_FL_R16G16B16A16:
case R300_TX_FORMAT_FL_I32A32:
case 14:
case 26:
case 28:
track->textures[i].cpp = 8;
break;
case R300_TX_FORMAT_FL_R32G32B32A32:
case 29:
track->textures[i].cpp = 16;
break;
default:
989,11 → 1285,11
case 0x443C:
/* TX_FILTER0_[0-15] */
i = (reg - 0x4400) >> 2;
tmp = ib_chunk->kdata[idx] & 0x7;
tmp = ib_chunk->kdata[idx] & 0x7;;
if (tmp == 2 || tmp == 4 || tmp == 6) {
track->textures[i].roundup_w = false;
}
tmp = (ib_chunk->kdata[idx] >> 3) & 0x7;
tmp = (ib_chunk->kdata[idx] >> 3) & 0x7;;
if (tmp == 2 || tmp == 4 || tmp == 6) {
track->textures[i].roundup_h = false;
}
1054,21 → 1350,6
tmp = (ib_chunk->kdata[idx] >> 22) & 0xF;
track->textures[i].txdepth = tmp;
break;
case R300_ZB_ZPASS_ADDR:
r = r100_cs_packet_next_reloc(p, &reloc);
if (r) {
DRM_ERROR("No reloc for ib[%d]=0x%04X\n",
idx, reg);
r100_cs_dump_packet(p, pkt);
return r;
}
ib[idx] = ib_chunk->kdata[idx] + ((u32)reloc->lobj.gpu_offset);
break;
case 0x4be8:
/* valid register only on RV530 */
if (p->rdev->family == CHIP_RV530)
break;
/* fallthrough do not move */
default:
printk(KERN_ERR "Forbidden register 0x%04X in cs at %d\n",
reg, idx);
1081,9 → 1362,8
struct radeon_cs_packet *pkt)
{
struct radeon_cs_chunk *ib_chunk;
 
struct radeon_cs_reloc *reloc;
struct r100_cs_track *track;
struct r300_cs_track *track;
volatile uint32_t *ib;
unsigned idx;
unsigned i, c;
1092,7 → 1372,7
ib = p->ib->ptr;
ib_chunk = &p->chunks[p->chunk_ib_idx];
idx = pkt->idx + 1;
track = (struct r100_cs_track *)p->track;
track = (struct r300_cs_track*)p->track;
switch(pkt->opcode) {
case PACKET3_3D_LOAD_VBPNTR:
c = ib_chunk->kdata[idx++] & 0x1F;
1159,7 → 1439,7
}
track->vap_vf_cntl = ib_chunk->kdata[idx+1];
track->immd_dwords = pkt->count - 1;
r = r100_cs_track_check(p->rdev, track);
r = r300_cs_track_check(p->rdev, track);
if (r) {
return r;
}
1174,7 → 1454,7
}
track->vap_vf_cntl = ib_chunk->kdata[idx];
track->immd_dwords = pkt->count;
r = r100_cs_track_check(p->rdev, track);
r = r300_cs_track_check(p->rdev, track);
if (r) {
return r;
}
1181,7 → 1461,7
break;
case PACKET3_3D_DRAW_VBUF:
track->vap_vf_cntl = ib_chunk->kdata[idx + 1];
r = r100_cs_track_check(p->rdev, track);
r = r300_cs_track_check(p->rdev, track);
if (r) {
return r;
}
1188,7 → 1468,7
break;
case PACKET3_3D_DRAW_VBUF_2:
track->vap_vf_cntl = ib_chunk->kdata[idx];
r = r100_cs_track_check(p->rdev, track);
r = r300_cs_track_check(p->rdev, track);
if (r) {
return r;
}
1195,7 → 1475,7
break;
case PACKET3_3D_DRAW_INDX:
track->vap_vf_cntl = ib_chunk->kdata[idx + 1];
r = r100_cs_track_check(p->rdev, track);
r = r300_cs_track_check(p->rdev, track);
if (r) {
return r;
}
1202,7 → 1482,7
break;
case PACKET3_3D_DRAW_INDX_2:
track->vap_vf_cntl = ib_chunk->kdata[idx];
r = r100_cs_track_check(p->rdev, track);
r = r300_cs_track_check(p->rdev, track);
if (r) {
return r;
}
1219,12 → 1499,11
int r300_cs_parse(struct radeon_cs_parser *p)
{
struct radeon_cs_packet pkt;
struct r100_cs_track *track;
struct r300_cs_track track;
int r;
 
track = kzalloc(sizeof(*track), GFP_KERNEL);
r100_cs_track_clear(p->rdev, track);
p->track = track;
r300_cs_track_clear(&track);
p->track = &track;
do {
r = r100_cs_packet_parse(p, &pkt, p->idx);
if (r) {
1253,51 → 1532,14
} while (p->idx < p->chunks[p->chunk_ib_idx].length_dw);
return 0;
}
 
#endif
 
 
void r300_set_reg_safe(struct radeon_device *rdev)
int r300_init(struct radeon_device *rdev)
{
rdev->config.r300.reg_safe_bm = r300_reg_safe_bm;
rdev->config.r300.reg_safe_bm_size = ARRAY_SIZE(r300_reg_safe_bm);
}
 
int r300_init(struct radeon_device *rdev)
{
r300_set_reg_safe(rdev);
return 0;
}
 
void r300_mc_program(struct radeon_device *rdev)
{
struct r100_mc_save save;
int r;
 
r = r100_debugfs_mc_info_init(rdev);
if (r) {
dev_err(rdev->dev, "Failed to create r100_mc debugfs file.\n");
}
 
/* Stops all mc clients */
r100_mc_stop(rdev, &save);
if (rdev->flags & RADEON_IS_AGP) {
WREG32(R_00014C_MC_AGP_LOCATION,
S_00014C_MC_AGP_START(rdev->mc.gtt_start >> 16) |
S_00014C_MC_AGP_TOP(rdev->mc.gtt_end >> 16));
WREG32(R_000170_AGP_BASE, lower_32_bits(rdev->mc.agp_base));
WREG32(R_00015C_AGP_BASE_2,
upper_32_bits(rdev->mc.agp_base) & 0xff);
} else {
WREG32(R_00014C_MC_AGP_LOCATION, 0x0FFFFFFF);
WREG32(R_000170_AGP_BASE, 0);
WREG32(R_00015C_AGP_BASE_2, 0);
}
/* Wait for mc idle */
if (r300_mc_wait_for_idle(rdev))
DRM_INFO("Failed to wait MC idle before programming MC.\n");
/* Program MC, should be a 32bits limited address space */
WREG32(R_000148_MC_FB_LOCATION,
S_000148_MC_FB_START(rdev->mc.vram_start >> 16) |
S_000148_MC_FB_TOP(rdev->mc.vram_end >> 16));
r100_mc_resume(rdev, &save);
}
/drivers/video/drm/radeon/r520.c
31,6 → 31,8
 
/* r520,rv530,rv560,rv570,r580 depends on : */
void r100_hdp_reset(struct radeon_device *rdev);
int rv370_pcie_gart_enable(struct radeon_device *rdev);
void rv370_pcie_gart_disable(struct radeon_device *rdev);
void r420_pipes_init(struct radeon_device *rdev);
void rs600_mc_disable_clients(struct radeon_device *rdev);
void rs600_disable_vga(struct radeon_device *rdev);
45,7 → 47,6
void r520_gpu_init(struct radeon_device *rdev);
int r520_mc_wait_for_idle(struct radeon_device *rdev);
 
 
/*
* MC
*/
54,7 → 55,7
uint32_t tmp;
int r;
 
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
if (r100_debugfs_rbbm_init(rdev)) {
DRM_ERROR("Failed to register debugfs file for RBBM !\n");
72,6 → 73,16
/* Setup GPU memory space */
rdev->mc.vram_location = 0xFFFFFFFFUL;
rdev->mc.gtt_location = 0xFFFFFFFFUL;
if (rdev->flags & RADEON_IS_AGP) {
r = radeon_agp_init(rdev);
if (r) {
printk(KERN_WARNING "[drm] Disabling AGP\n");
rdev->flags &= ~RADEON_IS_AGP;
rdev->mc.gtt_size = radeon_gart_size * 1024 * 1024;
} else {
rdev->mc.gtt_location = rdev->mc.agp_base;
}
}
r = radeon_mc_setup(rdev);
if (r) {
return r;
84,8 → 95,8
"programming pipes. Bad things might happen.\n");
}
/* Write VRAM size in case we are limiting it */
WREG32(RADEON_CONFIG_MEMSIZE, rdev->mc.real_vram_size);
tmp = rdev->mc.vram_location + rdev->mc.mc_vram_size - 1;
WREG32(RADEON_CONFIG_MEMSIZE, rdev->mc.vram_size);
tmp = rdev->mc.vram_location + rdev->mc.vram_size - 1;
tmp = REG_SET(R520_MC_FB_TOP, tmp >> 16);
tmp |= REG_SET(R520_MC_FB_START, rdev->mc.vram_location >> 16);
WREG32_MC(R520_MC_FB_LOCATION, tmp);
104,7 → 115,7
WREG32_MC(R520_MC_AGP_BASE_2, 0);
}
 
LEAVE();
dbgprintf("done: %s\n",__FUNCTION__);
 
return 0;
}
111,6 → 122,9
 
void r520_mc_fini(struct radeon_device *rdev)
{
rv370_pcie_gart_disable(rdev);
radeon_gart_table_vram_free(rdev);
radeon_gart_fini(rdev);
}
 
 
141,7 → 155,7
void r520_gpu_init(struct radeon_device *rdev)
{
unsigned pipe_select_current, gb_pipe_select, tmp;
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
r100_hdp_reset(rdev);
rs600_disable_vga(rdev);
167,6 → 181,7
*/
/* workaround for RV530 */
if (rdev->family == CHIP_RV530) {
WREG32(0x4124, 1);
WREG32(0x4128, 0xFF);
}
r420_pipes_init(rdev);
189,7 → 204,7
static void r520_vram_get_type(struct radeon_device *rdev)
{
uint32_t tmp;
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
rdev->mc.vram_width = 128;
rdev->mc.vram_is_ddr = true;
217,20 → 232,164
 
void r520_vram_info(struct radeon_device *rdev)
{
fixed20_12 a;
 
r520_vram_get_type(rdev);
rdev->mc.vram_size = RREG32(RADEON_CONFIG_MEMSIZE);
 
r100_vram_init_sizes(rdev);
/* FIXME: we should enforce default clock in case GPU is not in
* default setup
*/
a.full = rfixed_const(100);
rdev->pm.sclk.full = rfixed_const(rdev->clock.default_sclk);
rdev->pm.sclk.full = rfixed_div(rdev->pm.sclk, a);
rdev->mc.aper_base = drm_get_resource_start(rdev->ddev, 0);
rdev->mc.aper_size = drm_get_resource_len(rdev->ddev, 0);
}
 
void r520_bandwidth_update(struct radeon_device *rdev)
 
int radeon_agp_init(struct radeon_device *rdev)
{
rv515_bandwidth_avivo_update(rdev);
 
dbgprintf("%s\n",__FUNCTION__);
 
#if __OS_HAS_AGP
struct radeon_agpmode_quirk *p = radeon_agpmode_quirk_list;
struct drm_agp_mode mode;
struct drm_agp_info info;
uint32_t agp_status;
int default_mode;
bool is_v3;
int ret;
 
/* Acquire AGP. */
if (!rdev->ddev->agp->acquired) {
ret = drm_agp_acquire(rdev->ddev);
if (ret) {
DRM_ERROR("Unable to acquire AGP: %d\n", ret);
return ret;
}
}
 
ret = drm_agp_info(rdev->ddev, &info);
if (ret) {
DRM_ERROR("Unable to get AGP info: %d\n", ret);
return ret;
}
mode.mode = info.mode;
agp_status = (RREG32(RADEON_AGP_STATUS) | RADEON_AGPv3_MODE) & mode.mode;
is_v3 = !!(agp_status & RADEON_AGPv3_MODE);
 
if (is_v3) {
default_mode = (agp_status & RADEON_AGPv3_8X_MODE) ? 8 : 4;
} else {
if (agp_status & RADEON_AGP_4X_MODE) {
default_mode = 4;
} else if (agp_status & RADEON_AGP_2X_MODE) {
default_mode = 2;
} else {
default_mode = 1;
}
}
 
/* Apply AGPMode Quirks */
while (p && p->chip_device != 0) {
if (info.id_vendor == p->hostbridge_vendor &&
info.id_device == p->hostbridge_device &&
rdev->pdev->vendor == p->chip_vendor &&
rdev->pdev->device == p->chip_device &&
rdev->pdev->subsystem_vendor == p->subsys_vendor &&
rdev->pdev->subsystem_device == p->subsys_device) {
default_mode = p->default_mode;
}
++p;
}
 
if (radeon_agpmode > 0) {
if ((radeon_agpmode < (is_v3 ? 4 : 1)) ||
(radeon_agpmode > (is_v3 ? 8 : 4)) ||
(radeon_agpmode & (radeon_agpmode - 1))) {
DRM_ERROR("Illegal AGP Mode: %d (valid %s), leaving at %d\n",
radeon_agpmode, is_v3 ? "4, 8" : "1, 2, 4",
default_mode);
radeon_agpmode = default_mode;
} else {
DRM_INFO("AGP mode requested: %d\n", radeon_agpmode);
}
} else {
radeon_agpmode = default_mode;
}
 
mode.mode &= ~RADEON_AGP_MODE_MASK;
if (is_v3) {
switch (radeon_agpmode) {
case 8:
mode.mode |= RADEON_AGPv3_8X_MODE;
break;
case 4:
default:
mode.mode |= RADEON_AGPv3_4X_MODE;
break;
}
} else {
switch (radeon_agpmode) {
case 4:
mode.mode |= RADEON_AGP_4X_MODE;
break;
case 2:
mode.mode |= RADEON_AGP_2X_MODE;
break;
case 1:
default:
mode.mode |= RADEON_AGP_1X_MODE;
break;
}
}
 
mode.mode &= ~RADEON_AGP_FW_MODE; /* disable fw */
ret = drm_agp_enable(rdev->ddev, mode);
if (ret) {
DRM_ERROR("Unable to enable AGP (mode = 0x%lx)\n", mode.mode);
return ret;
}
 
rdev->mc.agp_base = rdev->ddev->agp->agp_info.aper_base;
rdev->mc.gtt_size = rdev->ddev->agp->agp_info.aper_size << 20;
 
/* workaround some hw issues */
if (rdev->family < CHIP_R200) {
WREG32(RADEON_AGP_CNTL, RREG32(RADEON_AGP_CNTL) | 0x000e0000);
}
return 0;
#else
return 0;
#endif
}
 
 
 
 
void rv370_pcie_gart_tlb_flush(struct radeon_device *rdev);
 
 
 
 
int radeon_fence_driver_init(struct radeon_device *rdev)
{
unsigned long irq_flags;
int r;
 
// write_lock_irqsave(&rdev->fence_drv.lock, irq_flags);
r = radeon_scratch_get(rdev, &rdev->fence_drv.scratch_reg);
if (r) {
DRM_ERROR("Fence failed to get a scratch register.");
// write_unlock_irqrestore(&rdev->fence_drv.lock, irq_flags);
return r;
}
WREG32(rdev->fence_drv.scratch_reg, 0);
// atomic_set(&rdev->fence_drv.seq, 0);
// INIT_LIST_HEAD(&rdev->fence_drv.created);
// INIT_LIST_HEAD(&rdev->fence_drv.emited);
// INIT_LIST_HEAD(&rdev->fence_drv.signaled);
rdev->fence_drv.count_timeout = 0;
// init_waitqueue_head(&rdev->fence_drv.queue);
// write_unlock_irqrestore(&rdev->fence_drv.lock, irq_flags);
// if (radeon_debugfs_fence_init(rdev)) {
// DRM_ERROR("Failed to register debugfs file for fence !\n");
// }
return 0;
}
 
 
/drivers/video/drm/radeon/radeon_bios.c
35,7 → 35,7
*/
static bool radeon_read_bios(struct radeon_device *rdev)
{
uint8_t __iomem *bios;
uint8_t *bios;
size_t size;
 
rdev->bios = NULL;
48,7 → 48,7
// pci_unmap_rom(rdev->pdev, bios);
return false;
}
rdev->bios = kmalloc(size, GFP_KERNEL);
rdev->bios = malloc(size);
if (rdev->bios == NULL) {
// pci_unmap_rom(rdev->pdev, bios);
return false;
58,6 → 58,7
return true;
}
 
 
static bool r700_read_disabled_bios(struct radeon_device *rdev)
{
uint32_t viph_control;
351,11 → 352,14
return legacy_read_disabled_bios(rdev);
}
 
 
bool radeon_get_bios(struct radeon_device *rdev)
{
bool r;
uint16_t tmp;
 
dbgprintf("%s\n\r",__FUNCTION__);
 
r = radeon_read_bios(rdev);
if (r == false) {
r = radeon_read_disabled_bios(rdev);
381,7 → 385,7
rdev->is_atom_bios = false;
}
 
DRM_DEBUG("%sBIOS detected\n", rdev->is_atom_bios ? "ATOM" : "COM");
dbgprintf("%sBIOS detected\n", rdev->is_atom_bios ? "ATOM" : "COM");
return true;
free_bios:
kfree(rdev->bios);
/drivers/video/drm/radeon/radeon_connectors.c
28,7 → 28,6
#include "drm_crtc_helper.h"
#include "radeon_drm.h"
#include "radeon.h"
#include "atom.h"
 
extern void
radeon_combios_connected_scratch_regs(struct drm_connector *connector,
39,15 → 38,6
struct drm_encoder *encoder,
bool connected);
 
static void radeon_property_change_mode(struct drm_encoder *encoder)
{
struct drm_crtc *crtc = encoder->crtc;
 
if (crtc && crtc->enabled) {
drm_crtc_helper_set_mode(crtc, &crtc->mode,
crtc->x, crtc->y, crtc->fb);
}
}
static void
radeon_connector_update_scratch_regs(struct drm_connector *connector, enum drm_connector_status status)
{
87,27 → 77,6
}
}
 
struct drm_encoder *radeon_find_encoder(struct drm_connector *connector, int encoder_type)
{
struct drm_mode_object *obj;
struct drm_encoder *encoder;
int i;
 
for (i = 0; i < DRM_CONNECTOR_MAX_ENCODER; i++) {
if (connector->encoder_ids[i] == 0)
break;
 
obj = drm_mode_object_find(connector->dev, connector->encoder_ids[i], DRM_MODE_OBJECT_ENCODER);
if (!obj)
continue;
 
encoder = obj_to_encoder(obj);
if (encoder->encoder_type == encoder_type)
return encoder;
}
return NULL;
}
 
struct drm_encoder *radeon_best_single_encoder(struct drm_connector *connector)
{
int enc_id = connector->encoder_ids[0];
114,6 → 83,8
struct drm_mode_object *obj;
struct drm_encoder *encoder;
 
ENTRY();
 
/* pick the encoder ids */
if (enc_id) {
obj = drm_mode_object_find(connector->dev, enc_id, DRM_MODE_OBJECT_ENCODER);
125,53 → 96,6
return NULL;
}
 
/*
* radeon_connector_analog_encoder_conflict_solve
* - search for other connectors sharing this encoder
* if priority is true, then set them disconnected if this is connected
* if priority is false, set us disconnected if they are connected
*/
static enum drm_connector_status
radeon_connector_analog_encoder_conflict_solve(struct drm_connector *connector,
struct drm_encoder *encoder,
enum drm_connector_status current_status,
bool priority)
{
struct drm_device *dev = connector->dev;
struct drm_connector *conflict;
int i;
 
list_for_each_entry(conflict, &dev->mode_config.connector_list, head) {
if (conflict == connector)
continue;
 
for (i = 0; i < DRM_CONNECTOR_MAX_ENCODER; i++) {
if (conflict->encoder_ids[i] == 0)
break;
 
/* if the IDs match */
if (conflict->encoder_ids[i] == encoder->base.id) {
if (conflict->status != connector_status_connected)
continue;
 
if (priority == true) {
DRM_INFO("1: conflicting encoders switching off %s\n", drm_get_connector_name(conflict));
DRM_INFO("in favor of %s\n", drm_get_connector_name(connector));
conflict->status = connector_status_disconnected;
radeon_connector_update_scratch_regs(conflict, connector_status_disconnected);
} else {
DRM_INFO("2: conflicting encoders switching off %s\n", drm_get_connector_name(connector));
DRM_INFO("in favor of %s\n", drm_get_connector_name(conflict));
current_status = connector_status_disconnected;
}
break;
}
}
}
return current_status;
 
}
 
static struct drm_display_mode *radeon_fp_native_mode(struct drm_encoder *encoder)
{
struct drm_device *dev = encoder->dev;
204,172 → 128,13
return mode;
}
 
static void radeon_add_common_modes(struct drm_encoder *encoder, struct drm_connector *connector)
{
struct drm_device *dev = encoder->dev;
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
struct drm_display_mode *mode = NULL;
struct radeon_native_mode *native_mode = &radeon_encoder->native_mode;
int i;
struct mode_size {
int w;
int h;
} common_modes[17] = {
{ 640, 480},
{ 720, 480},
{ 800, 600},
{ 848, 480},
{1024, 768},
{1152, 768},
{1280, 720},
{1280, 800},
{1280, 854},
{1280, 960},
{1280, 1024},
{1440, 900},
{1400, 1050},
{1680, 1050},
{1600, 1200},
{1920, 1080},
{1920, 1200}
};
 
for (i = 0; i < 17; i++) {
if (radeon_encoder->devices & (ATOM_DEVICE_LCD_SUPPORT)) {
if (common_modes[i].w > native_mode->panel_xres ||
common_modes[i].h > native_mode->panel_yres ||
(common_modes[i].w == native_mode->panel_xres &&
common_modes[i].h == native_mode->panel_yres))
continue;
}
if (common_modes[i].w < 320 || common_modes[i].h < 200)
continue;
 
mode = drm_cvt_mode(dev, common_modes[i].w, common_modes[i].h, 60, false, false);
drm_mode_probed_add(connector, mode);
}
}
 
int radeon_connector_set_property(struct drm_connector *connector, struct drm_property *property,
uint64_t val)
{
struct drm_device *dev = connector->dev;
struct radeon_device *rdev = dev->dev_private;
struct drm_encoder *encoder;
struct radeon_encoder *radeon_encoder;
 
if (property == rdev->mode_info.coherent_mode_property) {
struct radeon_encoder_atom_dig *dig;
 
/* need to find digital encoder on connector */
encoder = radeon_find_encoder(connector, DRM_MODE_ENCODER_TMDS);
if (!encoder)
return 0;
 
radeon_encoder = to_radeon_encoder(encoder);
 
if (!radeon_encoder->enc_priv)
return 0;
 
dig = radeon_encoder->enc_priv;
dig->coherent_mode = val ? true : false;
radeon_property_change_mode(&radeon_encoder->base);
}
 
if (property == rdev->mode_info.tv_std_property) {
encoder = radeon_find_encoder(connector, DRM_MODE_ENCODER_TVDAC);
if (!encoder) {
encoder = radeon_find_encoder(connector, DRM_MODE_ENCODER_DAC);
}
 
if (!encoder)
return 0;
 
radeon_encoder = to_radeon_encoder(encoder);
if (!radeon_encoder->enc_priv)
return 0;
if (rdev->is_atom_bios) {
struct radeon_encoder_atom_dac *dac_int;
dac_int = radeon_encoder->enc_priv;
dac_int->tv_std = val;
} else {
struct radeon_encoder_tv_dac *dac_int;
dac_int = radeon_encoder->enc_priv;
dac_int->tv_std = val;
}
radeon_property_change_mode(&radeon_encoder->base);
}
 
if (property == rdev->mode_info.load_detect_property) {
struct radeon_connector *radeon_connector =
to_radeon_connector(connector);
 
if (val == 0)
radeon_connector->dac_load_detect = false;
else
radeon_connector->dac_load_detect = true;
}
 
if (property == rdev->mode_info.tmds_pll_property) {
struct radeon_encoder_int_tmds *tmds = NULL;
bool ret = false;
/* need to find digital encoder on connector */
encoder = radeon_find_encoder(connector, DRM_MODE_ENCODER_TMDS);
if (!encoder)
return 0;
 
radeon_encoder = to_radeon_encoder(encoder);
 
tmds = radeon_encoder->enc_priv;
if (!tmds)
return 0;
 
if (val == 0) {
if (rdev->is_atom_bios)
ret = radeon_atombios_get_tmds_info(radeon_encoder, tmds);
else
ret = radeon_legacy_get_tmds_info_from_combios(radeon_encoder, tmds);
}
if (val == 1 || ret == false) {
radeon_legacy_get_tmds_info_from_table(radeon_encoder, tmds);
}
radeon_property_change_mode(&radeon_encoder->base);
}
 
return 0;
}
 
static void radeon_fixup_lvds_native_mode(struct drm_encoder *encoder,
struct drm_connector *connector)
{
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
struct radeon_native_mode *native_mode = &radeon_encoder->native_mode;
 
/* Try to get native mode details from EDID if necessary */
if (!native_mode->dotclock) {
struct drm_display_mode *t, *mode;
 
list_for_each_entry_safe(mode, t, &connector->probed_modes, head) {
if (mode->hdisplay == native_mode->panel_xres &&
mode->vdisplay == native_mode->panel_yres) {
native_mode->hblank = mode->htotal - mode->hdisplay;
native_mode->hoverplus = mode->hsync_start - mode->hdisplay;
native_mode->hsync_width = mode->hsync_end - mode->hsync_start;
native_mode->vblank = mode->vtotal - mode->vdisplay;
native_mode->voverplus = mode->vsync_start - mode->vdisplay;
native_mode->vsync_width = mode->vsync_end - mode->vsync_start;
native_mode->dotclock = mode->clock;
DRM_INFO("Determined LVDS native mode details from EDID\n");
break;
}
}
}
if (!native_mode->dotclock) {
DRM_INFO("No LVDS native mode details, disabling RMX\n");
radeon_encoder->rmx_type = RMX_OFF;
}
}
 
static int radeon_lvds_get_modes(struct drm_connector *connector)
{
struct radeon_connector *radeon_connector = to_radeon_connector(connector);
380,12 → 145,6
if (radeon_connector->ddc_bus) {
ret = radeon_ddc_get_modes(radeon_connector);
if (ret > 0) {
encoder = radeon_best_single_encoder(connector);
if (encoder) {
radeon_fixup_lvds_native_mode(encoder, connector);
/* add scaled modes */
radeon_add_common_modes(encoder, connector);
}
return ret;
}
}
399,10 → 158,7
if (mode) {
ret = 1;
drm_mode_probed_add(connector, mode);
/* add scaled modes */
radeon_add_common_modes(encoder, connector);
}
 
return ret;
}
 
432,42 → 188,6
kfree(connector);
}
 
static int radeon_lvds_set_property(struct drm_connector *connector,
struct drm_property *property,
uint64_t value)
{
struct drm_device *dev = connector->dev;
struct radeon_encoder *radeon_encoder;
enum radeon_rmx_type rmx_type;
 
DRM_DEBUG("\n");
if (property != dev->mode_config.scaling_mode_property)
return 0;
 
if (connector->encoder)
radeon_encoder = to_radeon_encoder(connector->encoder);
else {
struct drm_connector_helper_funcs *connector_funcs = connector->helper_private;
radeon_encoder = to_radeon_encoder(connector_funcs->best_encoder(connector));
}
 
switch (value) {
case DRM_MODE_SCALE_NONE: rmx_type = RMX_OFF; break;
case DRM_MODE_SCALE_CENTER: rmx_type = RMX_CENTER; break;
case DRM_MODE_SCALE_ASPECT: rmx_type = RMX_ASPECT; break;
default:
case DRM_MODE_SCALE_FULLSCREEN: rmx_type = RMX_FULL; break;
}
if (radeon_encoder->rmx_type == rmx_type)
return 0;
 
radeon_encoder->rmx_type = rmx_type;
 
radeon_property_change_mode(&radeon_encoder->base);
return 0;
}
 
 
struct drm_connector_helper_funcs radeon_lvds_connector_helper_funcs = {
.get_modes = radeon_lvds_get_modes,
.mode_valid = radeon_lvds_mode_valid,
479,7 → 199,7
.detect = radeon_lvds_detect,
.fill_modes = drm_helper_probe_single_connector_modes,
.destroy = radeon_connector_destroy,
.set_property = radeon_lvds_set_property,
.set_property = radeon_connector_set_property,
};
 
static int radeon_vga_get_modes(struct drm_connector *connector)
495,6 → 215,7
static int radeon_vga_mode_valid(struct drm_connector *connector,
struct drm_display_mode *mode)
{
 
return MODE_OK;
}
 
506,10 → 227,6
bool dret;
enum drm_connector_status ret = connector_status_disconnected;
 
encoder = radeon_best_single_encoder(connector);
if (!encoder)
ret = connector_status_disconnected;
 
radeon_i2c_do_lock(radeon_connector, 1);
dret = radeon_ddc_probe(radeon_connector);
radeon_i2c_do_lock(radeon_connector, 0);
516,14 → 233,16
if (dret)
ret = connector_status_connected;
else {
if (radeon_connector->dac_load_detect) {
/* if EDID fails to a load detect */
encoder = radeon_best_single_encoder(connector);
if (!encoder)
ret = connector_status_disconnected;
else {
encoder_funcs = encoder->helper_private;
ret = encoder_funcs->detect(encoder, connector);
}
}
 
if (ret == connector_status_connected)
ret = radeon_connector_analog_encoder_conflict_solve(connector, encoder, ret, true);
radeon_connector_update_scratch_regs(connector, ret);
return ret;
}
542,73 → 261,6
.set_property = radeon_connector_set_property,
};
 
static int radeon_tv_get_modes(struct drm_connector *connector)
{
struct drm_device *dev = connector->dev;
struct radeon_device *rdev = dev->dev_private;
struct drm_display_mode *tv_mode;
struct drm_encoder *encoder;
 
encoder = radeon_best_single_encoder(connector);
if (!encoder)
return 0;
 
/* avivo chips can scale any mode */
if (rdev->family >= CHIP_RS600)
/* add scaled modes */
radeon_add_common_modes(encoder, connector);
else {
/* only 800x600 is supported right now on pre-avivo chips */
tv_mode = drm_cvt_mode(dev, 800, 600, 60, false, false);
tv_mode->type = DRM_MODE_TYPE_DRIVER | DRM_MODE_TYPE_PREFERRED;
drm_mode_probed_add(connector, tv_mode);
}
return 1;
}
 
static int radeon_tv_mode_valid(struct drm_connector *connector,
struct drm_display_mode *mode)
{
return MODE_OK;
}
 
static enum drm_connector_status radeon_tv_detect(struct drm_connector *connector)
{
struct drm_encoder *encoder;
struct drm_encoder_helper_funcs *encoder_funcs;
struct radeon_connector *radeon_connector = to_radeon_connector(connector);
enum drm_connector_status ret = connector_status_disconnected;
 
if (!radeon_connector->dac_load_detect)
return ret;
 
encoder = radeon_best_single_encoder(connector);
if (!encoder)
ret = connector_status_disconnected;
else {
encoder_funcs = encoder->helper_private;
ret = encoder_funcs->detect(encoder, connector);
}
if (ret == connector_status_connected)
ret = radeon_connector_analog_encoder_conflict_solve(connector, encoder, ret, false);
radeon_connector_update_scratch_regs(connector, ret);
return ret;
}
 
struct drm_connector_helper_funcs radeon_tv_connector_helper_funcs = {
.get_modes = radeon_tv_get_modes,
.mode_valid = radeon_tv_mode_valid,
.best_encoder = radeon_best_single_encoder,
};
 
struct drm_connector_funcs radeon_tv_connector_funcs = {
.dpms = drm_helper_connector_dpms,
.detect = radeon_tv_detect,
.fill_modes = drm_helper_probe_single_connector_modes,
.destroy = radeon_connector_destroy,
.set_property = radeon_connector_set_property,
};
 
static int radeon_dvi_get_modes(struct drm_connector *connector)
{
struct radeon_connector *radeon_connector = to_radeon_connector(connector);
615,24 → 267,15
int ret;
 
ret = radeon_ddc_get_modes(radeon_connector);
/* reset scratch regs here since radeon_dvi_detect doesn't check digital bit */
radeon_connector_update_scratch_regs(connector, connector_status_connected);
return ret;
}
 
/*
* DVI is complicated
* Do a DDC probe, if DDC probe passes, get the full EDID so
* we can do analog/digital monitor detection at this point.
* If the monitor is an analog monitor or we got no DDC,
* we need to find the DAC encoder object for this connector.
* If we got no DDC, we do load detection on the DAC encoder object.
* If we got analog DDC or load detection passes on the DAC encoder
* we have to check if this analog encoder is shared with anyone else (TV)
* if its shared we have to set the other connector to disconnected.
*/
static enum drm_connector_status radeon_dvi_detect(struct drm_connector *connector)
{
struct radeon_connector *radeon_connector = to_radeon_connector(connector);
struct drm_encoder *encoder = NULL;
struct drm_encoder *encoder;
struct drm_encoder_helper_funcs *encoder_funcs;
struct drm_mode_object *obj;
int i;
642,29 → 285,9
radeon_i2c_do_lock(radeon_connector, 1);
dret = radeon_ddc_probe(radeon_connector);
radeon_i2c_do_lock(radeon_connector, 0);
if (dret) {
radeon_i2c_do_lock(radeon_connector, 1);
radeon_connector->edid = drm_get_edid(&radeon_connector->base, &radeon_connector->ddc_bus->adapter);
radeon_i2c_do_lock(radeon_connector, 0);
 
if (!radeon_connector->edid) {
DRM_ERROR("DDC responded but not EDID found for %s\n",
drm_get_connector_name(connector));
} else {
radeon_connector->use_digital = !!(radeon_connector->edid->input & DRM_EDID_INPUT_DIGITAL);
 
/* if this isn't a digital monitor
then we need to make sure we don't have any
TV conflicts */
if (dret)
ret = connector_status_connected;
}
}
 
if ((ret == connector_status_connected) && (radeon_connector->use_digital == true))
goto out;
 
/* find analog encoder */
if (radeon_connector->dac_load_detect) {
else {
for (i = 0; i < DRM_CONNECTOR_MAX_ENCODER; i++) {
if (connector->encoder_ids[i] == 0)
break;
679,23 → 302,15
 
encoder_funcs = encoder->helper_private;
if (encoder_funcs->detect) {
if (ret != connector_status_connected) {
ret = encoder_funcs->detect(encoder, connector);
if (ret == connector_status_connected) {
radeon_connector->use_digital = false;
}
}
radeon_connector->use_digital = 0;
break;
}
}
}
 
if ((ret == connector_status_connected) && (radeon_connector->use_digital == false) &&
encoder) {
ret = radeon_connector_analog_encoder_conflict_solve(connector, encoder, ret, true);
}
 
out:
/* updated in get modes as well since we need to know if it's analog or digital */
radeon_connector_update_scratch_regs(connector, ret);
return ret;
709,6 → 324,9
struct drm_mode_object *obj;
struct drm_encoder *encoder;
int i;
 
ENTRY();
 
for (i = 0; i < DRM_CONNECTOR_MAX_ENCODER; i++) {
if (connector->encoder_ids[i] == 0)
break;
719,7 → 337,7
 
encoder = obj_to_encoder(obj);
 
if (radeon_connector->use_digital == true) {
if (radeon_connector->use_digital) {
if (encoder->encoder_type == DRM_MODE_ENCODER_TMDS)
return encoder;
} else {
766,7 → 384,6
bool linkb,
uint32_t igp_lane_info)
{
struct radeon_device *rdev = dev->dev_private;
struct drm_connector *connector;
struct radeon_connector *radeon_connector;
struct radeon_connector_atom_dig *radeon_dig_connector;
773,7 → 390,10
uint32_t subpixel_order = SubPixelNone;
 
/* fixme - tv/cv/din */
if (connector_type == DRM_MODE_CONNECTOR_Unknown)
if ((connector_type == DRM_MODE_CONNECTOR_Unknown) ||
(connector_type == DRM_MODE_CONNECTOR_SVIDEO) ||
(connector_type == DRM_MODE_CONNECTOR_Composite) ||
(connector_type == DRM_MODE_CONNECTOR_9PinDIN))
return;
 
/* see if we already added it */
802,9 → 422,6
if (!radeon_connector->ddc_bus)
goto failed;
}
drm_connector_attach_property(&radeon_connector->base,
rdev->mode_info.load_detect_property,
1);
break;
case DRM_MODE_CONNECTOR_DVIA:
drm_connector_init(dev, &radeon_connector->base, &radeon_vga_connector_funcs, connector_type);
814,9 → 431,6
if (!radeon_connector->ddc_bus)
goto failed;
}
drm_connector_attach_property(&radeon_connector->base,
rdev->mode_info.load_detect_property,
1);
break;
case DRM_MODE_CONNECTOR_DVII:
case DRM_MODE_CONNECTOR_DVID:
834,12 → 448,6
goto failed;
}
subpixel_order = SubPixelHorizontalRGB;
drm_connector_attach_property(&radeon_connector->base,
rdev->mode_info.coherent_mode_property,
1);
drm_connector_attach_property(&radeon_connector->base,
rdev->mode_info.load_detect_property,
1);
break;
case DRM_MODE_CONNECTOR_HDMIA:
case DRM_MODE_CONNECTOR_HDMIB:
856,9 → 464,6
if (!radeon_connector->ddc_bus)
goto failed;
}
drm_connector_attach_property(&radeon_connector->base,
rdev->mode_info.coherent_mode_property,
1);
subpixel_order = SubPixelHorizontalRGB;
break;
case DRM_MODE_CONNECTOR_DisplayPort:
880,13 → 485,6
case DRM_MODE_CONNECTOR_SVIDEO:
case DRM_MODE_CONNECTOR_Composite:
case DRM_MODE_CONNECTOR_9PinDIN:
if (radeon_tv == 1) {
drm_connector_init(dev, &radeon_connector->base, &radeon_tv_connector_funcs, connector_type);
drm_connector_helper_add(&radeon_connector->base, &radeon_tv_connector_helper_funcs);
}
drm_connector_attach_property(&radeon_connector->base,
rdev->mode_info.load_detect_property,
1);
break;
case DRM_MODE_CONNECTOR_LVDS:
radeon_dig_connector = kzalloc(sizeof(struct radeon_connector_atom_dig), GFP_KERNEL);
902,10 → 500,6
if (!radeon_connector->ddc_bus)
goto failed;
}
drm_mode_create_scaling_mode_property(dev);
drm_connector_attach_property(&radeon_connector->base,
dev->mode_config.scaling_mode_property,
DRM_MODE_SCALE_FULLSCREEN);
subpixel_order = SubPixelHorizontalRGB;
break;
}
928,13 → 522,15
int connector_type,
struct radeon_i2c_bus_rec *i2c_bus)
{
struct radeon_device *rdev = dev->dev_private;
struct drm_connector *connector;
struct radeon_connector *radeon_connector;
uint32_t subpixel_order = SubPixelNone;
 
/* fixme - tv/cv/din */
if (connector_type == DRM_MODE_CONNECTOR_Unknown)
if ((connector_type == DRM_MODE_CONNECTOR_Unknown) ||
(connector_type == DRM_MODE_CONNECTOR_SVIDEO) ||
(connector_type == DRM_MODE_CONNECTOR_Composite) ||
(connector_type == DRM_MODE_CONNECTOR_9PinDIN))
return;
 
/* see if we already added it */
963,9 → 559,6
if (!radeon_connector->ddc_bus)
goto failed;
}
drm_connector_attach_property(&radeon_connector->base,
rdev->mode_info.load_detect_property,
1);
break;
case DRM_MODE_CONNECTOR_DVIA:
drm_connector_init(dev, &radeon_connector->base, &radeon_vga_connector_funcs, connector_type);
975,9 → 568,6
if (!radeon_connector->ddc_bus)
goto failed;
}
drm_connector_attach_property(&radeon_connector->base,
rdev->mode_info.load_detect_property,
1);
break;
case DRM_MODE_CONNECTOR_DVII:
case DRM_MODE_CONNECTOR_DVID:
987,9 → 577,6
radeon_connector->ddc_bus = radeon_i2c_create(dev, i2c_bus, "DVI");
if (!radeon_connector->ddc_bus)
goto failed;
drm_connector_attach_property(&radeon_connector->base,
rdev->mode_info.load_detect_property,
1);
}
subpixel_order = SubPixelHorizontalRGB;
break;
996,13 → 583,6
case DRM_MODE_CONNECTOR_SVIDEO:
case DRM_MODE_CONNECTOR_Composite:
case DRM_MODE_CONNECTOR_9PinDIN:
if (radeon_tv == 1) {
drm_connector_init(dev, &radeon_connector->base, &radeon_tv_connector_funcs, connector_type);
drm_connector_helper_add(&radeon_connector->base, &radeon_tv_connector_helper_funcs);
drm_connector_attach_property(&radeon_connector->base,
rdev->mode_info.load_detect_property,
1);
}
break;
case DRM_MODE_CONNECTOR_LVDS:
drm_connector_init(dev, &radeon_connector->base, &radeon_lvds_connector_funcs, connector_type);
1012,9 → 592,6
if (!radeon_connector->ddc_bus)
goto failed;
}
drm_connector_attach_property(&radeon_connector->base,
dev->mode_config.scaling_mode_property,
DRM_MODE_SCALE_FULLSCREEN);
subpixel_order = SubPixelHorizontalRGB;
break;
}
/drivers/video/drm/radeon/radeon_device.c
27,8 → 27,8
*/
//#include <linux/console.h>
 
#include <drm/drmP.h>
#include <drm/drm_crtc_helper.h>
#include <drmP.h>
#include <drm_crtc_helper.h>
#include "radeon_drm.h"
#include "radeon_reg.h"
#include "radeon.h"
43,15 → 43,14
int radeon_gart_size = 512; /* default gart size */
int radeon_benchmarking = 0;
int radeon_connector_table = 0;
int radeon_tv = 1;
 
 
/*
* Clear GPU surface registers.
*/
void radeon_surface_init(struct radeon_device *rdev)
static void radeon_surface_init(struct radeon_device *rdev)
{
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
/* FIXME: check this out */
if (rdev->family < CHIP_R600) {
62,8 → 61,6
i * (RADEON_SURFACE1_INFO - RADEON_SURFACE0_INFO),
0);
}
/* enable surfaces */
WREG32(RADEON_SURFACE_CNTL, 0);
}
}
 
70,7 → 67,7
/*
* GPU scratch registers helpers function.
*/
void radeon_scratch_init(struct radeon_device *rdev)
static void radeon_scratch_init(struct radeon_device *rdev)
{
int i;
 
135,7 → 132,7
if (rdev->mc.vram_location != 0xFFFFFFFFUL) {
/* vram location was already setup try to put gtt after
* if it fits */
tmp = rdev->mc.vram_location + rdev->mc.mc_vram_size;
tmp = rdev->mc.vram_location + rdev->mc.vram_size;
tmp = (tmp + rdev->mc.gtt_size - 1) & ~(rdev->mc.gtt_size - 1);
if ((0xFFFFFFFFUL - tmp) >= rdev->mc.gtt_size) {
rdev->mc.gtt_location = tmp;
150,13 → 147,13
} else if (rdev->mc.gtt_location != 0xFFFFFFFFUL) {
/* gtt location was already setup try to put vram before
* if it fits */
if (rdev->mc.mc_vram_size < rdev->mc.gtt_location) {
if (rdev->mc.vram_size < rdev->mc.gtt_location) {
rdev->mc.vram_location = 0;
} else {
tmp = rdev->mc.gtt_location + rdev->mc.gtt_size;
tmp += (rdev->mc.mc_vram_size - 1);
tmp &= ~(rdev->mc.mc_vram_size - 1);
if ((0xFFFFFFFFUL - tmp) >= rdev->mc.mc_vram_size) {
tmp += (rdev->mc.vram_size - 1);
tmp &= ~(rdev->mc.vram_size - 1);
if ((0xFFFFFFFFUL - tmp) >= rdev->mc.vram_size) {
rdev->mc.vram_location = tmp;
} else {
printk(KERN_ERR "[drm] vram too big to fit "
166,22 → 163,16
}
} else {
rdev->mc.vram_location = 0;
tmp = rdev->mc.mc_vram_size;
tmp = (tmp + rdev->mc.gtt_size - 1) & ~(rdev->mc.gtt_size - 1);
rdev->mc.gtt_location = tmp;
rdev->mc.gtt_location = rdev->mc.vram_size;
}
rdev->mc.vram_start = rdev->mc.vram_location;
rdev->mc.vram_end = rdev->mc.vram_location + rdev->mc.mc_vram_size - 1;
rdev->mc.gtt_start = rdev->mc.gtt_location;
rdev->mc.gtt_end = rdev->mc.gtt_location + rdev->mc.gtt_size - 1;
DRM_INFO("radeon: VRAM %uM\n", (unsigned)(rdev->mc.mc_vram_size >> 20));
DRM_INFO("radeon: VRAM %uM\n", rdev->mc.vram_size >> 20);
DRM_INFO("radeon: VRAM from 0x%08X to 0x%08X\n",
(unsigned)rdev->mc.vram_location,
(unsigned)(rdev->mc.vram_location + rdev->mc.mc_vram_size - 1));
DRM_INFO("radeon: GTT %uM\n", (unsigned)(rdev->mc.gtt_size >> 20));
rdev->mc.vram_location,
rdev->mc.vram_location + rdev->mc.vram_size - 1);
DRM_INFO("radeon: GTT %uM\n", rdev->mc.gtt_size >> 20);
DRM_INFO("radeon: GTT from 0x%08X to 0x%08X\n",
(unsigned)rdev->mc.gtt_location,
(unsigned)(rdev->mc.gtt_location + rdev->mc.gtt_size - 1));
rdev->mc.gtt_location,
rdev->mc.gtt_location + rdev->mc.gtt_size - 1);
return 0;
}
 
189,11 → 180,11
/*
* GPU helpers function.
*/
bool radeon_card_posted(struct radeon_device *rdev)
static bool radeon_card_posted(struct radeon_device *rdev)
{
uint32_t reg;
 
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
/* first check CRTCs */
if (ASIC_IS_AVIVO(rdev)) {
243,28 → 234,34
 
void radeon_register_accessor_init(struct radeon_device *rdev)
{
 
dbgprintf("%s\n",__FUNCTION__);
 
rdev->mm_rreg = &r100_mm_rreg;
rdev->mm_wreg = &r100_mm_wreg;
rdev->mc_rreg = &radeon_invalid_rreg;
rdev->mc_wreg = &radeon_invalid_wreg;
rdev->pll_rreg = &radeon_invalid_rreg;
rdev->pll_wreg = &radeon_invalid_wreg;
rdev->pcie_rreg = &radeon_invalid_rreg;
rdev->pcie_wreg = &radeon_invalid_wreg;
rdev->pciep_rreg = &radeon_invalid_rreg;
rdev->pciep_wreg = &radeon_invalid_wreg;
 
/* Don't change order as we are overridding accessor. */
if (rdev->family < CHIP_RV515) {
rdev->pcie_reg_mask = 0xff;
} else {
rdev->pcie_reg_mask = 0x7ff;
rdev->pcie_rreg = &rv370_pcie_rreg;
rdev->pcie_wreg = &rv370_pcie_wreg;
}
if (rdev->family >= CHIP_RV515) {
rdev->pcie_rreg = &rv515_pcie_rreg;
rdev->pcie_wreg = &rv515_pcie_wreg;
}
/* FIXME: not sure here */
if (rdev->family <= CHIP_R580) {
rdev->pll_rreg = &r100_pll_rreg;
rdev->pll_wreg = &r100_pll_wreg;
}
if (rdev->family >= CHIP_R420) {
rdev->mc_rreg = &r420_mc_rreg;
rdev->mc_wreg = &r420_mc_wreg;
}
if (rdev->family >= CHIP_RV515) {
rdev->mc_rreg = &rv515_mc_rreg;
rdev->mc_wreg = &rv515_mc_wreg;
273,19 → 270,19
rdev->mc_rreg = &rs400_mc_rreg;
rdev->mc_wreg = &rs400_mc_wreg;
}
// if (rdev->family == CHIP_RS690 || rdev->family == CHIP_RS740) {
// rdev->mc_rreg = &rs690_mc_rreg;
// rdev->mc_wreg = &rs690_mc_wreg;
// }
// if (rdev->family == CHIP_RS600) {
// rdev->mc_rreg = &rs600_mc_rreg;
// rdev->mc_wreg = &rs600_mc_wreg;
// }
// if (rdev->family >= CHIP_R600) {
// rdev->pciep_rreg = &r600_pciep_rreg;
// rdev->pciep_wreg = &r600_pciep_wreg;
// }
if (rdev->family == CHIP_RS690 || rdev->family == CHIP_RS740) {
rdev->mc_rreg = &rs690_mc_rreg;
rdev->mc_wreg = &rs690_mc_wreg;
}
if (rdev->family == CHIP_RS600) {
rdev->mc_rreg = &rs600_mc_rreg;
rdev->mc_wreg = &rs600_mc_wreg;
}
if (rdev->family >= CHIP_R600) {
rdev->pciep_rreg = &r600_pciep_rreg;
rdev->pciep_wreg = &r600_pciep_wreg;
}
}
 
 
/*
293,6 → 290,9
*/
int radeon_asic_init(struct radeon_device *rdev)
{
 
dbgprintf("%s\n",__FUNCTION__);
 
radeon_register_accessor_init(rdev);
switch (rdev->family) {
case CHIP_R100:
311,14 → 311,6
case CHIP_RV350:
case CHIP_RV380:
rdev->asic = &r300_asic;
if (rdev->flags & RADEON_IS_PCIE) {
rdev->asic->gart_init = &rv370_pcie_gart_init;
rdev->asic->gart_fini = &rv370_pcie_gart_fini;
rdev->asic->gart_enable = &rv370_pcie_gart_enable;
rdev->asic->gart_disable = &rv370_pcie_gart_disable;
rdev->asic->gart_tlb_flush = &rv370_pcie_gart_tlb_flush;
rdev->asic->gart_set_page = &rv370_pcie_gart_set_page;
}
break;
case CHIP_R420:
case CHIP_R423:
330,11 → 322,11
rdev->asic = &rs400_asic;
break;
case CHIP_RS600:
// rdev->asic = &rs600_asic;
rdev->asic = &rs600_asic;
break;
case CHIP_RS690:
case CHIP_RS740:
// rdev->asic = &rs690_asic;
rdev->asic = &rs690_asic;
break;
case CHIP_RV515:
rdev->asic = &rv515_asic;
371,8 → 363,9
{
int r;
 
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
radeon_get_clock_info(rdev->ddev);
r = radeon_static_clocks_init(rdev->ddev);
if (r) {
return r;
446,7 → 439,7
 
int radeon_atombios_init(struct radeon_device *rdev)
{
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
atom_card_info.dev = rdev->ddev;
rdev->mode_info.atom_context = atom_parse(&atom_card_info, rdev->bios);
472,7 → 465,6
int radeon_modeset_init(struct radeon_device *rdev);
void radeon_modeset_fini(struct radeon_device *rdev);
 
 
/*
* Radeon device.
*/
482,9 → 474,8
uint32_t flags)
{
int r, ret;
int dma_bits;
 
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
DRM_INFO("radeon: Initializing kernel modesetting.\n");
rdev->shutdown = false;
503,53 → 494,35
// mutex_init(&rdev->cp.mutex);
// rwlock_init(&rdev->fence_drv.lock);
 
/* Set asic functions */
r = radeon_asic_init(rdev);
if (r) {
return r;
}
 
if (radeon_agpmode == -1) {
rdev->flags &= ~RADEON_IS_AGP;
if (rdev->family >= CHIP_RV515 ||
if (rdev->family > CHIP_RV515 ||
rdev->family == CHIP_RV380 ||
rdev->family == CHIP_RV410 ||
rdev->family == CHIP_R423) {
DRM_INFO("Forcing AGP to PCIE mode\n");
rdev->flags |= RADEON_IS_PCIE;
rdev->asic->gart_init = &rv370_pcie_gart_init;
rdev->asic->gart_fini = &rv370_pcie_gart_fini;
rdev->asic->gart_enable = &rv370_pcie_gart_enable;
rdev->asic->gart_disable = &rv370_pcie_gart_disable;
rdev->asic->gart_tlb_flush = &rv370_pcie_gart_tlb_flush;
rdev->asic->gart_set_page = &rv370_pcie_gart_set_page;
} else {
DRM_INFO("Forcing AGP to PCI mode\n");
rdev->flags |= RADEON_IS_PCI;
rdev->asic->gart_init = &r100_pci_gart_init;
rdev->asic->gart_fini = &r100_pci_gart_fini;
rdev->asic->gart_enable = &r100_pci_gart_enable;
rdev->asic->gart_disable = &r100_pci_gart_disable;
rdev->asic->gart_tlb_flush = &r100_pci_gart_tlb_flush;
rdev->asic->gart_set_page = &r100_pci_gart_set_page;
}
}
 
/* set DMA mask + need_dma32 flags.
* PCIE - can handle 40-bits.
* IGP - can handle 40-bits (in theory)
* AGP - generally dma32 is safest
* PCI - only dma32
*/
rdev->need_dma32 = false;
if (rdev->flags & RADEON_IS_AGP)
rdev->need_dma32 = true;
if (rdev->flags & RADEON_IS_PCI)
rdev->need_dma32 = true;
/* Set asic functions */
r = radeon_asic_init(rdev);
if (r) {
return r;
}
 
dma_bits = rdev->need_dma32 ? 32 : 40;
r = pci_set_dma_mask(rdev->pdev, DMA_BIT_MASK(dma_bits));
r = rdev->asic->init(rdev);
 
if (r) {
return r;
}
 
/* Report DMA addressing limitation */
r = pci_set_dma_mask(rdev->pdev, DMA_BIT_MASK(32));
if (r) {
printk(KERN_WARNING "radeon: No suitable DMA available.\n");
}
 
568,13 → 541,6
DRM_INFO("register mmio base: 0x%08X\n", (uint32_t)rdev->rmmio_base);
DRM_INFO("register mmio size: %u\n", (unsigned)rdev->rmmio_size);
 
rdev->new_init_path = false;
r = radeon_init(rdev);
if (r) {
return r;
}
 
if (!rdev->new_init_path) {
/* Setup errata flags */
radeon_errata(rdev);
/* Initialize scratch registers */
582,6 → 548,7
/* Initialize surface registers */
radeon_surface_init(rdev);
 
/* TODO: disable VGA need to use VGA request */
/* BIOS*/
if (!radeon_get_bios(rdev)) {
if (ASIC_IS_AVIVO(rdev))
611,9 → 578,23
radeon_combios_asic_init(rdev->ddev);
}
}
/* Get clock & vram information */
radeon_get_clock_info(rdev->ddev);
/* Get vram informations */
radeon_vram_info(rdev);
/* Device is severly broken if aper size > vram size.
* for RN50/M6/M7 - Novell bug 204882 ?
*/
if (rdev->mc.vram_size < rdev->mc.aper_size) {
rdev->mc.aper_size = rdev->mc.vram_size;
}
/* Add an MTRR for the VRAM */
// rdev->mc.vram_mtrr = mtrr_add(rdev->mc.aper_base, rdev->mc.aper_size,
// MTRR_TYPE_WRCOMB, 1);
DRM_INFO("Detected VRAM RAM=%uM, BAR=%uM\n",
rdev->mc.vram_size >> 20,
(unsigned)rdev->mc.aper_size >> 20);
DRM_INFO("RAM width %dbits %cDR\n",
rdev->mc.vram_width, rdev->mc.vram_is_ddr ? 'D' : 'S');
 
/* Initialize clocks */
r = radeon_clocks_init(rdev);
if (r) {
625,51 → 606,74
if (r) {
return r;
}
/* Fence driver */
// r = radeon_fence_driver_init(rdev);
// if (r) {
// return r;
// }
// r = radeon_irq_kms_init(rdev);
// if (r) {
// return r;
// }
/* Memory manager */
r = radeon_object_init(rdev);
if (r) {
return r;
}
r = radeon_gpu_gart_init(rdev);
if (r)
return r;
/* Initialize GART (initialize after TTM so we can allocate
* memory through TTM but finalize after TTM) */
r = radeon_gart_enable(rdev);
if (r)
return 0;
if (!r) {
r = radeon_gem_init(rdev);
if (r)
return 0;
}
 
/* 1M ring buffer */
// r = radeon_cp_init(rdev, 1024 * 1024);
// if (r)
// return 0;
if (!r) {
r = radeon_cp_init(rdev, 1024 * 1024);
}
// if (!r) {
// r = radeon_wb_init(rdev);
// if (r) {
// DRM_ERROR("radeon: failled initializing WB (%d).\n", r);
// return r;
// }
// }
 
#if 0
r = radeon_wb_init(rdev);
if (r)
DRM_ERROR("radeon: failled initializing WB (%d).\n", r);
if (!r) {
r = radeon_ib_pool_init(rdev);
if (r)
return 0;
if (r) {
DRM_ERROR("radeon: failled initializing IB pool (%d).\n", r);
return r;
}
}
if (!r) {
r = radeon_ib_test(rdev);
if (r)
return 0;
if (r) {
DRM_ERROR("radeon: failled testing IB (%d).\n", r);
return r;
}
}
#endif
rdev->accel_working = true;
 
ret = r;
r = radeon_modeset_init(rdev);
if (r) {
return r;
}
// if (rdev->fbdev_rfb && rdev->fbdev_rfb->obj) {
// rdev->fbdev_robj = rdev->fbdev_rfb->obj->driver_private;
// }
if (!ret) {
DRM_INFO("radeon: kernel modesetting successfully initialized.\n");
// if (radeon_testing) {
// radeon_test_moves(rdev);
// }
// if (radeon_benchmarking) {
}
if (radeon_benchmarking) {
// radeon_benchmark(rdev);
// }
return 0;
}
return ret;
 
// return -1;
}
 
static struct pci_device_id pciidlist[] = {
radeon_PCI_IDS
676,7 → 680,7
};
 
 
u32_t drvEntry(int action, char *cmdline)
u32_t __stdcall drvEntry(int action)
{
struct pci_device_id *ent;
 
693,9 → 697,6
return 0;
}
 
if(cmdline)
dbgprintf("cmdline: %s\n", cmdline);
 
enum_pci_devices();
 
ent = find_pci_device(&device, pciidlist);
931,6 → 932,3
 
 
 
 
 
 
/drivers/video/drm/radeon/radeon_ring.c
25,7 → 25,7
* Alex Deucher
* Jerome Glisse
*/
#include <linux/seq_file.h>
//#include <linux/seq_file.h>
#include "drmP.h"
#include "radeon_drm.h"
#include "radeon_reg.h"
32,6 → 32,7
#include "radeon.h"
#include "atom.h"
 
 
int radeon_debugfs_ib_init(struct radeon_device *rdev);
 
/*
59,12 → 60,10
set_bit(i, rdev->ib_pool.alloc_bm);
rdev->ib_pool.ibs[i].length_dw = 0;
*ib = &rdev->ib_pool.ibs[i];
mutex_unlock(&rdev->ib_pool.mutex);
goto out;
}
if (list_empty(&rdev->ib_pool.scheduled_ibs)) {
/* we go do nothings here */
mutex_unlock(&rdev->ib_pool.mutex);
DRM_ERROR("all IB allocated none scheduled.\n");
r = -EINVAL;
goto out;
74,13 → 73,10
struct radeon_ib, list);
if (nib->fence == NULL) {
/* we go do nothings here */
mutex_unlock(&rdev->ib_pool.mutex);
DRM_ERROR("IB %lu scheduled without a fence.\n", nib->idx);
r = -EINVAL;
goto out;
}
mutex_unlock(&rdev->ib_pool.mutex);
 
r = radeon_fence_wait(nib->fence, false);
if (r) {
DRM_ERROR("radeon: IB(%lu:0x%016lX:%u)\n", nib->idx,
89,17 → 85,12
goto out;
}
radeon_fence_unref(&nib->fence);
 
nib->length_dw = 0;
 
/* scheduled list is accessed here */
mutex_lock(&rdev->ib_pool.mutex);
list_del(&nib->list);
INIT_LIST_HEAD(&nib->list);
mutex_unlock(&rdev->ib_pool.mutex);
 
*ib = nib;
out:
mutex_unlock(&rdev->ib_pool.mutex);
if (r) {
radeon_fence_unref(&fence);
} else {
124,36 → 115,60
}
list_del(&tmp->list);
INIT_LIST_HEAD(&tmp->list);
if (tmp->fence)
if (tmp->fence) {
radeon_fence_unref(&tmp->fence);
 
}
tmp->length_dw = 0;
clear_bit(tmp->idx, rdev->ib_pool.alloc_bm);
mutex_unlock(&rdev->ib_pool.mutex);
}
 
static void radeon_ib_align(struct radeon_device *rdev, struct radeon_ib *ib)
{
while ((ib->length_dw & rdev->cp.align_mask)) {
ib->ptr[ib->length_dw++] = PACKET2(0);
}
}
 
static void radeon_ib_cpu_flush(struct radeon_device *rdev,
struct radeon_ib *ib)
{
unsigned long tmp;
unsigned i;
 
/* To force CPU cache flush ugly but seems reliable */
for (i = 0; i < ib->length_dw; i += (rdev->cp.align_mask + 1)) {
tmp = readl(&ib->ptr[i]);
}
}
 
int radeon_ib_schedule(struct radeon_device *rdev, struct radeon_ib *ib)
{
int r = 0;
 
mutex_lock(&rdev->ib_pool.mutex);
radeon_ib_align(rdev, ib);
radeon_ib_cpu_flush(rdev, ib);
if (!ib->length_dw || !rdev->cp.ready) {
/* TODO: Nothings in the ib we should report. */
mutex_unlock(&rdev->ib_pool.mutex);
DRM_ERROR("radeon: couldn't schedule IB(%lu).\n", ib->idx);
return -EINVAL;
}
 
/* 64 dwords should be enough for fence too */
/* 64 dwords should be enought for fence too */
r = radeon_ring_lock(rdev, 64);
if (r) {
DRM_ERROR("radeon: scheduling IB failled (%d).\n", r);
mutex_unlock(&rdev->ib_pool.mutex);
return r;
}
radeon_ring_ib_execute(rdev, ib);
radeon_ring_write(rdev, PACKET0(RADEON_CP_IB_BASE, 1));
radeon_ring_write(rdev, ib->gpu_addr);
radeon_ring_write(rdev, ib->length_dw);
radeon_fence_emit(rdev, ib->fence);
mutex_lock(&rdev->ib_pool.mutex);
radeon_ring_unlock_commit(rdev);
list_add_tail(&ib->list, &rdev->ib_pool.scheduled_ibs);
mutex_unlock(&rdev->ib_pool.mutex);
radeon_ring_unlock_commit(rdev);
return 0;
}
#endif
165,8 → 180,6
int i;
int r = 0;
 
if (rdev->ib_pool.robj)
return 0;
/* Allocate 1M object buffer */
INIT_LIST_HEAD(&rdev->ib_pool.scheduled_ibs);
r = radeon_object_create(rdev, NULL, RADEON_IB_POOL_SIZE*64*1024,
210,7 → 223,7
if (!rdev->ib_pool.ready) {
return;
}
mutex_lock(&rdev->ib_pool.mutex);
// mutex_lock(&rdev->ib_pool.mutex);
bitmap_zero(rdev->ib_pool.alloc_bm, RADEON_IB_POOL_SIZE);
if (rdev->ib_pool.robj) {
// radeon_object_kunmap(rdev->ib_pool.robj);
217,18 → 230,74
// radeon_object_unref(&rdev->ib_pool.robj);
rdev->ib_pool.robj = NULL;
}
mutex_unlock(&rdev->ib_pool.mutex);
// mutex_unlock(&rdev->ib_pool.mutex);
}
 
#if 0
 
int radeon_ib_test(struct radeon_device *rdev)
{
struct radeon_ib *ib;
uint32_t scratch;
uint32_t tmp = 0;
unsigned i;
int r;
 
r = radeon_scratch_get(rdev, &scratch);
if (r) {
DRM_ERROR("radeon: failed to get scratch reg (%d).\n", r);
return r;
}
WREG32(scratch, 0xCAFEDEAD);
r = radeon_ib_get(rdev, &ib);
if (r) {
return r;
}
ib->ptr[0] = PACKET0(scratch, 0);
ib->ptr[1] = 0xDEADBEEF;
ib->ptr[2] = PACKET2(0);
ib->ptr[3] = PACKET2(0);
ib->ptr[4] = PACKET2(0);
ib->ptr[5] = PACKET2(0);
ib->ptr[6] = PACKET2(0);
ib->ptr[7] = PACKET2(0);
ib->length_dw = 8;
r = radeon_ib_schedule(rdev, ib);
if (r) {
radeon_scratch_free(rdev, scratch);
radeon_ib_free(rdev, &ib);
return r;
}
r = radeon_fence_wait(ib->fence, false);
if (r) {
return r;
}
for (i = 0; i < rdev->usec_timeout; i++) {
tmp = RREG32(scratch);
if (tmp == 0xDEADBEEF) {
break;
}
DRM_UDELAY(1);
}
if (i < rdev->usec_timeout) {
DRM_INFO("ib test succeeded in %u usecs\n", i);
} else {
DRM_ERROR("radeon: ib test failed (sracth(0x%04X)=0x%08X)\n",
scratch, tmp);
r = -EINVAL;
}
radeon_scratch_free(rdev, scratch);
radeon_ib_free(rdev, &ib);
return r;
}
 
#endif
 
/*
* Ring.
*/
void radeon_ring_free_size(struct radeon_device *rdev)
{
if (rdev->family >= CHIP_R600)
rdev->cp.rptr = RREG32(R600_CP_RB_RPTR);
else
rdev->cp.rptr = RREG32(RADEON_CP_RB_RPTR);
/* This works because ring_size is a power of 2 */
rdev->cp.ring_free_dw = (rdev->cp.rptr + (rdev->cp.ring_size / 4));
246,12 → 315,14
/* Align requested size with padding so unlock_commit can
* pad safely */
ndw = (ndw + rdev->cp.align_mask) & ~rdev->cp.align_mask;
mutex_lock(&rdev->cp.mutex);
// mutex_lock(&rdev->cp.mutex);
while (ndw > (rdev->cp.ring_free_dw - 1)) {
radeon_ring_free_size(rdev);
if (ndw < rdev->cp.ring_free_dw) {
break;
}
delay(1);
 
// r = radeon_fence_wait_next(rdev);
// if (r) {
// mutex_unlock(&rdev->cp.mutex);
272,26 → 343,79
count_dw_pad = (rdev->cp.align_mask + 1) -
(rdev->cp.wptr & rdev->cp.align_mask);
for (i = 0; i < count_dw_pad; i++) {
radeon_ring_write(rdev, 2 << 30);
radeon_ring_write(rdev, PACKET2(0));
}
DRM_MEMORYBARRIER();
radeon_cp_commit(rdev);
mutex_unlock(&rdev->cp.mutex);
WREG32(RADEON_CP_RB_WPTR, rdev->cp.wptr);
(void)RREG32(RADEON_CP_RB_WPTR);
// mutex_unlock(&rdev->cp.mutex);
}
 
void radeon_ring_unlock_undo(struct radeon_device *rdev)
{
rdev->cp.wptr = rdev->cp.wptr_old;
mutex_unlock(&rdev->cp.mutex);
// mutex_unlock(&rdev->cp.mutex);
}
 
 
int radeon_ring_test(struct radeon_device *rdev)
{
uint32_t scratch;
uint32_t tmp = 0;
unsigned i;
int r;
 
dbgprintf("%s\n",__FUNCTION__);
 
r = radeon_scratch_get(rdev, &scratch);
if (r) {
DRM_ERROR("radeon: cp failed to get scratch reg (%d).\n", r);
return r;
}
WREG32(scratch, 0xCAFEDEAD);
r = radeon_ring_lock(rdev, 2);
if (r) {
DRM_ERROR("radeon: cp failed to lock ring (%d).\n", r);
radeon_scratch_free(rdev, scratch);
return r;
}
radeon_ring_write(rdev, PACKET0(scratch, 0));
radeon_ring_write(rdev, 0xDEADBEEF);
radeon_ring_unlock_commit(rdev);
for (i = 0; i < 100000; i++) {
tmp = RREG32(scratch);
if (tmp == 0xDEADBEEF) {
break;
}
DRM_UDELAY(1);
}
if (i < 100000) {
DRM_INFO("ring test succeeded in %d usecs\n", i);
} else {
DRM_ERROR("radeon: ring test failed (sracth(0x%04X)=0x%08X)\n",
scratch, tmp);
r = -EINVAL;
}
radeon_scratch_free(rdev, scratch);
 
dbgprintf("done %s\n",__FUNCTION__);
return r;
}
 
 
int radeon_gart_bind(struct radeon_device *rdev, unsigned offset,
int pages, u32_t *pagelist);
 
 
 
int radeon_ring_init(struct radeon_device *rdev, unsigned ring_size)
{
int r;
 
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
rdev->cp.ring_size = ring_size;
 
/* Allocate ring buffer */
if (rdev->cp.ring_obj == NULL) {
r = radeon_object_create(rdev, NULL, rdev->cp.ring_size,
301,7 → 425,7
&rdev->cp.ring_obj);
if (r) {
DRM_ERROR("radeon: failed to create ring buffer (%d).\n", r);
mutex_unlock(&rdev->cp.mutex);
// mutex_unlock(&rdev->cp.mutex);
return r;
}
r = radeon_object_pin(rdev->cp.ring_obj,
309,7 → 433,7
&rdev->cp.gpu_addr);
if (r) {
DRM_ERROR("radeon: failed to pin ring buffer (%d).\n", r);
mutex_unlock(&rdev->cp.mutex);
// mutex_unlock(&rdev->cp.mutex);
return r;
}
r = radeon_object_kmap(rdev->cp.ring_obj,
316,7 → 440,7
(void **)&rdev->cp.ring);
if (r) {
DRM_ERROR("radeon: failed to map ring buffer (%d).\n", r);
mutex_unlock(&rdev->cp.mutex);
// mutex_unlock(&rdev->cp.mutex);
return r;
}
}
337,7 → 461,7
rdev->cp.ptr_mask = (rdev->cp.ring_size / 4) - 1;
rdev->cp.ring_free_dw = rdev->cp.ring_size / 4;
 
LEAVE();
dbgprintf("done %s\n",__FUNCTION__);
 
return 0;
}
344,7 → 468,7
 
void radeon_ring_fini(struct radeon_device *rdev)
{
mutex_lock(&rdev->cp.mutex);
// mutex_lock(&rdev->cp.mutex);
if (rdev->cp.ring_obj) {
// radeon_object_kunmap(rdev->cp.ring_obj);
// radeon_object_unpin(rdev->cp.ring_obj);
352,7 → 476,7
rdev->cp.ring = NULL;
rdev->cp.ring_obj = NULL;
}
mutex_unlock(&rdev->cp.mutex);
// mutex_unlock(&rdev->cp.mutex);
}
 
 
400,3 → 524,18
return 0;
#endif
}
 
 
int drm_order(unsigned long size)
{
int order;
unsigned long tmp;
 
for (order = 0, tmp = size >> 1; tmp; tmp >>= 1, order++) ;
 
if (size & (size - 1))
++order;
 
return order;
}
 
/drivers/video/drm/radeon/rs400.c
25,8 → 25,8
* Alex Deucher
* Jerome Glisse
*/
#include <linux/seq_file.h>
#include <drm/drmP.h>
//#include <linux/seq_file.h>
#include <drmP.h>
#include "radeon_reg.h"
#include "radeon.h"
 
62,7 → 62,7
break;
default:
DRM_ERROR("Unable to use IGP GART size %uM\n",
(unsigned)(rdev->mc.gtt_size >> 20));
rdev->mc.gtt_size >> 20);
DRM_ERROR("Valid GART size for IGP are 32M,64M,128M,256M,512M,1G,2G\n");
DRM_ERROR("Forcing to 32M GART size\n");
rdev->mc.gtt_size = 32 * 1024 * 1024;
92,42 → 92,21
WREG32_MC(RS480_GART_CACHE_CNTRL, 0);
}
 
int rs400_gart_init(struct radeon_device *rdev)
int rs400_gart_enable(struct radeon_device *rdev)
{
uint32_t size_reg;
uint32_t tmp;
int r;
 
if (rdev->gart.table.ram.ptr) {
WARN(1, "RS400 GART already initialized.\n");
return 0;
}
/* Check gart size */
switch(rdev->mc.gtt_size / (1024 * 1024)) {
case 32:
case 64:
case 128:
case 256:
case 512:
case 1024:
case 2048:
break;
default:
return -EINVAL;
}
/* Initialize common gart structure */
r = radeon_gart_init(rdev);
if (r)
if (r) {
return r;
if (rs400_debugfs_pcie_gart_info_init(rdev))
}
if (rs400_debugfs_pcie_gart_info_init(rdev)) {
DRM_ERROR("Failed to register debugfs file for RS400 GART !\n");
rdev->gart.table_size = rdev->gart.num_gpu_pages * 4;
return radeon_gart_table_ram_alloc(rdev);
}
 
int rs400_gart_enable(struct radeon_device *rdev)
{
uint32_t size_reg;
uint32_t tmp;
 
tmp = RREG32_MC(RS690_AIC_CTRL_SCRATCH);
tmp |= RS690_DIS_OUT_OF_PCI_GART_ACCESS;
WREG32_MC(RS690_AIC_CTRL_SCRATCH, tmp);
157,6 → 136,13
default:
return -EINVAL;
}
if (rdev->gart.table.ram.ptr == NULL) {
rdev->gart.table_size = rdev->gart.num_gpu_pages * 4;
r = radeon_gart_table_ram_alloc(rdev);
if (r) {
return r;
}
}
/* It should be fine to program it to max value */
if (rdev->family == CHIP_RS690 || (rdev->family == CHIP_RS740)) {
WREG32_MC(RS690_MCCFG_AGP_BASE, 0xFFFFFFFF);
178,9 → 164,7
WREG32(RADEON_BUS_CNTL, tmp);
}
/* Table should be in 32bits address space so ignore bits above. */
tmp = (u32)rdev->gart.table_addr & 0xfffff000;
tmp |= (upper_32_bits(rdev->gart.table_addr) & 0xff) << 4;
 
tmp = rdev->gart.table_addr & 0xfffff000;
WREG32_MC(RS480_GART_BASE, tmp);
/* TODO: more tweaking here */
WREG32_MC(RS480_GART_FEATURE_ID,
215,26 → 199,12
WREG32_MC(RS480_AGP_ADDRESS_SPACE_SIZE, 0);
}
 
void rs400_gart_fini(struct radeon_device *rdev)
{
rs400_gart_disable(rdev);
radeon_gart_table_ram_free(rdev);
radeon_gart_fini(rdev);
}
 
int rs400_gart_set_page(struct radeon_device *rdev, int i, uint64_t addr)
{
uint32_t entry;
 
if (i < 0 || i > rdev->gart.num_gpu_pages) {
return -EINVAL;
}
 
entry = (lower_32_bits(addr) & PAGE_MASK) |
((upper_32_bits(addr) & 0xff) << 4) |
0xc;
entry = cpu_to_le32(entry);
rdev->gart.table.ram.ptr[i] = entry;
rdev->gart.table.ram.ptr[i] = cpu_to_le32(((uint32_t)addr) | 0xC);
return 0;
}
 
253,9 → 223,10
 
rs400_gpu_init(rdev);
rs400_gart_disable(rdev);
rdev->mc.gtt_location = rdev->mc.mc_vram_size;
rdev->mc.gtt_location = rdev->mc.vram_size;
rdev->mc.gtt_location += (rdev->mc.gtt_size - 1);
rdev->mc.gtt_location &= ~(rdev->mc.gtt_size - 1);
rdev->mc.vram_location = 0xFFFFFFFFUL;
r = radeon_mc_setup(rdev);
if (r) {
return r;
267,7 → 238,7
"programming pipes. Bad things might happen.\n");
}
 
tmp = rdev->mc.vram_location + rdev->mc.mc_vram_size - 1;
tmp = rdev->mc.vram_location + rdev->mc.vram_size - 1;
tmp = REG_SET(RADEON_MC_FB_TOP, tmp >> 16);
tmp |= REG_SET(RADEON_MC_FB_START, rdev->mc.vram_location >> 16);
WREG32(RADEON_MC_FB_LOCATION, tmp);
276,12 → 247,14
(void)RREG32(RADEON_HOST_PATH_CNTL);
WREG32(RADEON_HOST_PATH_CNTL, tmp);
(void)RREG32(RADEON_HOST_PATH_CNTL);
 
return 0;
}
 
void rs400_mc_fini(struct radeon_device *rdev)
{
rs400_gart_disable(rdev);
radeon_gart_table_ram_free(rdev);
radeon_gart_fini(rdev);
}
 
 
311,12 → 284,21
*/
void rs400_vram_info(struct radeon_device *rdev)
{
uint32_t tom;
 
rs400_gart_adjust_size(rdev);
/* DDR for all card after R300 & IGP */
rdev->mc.vram_is_ddr = true;
rdev->mc.vram_width = 128;
 
r100_vram_init_sizes(rdev);
/* read NB_TOM to get the amount of ram stolen for the GPU */
tom = RREG32(RADEON_NB_TOM);
rdev->mc.vram_size = (((tom >> 16) - (tom & 0xffff) + 1) << 16);
WREG32(RADEON_CONFIG_MEMSIZE, rdev->mc.vram_size);
 
/* Could aper size report 0 ? */
rdev->mc.aper_base = drm_get_resource_start(rdev->ddev, 0);
rdev->mc.aper_size = drm_get_resource_len(rdev->ddev, 0);
}
 
 
/drivers/video/drm/radeon/rs600.c
28,10 → 28,7
#include "drmP.h"
#include "radeon_reg.h"
#include "radeon.h"
#include "avivod.h"
 
#include "rs600_reg_safe.h"
 
/* rs600 depends on : */
void r100_hdp_reset(struct radeon_device *rdev);
int r100_gui_wait_for_idle(struct radeon_device *rdev);
226,7 → 223,7
printk(KERN_WARNING "Failed to wait MC idle while "
"programming pipes. Bad things might happen.\n");
}
tmp = rdev->mc.vram_location + rdev->mc.mc_vram_size - 1;
tmp = rdev->mc.vram_location + rdev->mc.vram_size - 1;
tmp = REG_SET(RS600_MC_FB_TOP, tmp >> 16);
tmp |= REG_SET(RS600_MC_FB_START, rdev->mc.vram_location >> 16);
WREG32_MC(RS600_MC_FB_LOCATION, tmp);
304,12 → 301,7
rdev->mc.vram_width = 128;
}
 
void rs600_bandwidth_update(struct radeon_device *rdev)
{
/* FIXME: implement, should this be like rs690 ? */
}
 
 
/*
* Indirect registers accessor
*/
/drivers/video/drm/radeon/rs690.c
28,9 → 28,6
#include "drmP.h"
#include "radeon_reg.h"
#include "radeon.h"
#include "rs690r.h"
#include "atom.h"
#include "atom-bits.h"
 
/* rs690,rs740 depends on : */
void r100_hdp_reset(struct radeon_device *rdev);
67,7 → 64,7
rs400_gart_disable(rdev);
 
/* Setup GPU memory space */
rdev->mc.gtt_location = rdev->mc.mc_vram_size;
rdev->mc.gtt_location = rdev->mc.vram_size;
rdev->mc.gtt_location += (rdev->mc.gtt_size - 1);
rdev->mc.gtt_location &= ~(rdev->mc.gtt_size - 1);
rdev->mc.vram_location = 0xFFFFFFFFUL;
82,7 → 79,7
printk(KERN_WARNING "Failed to wait MC idle while "
"programming pipes. Bad things might happen.\n");
}
tmp = rdev->mc.vram_location + rdev->mc.mc_vram_size - 1;
tmp = rdev->mc.vram_location + rdev->mc.vram_size - 1;
tmp = REG_SET(RS690_MC_FB_TOP, tmp >> 16);
tmp |= REG_SET(RS690_MC_FB_START, rdev->mc.vram_location >> 16);
WREG32_MC(RS690_MCCFG_FB_LOCATION, tmp);
94,6 → 91,9
 
void rs690_mc_fini(struct radeon_device *rdev)
{
rs400_gart_disable(rdev);
radeon_gart_table_ram_free(rdev);
radeon_gart_fini(rdev);
}
 
 
138,82 → 138,9
/*
* VRAM info.
*/
void rs690_pm_info(struct radeon_device *rdev)
{
int index = GetIndexIntoMasterTable(DATA, IntegratedSystemInfo);
struct _ATOM_INTEGRATED_SYSTEM_INFO *info;
struct _ATOM_INTEGRATED_SYSTEM_INFO_V2 *info_v2;
void *ptr;
uint16_t data_offset;
uint8_t frev, crev;
fixed20_12 tmp;
 
atom_parse_data_header(rdev->mode_info.atom_context, index, NULL,
&frev, &crev, &data_offset);
ptr = rdev->mode_info.atom_context->bios + data_offset;
info = (struct _ATOM_INTEGRATED_SYSTEM_INFO *)ptr;
info_v2 = (struct _ATOM_INTEGRATED_SYSTEM_INFO_V2 *)ptr;
/* Get various system informations from bios */
switch (crev) {
case 1:
tmp.full = rfixed_const(100);
rdev->pm.igp_sideport_mclk.full = rfixed_const(info->ulBootUpMemoryClock);
rdev->pm.igp_sideport_mclk.full = rfixed_div(rdev->pm.igp_sideport_mclk, tmp);
rdev->pm.igp_system_mclk.full = rfixed_const(le16_to_cpu(info->usK8MemoryClock));
rdev->pm.igp_ht_link_clk.full = rfixed_const(le16_to_cpu(info->usFSBClock));
rdev->pm.igp_ht_link_width.full = rfixed_const(info->ucHTLinkWidth);
break;
case 2:
tmp.full = rfixed_const(100);
rdev->pm.igp_sideport_mclk.full = rfixed_const(info_v2->ulBootUpSidePortClock);
rdev->pm.igp_sideport_mclk.full = rfixed_div(rdev->pm.igp_sideport_mclk, tmp);
rdev->pm.igp_system_mclk.full = rfixed_const(info_v2->ulBootUpUMAClock);
rdev->pm.igp_system_mclk.full = rfixed_div(rdev->pm.igp_system_mclk, tmp);
rdev->pm.igp_ht_link_clk.full = rfixed_const(info_v2->ulHTLinkFreq);
rdev->pm.igp_ht_link_clk.full = rfixed_div(rdev->pm.igp_ht_link_clk, tmp);
rdev->pm.igp_ht_link_width.full = rfixed_const(le16_to_cpu(info_v2->usMinHTLinkWidth));
break;
default:
tmp.full = rfixed_const(100);
/* We assume the slower possible clock ie worst case */
/* DDR 333Mhz */
rdev->pm.igp_sideport_mclk.full = rfixed_const(333);
/* FIXME: system clock ? */
rdev->pm.igp_system_mclk.full = rfixed_const(100);
rdev->pm.igp_system_mclk.full = rfixed_div(rdev->pm.igp_system_mclk, tmp);
rdev->pm.igp_ht_link_clk.full = rfixed_const(200);
rdev->pm.igp_ht_link_width.full = rfixed_const(8);
DRM_ERROR("No integrated system info for your GPU, using safe default\n");
break;
}
/* Compute various bandwidth */
/* k8_bandwidth = (memory_clk / 2) * 2 * 8 * 0.5 = memory_clk * 4 */
tmp.full = rfixed_const(4);
rdev->pm.k8_bandwidth.full = rfixed_mul(rdev->pm.igp_system_mclk, tmp);
/* ht_bandwidth = ht_clk * 2 * ht_width / 8 * 0.8
* = ht_clk * ht_width / 5
*/
tmp.full = rfixed_const(5);
rdev->pm.ht_bandwidth.full = rfixed_mul(rdev->pm.igp_ht_link_clk,
rdev->pm.igp_ht_link_width);
rdev->pm.ht_bandwidth.full = rfixed_div(rdev->pm.ht_bandwidth, tmp);
if (tmp.full < rdev->pm.max_bandwidth.full) {
/* HT link is a limiting factor */
rdev->pm.max_bandwidth.full = tmp.full;
}
/* sideport_bandwidth = (sideport_clk / 2) * 2 * 2 * 0.7
* = (sideport_clk * 14) / 10
*/
tmp.full = rfixed_const(14);
rdev->pm.sideport_bandwidth.full = rfixed_mul(rdev->pm.igp_sideport_mclk, tmp);
tmp.full = rfixed_const(10);
rdev->pm.sideport_bandwidth.full = rfixed_div(rdev->pm.sideport_bandwidth, tmp);
}
 
void rs690_vram_info(struct radeon_device *rdev)
{
uint32_t tmp;
fixed20_12 a;
 
rs400_gart_adjust_size(rdev);
/* DDR for all card after R300 & IGP */
225,411 → 152,14
} else {
rdev->mc.vram_width = 64;
}
rdev->mc.real_vram_size = RREG32(RADEON_CONFIG_MEMSIZE);
rdev->mc.mc_vram_size = rdev->mc.real_vram_size;
rdev->mc.vram_size = RREG32(RADEON_CONFIG_MEMSIZE);
 
rdev->mc.aper_base = drm_get_resource_start(rdev->ddev, 0);
rdev->mc.aper_size = drm_get_resource_len(rdev->ddev, 0);
rs690_pm_info(rdev);
/* FIXME: we should enforce default clock in case GPU is not in
* default setup
*/
a.full = rfixed_const(100);
rdev->pm.sclk.full = rfixed_const(rdev->clock.default_sclk);
rdev->pm.sclk.full = rfixed_div(rdev->pm.sclk, a);
a.full = rfixed_const(16);
/* core_bandwidth = sclk(Mhz) * 16 */
rdev->pm.core_bandwidth.full = rfixed_div(rdev->pm.sclk, a);
}
 
void rs690_line_buffer_adjust(struct radeon_device *rdev,
struct drm_display_mode *mode1,
struct drm_display_mode *mode2)
{
u32 tmp;
 
/*
* Line Buffer Setup
* There is a single line buffer shared by both display controllers.
* DC_LB_MEMORY_SPLIT controls how that line buffer is shared between
* the display controllers. The paritioning can either be done
* manually or via one of four preset allocations specified in bits 1:0:
* 0 - line buffer is divided in half and shared between crtc
* 1 - D1 gets 3/4 of the line buffer, D2 gets 1/4
* 2 - D1 gets the whole buffer
* 3 - D1 gets 1/4 of the line buffer, D2 gets 3/4
* Setting bit 2 of DC_LB_MEMORY_SPLIT controls switches to manual
* allocation mode. In manual allocation mode, D1 always starts at 0,
* D1 end/2 is specified in bits 14:4; D2 allocation follows D1.
*/
tmp = RREG32(DC_LB_MEMORY_SPLIT) & ~DC_LB_MEMORY_SPLIT_MASK;
tmp &= ~DC_LB_MEMORY_SPLIT_SHIFT_MODE;
/* auto */
if (mode1 && mode2) {
if (mode1->hdisplay > mode2->hdisplay) {
if (mode1->hdisplay > 2560)
tmp |= DC_LB_MEMORY_SPLIT_D1_3Q_D2_1Q;
else
tmp |= DC_LB_MEMORY_SPLIT_D1HALF_D2HALF;
} else if (mode2->hdisplay > mode1->hdisplay) {
if (mode2->hdisplay > 2560)
tmp |= DC_LB_MEMORY_SPLIT_D1_1Q_D2_3Q;
else
tmp |= DC_LB_MEMORY_SPLIT_D1HALF_D2HALF;
} else
tmp |= AVIVO_DC_LB_MEMORY_SPLIT_D1HALF_D2HALF;
} else if (mode1) {
tmp |= DC_LB_MEMORY_SPLIT_D1_ONLY;
} else if (mode2) {
tmp |= DC_LB_MEMORY_SPLIT_D1_1Q_D2_3Q;
}
WREG32(DC_LB_MEMORY_SPLIT, tmp);
}
 
struct rs690_watermark {
u32 lb_request_fifo_depth;
fixed20_12 num_line_pair;
fixed20_12 estimated_width;
fixed20_12 worst_case_latency;
fixed20_12 consumption_rate;
fixed20_12 active_time;
fixed20_12 dbpp;
fixed20_12 priority_mark_max;
fixed20_12 priority_mark;
fixed20_12 sclk;
};
 
void rs690_crtc_bandwidth_compute(struct radeon_device *rdev,
struct radeon_crtc *crtc,
struct rs690_watermark *wm)
{
struct drm_display_mode *mode = &crtc->base.mode;
fixed20_12 a, b, c;
fixed20_12 pclk, request_fifo_depth, tolerable_latency, estimated_width;
fixed20_12 consumption_time, line_time, chunk_time, read_delay_latency;
/* FIXME: detect IGP with sideport memory, i don't think there is any
* such product available
*/
bool sideport = false;
 
if (!crtc->base.enabled) {
/* FIXME: wouldn't it better to set priority mark to maximum */
wm->lb_request_fifo_depth = 4;
return;
}
 
if (crtc->vsc.full > rfixed_const(2))
wm->num_line_pair.full = rfixed_const(2);
else
wm->num_line_pair.full = rfixed_const(1);
 
b.full = rfixed_const(mode->crtc_hdisplay);
c.full = rfixed_const(256);
a.full = rfixed_mul(wm->num_line_pair, b);
request_fifo_depth.full = rfixed_div(a, c);
if (a.full < rfixed_const(4)) {
wm->lb_request_fifo_depth = 4;
} else {
wm->lb_request_fifo_depth = rfixed_trunc(request_fifo_depth);
}
 
/* Determine consumption rate
* pclk = pixel clock period(ns) = 1000 / (mode.clock / 1000)
* vtaps = number of vertical taps,
* vsc = vertical scaling ratio, defined as source/destination
* hsc = horizontal scaling ration, defined as source/destination
*/
a.full = rfixed_const(mode->clock);
b.full = rfixed_const(1000);
a.full = rfixed_div(a, b);
pclk.full = rfixed_div(b, a);
if (crtc->rmx_type != RMX_OFF) {
b.full = rfixed_const(2);
if (crtc->vsc.full > b.full)
b.full = crtc->vsc.full;
b.full = rfixed_mul(b, crtc->hsc);
c.full = rfixed_const(2);
b.full = rfixed_div(b, c);
consumption_time.full = rfixed_div(pclk, b);
} else {
consumption_time.full = pclk.full;
}
a.full = rfixed_const(1);
wm->consumption_rate.full = rfixed_div(a, consumption_time);
 
 
/* Determine line time
* LineTime = total time for one line of displayhtotal
* LineTime = total number of horizontal pixels
* pclk = pixel clock period(ns)
*/
a.full = rfixed_const(crtc->base.mode.crtc_htotal);
line_time.full = rfixed_mul(a, pclk);
 
/* Determine active time
* ActiveTime = time of active region of display within one line,
* hactive = total number of horizontal active pixels
* htotal = total number of horizontal pixels
*/
a.full = rfixed_const(crtc->base.mode.crtc_htotal);
b.full = rfixed_const(crtc->base.mode.crtc_hdisplay);
wm->active_time.full = rfixed_mul(line_time, b);
wm->active_time.full = rfixed_div(wm->active_time, a);
 
/* Maximun bandwidth is the minimun bandwidth of all component */
rdev->pm.max_bandwidth = rdev->pm.core_bandwidth;
if (sideport) {
if (rdev->pm.max_bandwidth.full > rdev->pm.sideport_bandwidth.full &&
rdev->pm.sideport_bandwidth.full)
rdev->pm.max_bandwidth = rdev->pm.sideport_bandwidth;
read_delay_latency.full = rfixed_const(370 * 800 * 1000);
read_delay_latency.full = rfixed_div(read_delay_latency,
rdev->pm.igp_sideport_mclk);
} else {
if (rdev->pm.max_bandwidth.full > rdev->pm.k8_bandwidth.full &&
rdev->pm.k8_bandwidth.full)
rdev->pm.max_bandwidth = rdev->pm.k8_bandwidth;
if (rdev->pm.max_bandwidth.full > rdev->pm.ht_bandwidth.full &&
rdev->pm.ht_bandwidth.full)
rdev->pm.max_bandwidth = rdev->pm.ht_bandwidth;
read_delay_latency.full = rfixed_const(5000);
}
 
/* sclk = system clocks(ns) = 1000 / max_bandwidth / 16 */
a.full = rfixed_const(16);
rdev->pm.sclk.full = rfixed_mul(rdev->pm.max_bandwidth, a);
a.full = rfixed_const(1000);
rdev->pm.sclk.full = rfixed_div(a, rdev->pm.sclk);
/* Determine chunk time
* ChunkTime = the time it takes the DCP to send one chunk of data
* to the LB which consists of pipeline delay and inter chunk gap
* sclk = system clock(ns)
*/
a.full = rfixed_const(256 * 13);
chunk_time.full = rfixed_mul(rdev->pm.sclk, a);
a.full = rfixed_const(10);
chunk_time.full = rfixed_div(chunk_time, a);
 
/* Determine the worst case latency
* NumLinePair = Number of line pairs to request(1=2 lines, 2=4 lines)
* WorstCaseLatency = worst case time from urgent to when the MC starts
* to return data
* READ_DELAY_IDLE_MAX = constant of 1us
* ChunkTime = time it takes the DCP to send one chunk of data to the LB
* which consists of pipeline delay and inter chunk gap
*/
if (rfixed_trunc(wm->num_line_pair) > 1) {
a.full = rfixed_const(3);
wm->worst_case_latency.full = rfixed_mul(a, chunk_time);
wm->worst_case_latency.full += read_delay_latency.full;
} else {
a.full = rfixed_const(2);
wm->worst_case_latency.full = rfixed_mul(a, chunk_time);
wm->worst_case_latency.full += read_delay_latency.full;
}
 
/* Determine the tolerable latency
* TolerableLatency = Any given request has only 1 line time
* for the data to be returned
* LBRequestFifoDepth = Number of chunk requests the LB can
* put into the request FIFO for a display
* LineTime = total time for one line of display
* ChunkTime = the time it takes the DCP to send one chunk
* of data to the LB which consists of
* pipeline delay and inter chunk gap
*/
if ((2+wm->lb_request_fifo_depth) >= rfixed_trunc(request_fifo_depth)) {
tolerable_latency.full = line_time.full;
} else {
tolerable_latency.full = rfixed_const(wm->lb_request_fifo_depth - 2);
tolerable_latency.full = request_fifo_depth.full - tolerable_latency.full;
tolerable_latency.full = rfixed_mul(tolerable_latency, chunk_time);
tolerable_latency.full = line_time.full - tolerable_latency.full;
}
/* We assume worst case 32bits (4 bytes) */
wm->dbpp.full = rfixed_const(4 * 8);
 
/* Determine the maximum priority mark
* width = viewport width in pixels
*/
a.full = rfixed_const(16);
wm->priority_mark_max.full = rfixed_const(crtc->base.mode.crtc_hdisplay);
wm->priority_mark_max.full = rfixed_div(wm->priority_mark_max, a);
 
/* Determine estimated width */
estimated_width.full = tolerable_latency.full - wm->worst_case_latency.full;
estimated_width.full = rfixed_div(estimated_width, consumption_time);
if (rfixed_trunc(estimated_width) > crtc->base.mode.crtc_hdisplay) {
wm->priority_mark.full = rfixed_const(10);
} else {
a.full = rfixed_const(16);
wm->priority_mark.full = rfixed_div(estimated_width, a);
wm->priority_mark.full = wm->priority_mark_max.full - wm->priority_mark.full;
}
}
 
void rs690_bandwidth_update(struct radeon_device *rdev)
{
struct drm_display_mode *mode0 = NULL;
struct drm_display_mode *mode1 = NULL;
struct rs690_watermark wm0;
struct rs690_watermark wm1;
u32 tmp;
fixed20_12 priority_mark02, priority_mark12, fill_rate;
fixed20_12 a, b;
 
if (rdev->mode_info.crtcs[0]->base.enabled)
mode0 = &rdev->mode_info.crtcs[0]->base.mode;
if (rdev->mode_info.crtcs[1]->base.enabled)
mode1 = &rdev->mode_info.crtcs[1]->base.mode;
/*
* Set display0/1 priority up in the memory controller for
* modes if the user specifies HIGH for displaypriority
* option.
*/
if (rdev->disp_priority == 2) {
tmp = RREG32_MC(MC_INIT_MISC_LAT_TIMER);
tmp &= ~MC_DISP1R_INIT_LAT_MASK;
tmp &= ~MC_DISP0R_INIT_LAT_MASK;
if (mode1)
tmp |= (1 << MC_DISP1R_INIT_LAT_SHIFT);
if (mode0)
tmp |= (1 << MC_DISP0R_INIT_LAT_SHIFT);
WREG32_MC(MC_INIT_MISC_LAT_TIMER, tmp);
}
rs690_line_buffer_adjust(rdev, mode0, mode1);
 
if ((rdev->family == CHIP_RS690) || (rdev->family == CHIP_RS740))
WREG32(DCP_CONTROL, 0);
if ((rdev->family == CHIP_RS780) || (rdev->family == CHIP_RS880))
WREG32(DCP_CONTROL, 2);
 
rs690_crtc_bandwidth_compute(rdev, rdev->mode_info.crtcs[0], &wm0);
rs690_crtc_bandwidth_compute(rdev, rdev->mode_info.crtcs[1], &wm1);
 
tmp = (wm0.lb_request_fifo_depth - 1);
tmp |= (wm1.lb_request_fifo_depth - 1) << 16;
WREG32(LB_MAX_REQ_OUTSTANDING, tmp);
 
if (mode0 && mode1) {
if (rfixed_trunc(wm0.dbpp) > 64)
a.full = rfixed_mul(wm0.dbpp, wm0.num_line_pair);
else
a.full = wm0.num_line_pair.full;
if (rfixed_trunc(wm1.dbpp) > 64)
b.full = rfixed_mul(wm1.dbpp, wm1.num_line_pair);
else
b.full = wm1.num_line_pair.full;
a.full += b.full;
fill_rate.full = rfixed_div(wm0.sclk, a);
if (wm0.consumption_rate.full > fill_rate.full) {
b.full = wm0.consumption_rate.full - fill_rate.full;
b.full = rfixed_mul(b, wm0.active_time);
a.full = rfixed_mul(wm0.worst_case_latency,
wm0.consumption_rate);
a.full = a.full + b.full;
b.full = rfixed_const(16 * 1000);
priority_mark02.full = rfixed_div(a, b);
} else {
a.full = rfixed_mul(wm0.worst_case_latency,
wm0.consumption_rate);
b.full = rfixed_const(16 * 1000);
priority_mark02.full = rfixed_div(a, b);
}
if (wm1.consumption_rate.full > fill_rate.full) {
b.full = wm1.consumption_rate.full - fill_rate.full;
b.full = rfixed_mul(b, wm1.active_time);
a.full = rfixed_mul(wm1.worst_case_latency,
wm1.consumption_rate);
a.full = a.full + b.full;
b.full = rfixed_const(16 * 1000);
priority_mark12.full = rfixed_div(a, b);
} else {
a.full = rfixed_mul(wm1.worst_case_latency,
wm1.consumption_rate);
b.full = rfixed_const(16 * 1000);
priority_mark12.full = rfixed_div(a, b);
}
if (wm0.priority_mark.full > priority_mark02.full)
priority_mark02.full = wm0.priority_mark.full;
if (rfixed_trunc(priority_mark02) < 0)
priority_mark02.full = 0;
if (wm0.priority_mark_max.full > priority_mark02.full)
priority_mark02.full = wm0.priority_mark_max.full;
if (wm1.priority_mark.full > priority_mark12.full)
priority_mark12.full = wm1.priority_mark.full;
if (rfixed_trunc(priority_mark12) < 0)
priority_mark12.full = 0;
if (wm1.priority_mark_max.full > priority_mark12.full)
priority_mark12.full = wm1.priority_mark_max.full;
WREG32(D1MODE_PRIORITY_A_CNT, rfixed_trunc(priority_mark02));
WREG32(D1MODE_PRIORITY_B_CNT, rfixed_trunc(priority_mark02));
WREG32(D2MODE_PRIORITY_A_CNT, rfixed_trunc(priority_mark12));
WREG32(D2MODE_PRIORITY_B_CNT, rfixed_trunc(priority_mark12));
} else if (mode0) {
if (rfixed_trunc(wm0.dbpp) > 64)
a.full = rfixed_mul(wm0.dbpp, wm0.num_line_pair);
else
a.full = wm0.num_line_pair.full;
fill_rate.full = rfixed_div(wm0.sclk, a);
if (wm0.consumption_rate.full > fill_rate.full) {
b.full = wm0.consumption_rate.full - fill_rate.full;
b.full = rfixed_mul(b, wm0.active_time);
a.full = rfixed_mul(wm0.worst_case_latency,
wm0.consumption_rate);
a.full = a.full + b.full;
b.full = rfixed_const(16 * 1000);
priority_mark02.full = rfixed_div(a, b);
} else {
a.full = rfixed_mul(wm0.worst_case_latency,
wm0.consumption_rate);
b.full = rfixed_const(16 * 1000);
priority_mark02.full = rfixed_div(a, b);
}
if (wm0.priority_mark.full > priority_mark02.full)
priority_mark02.full = wm0.priority_mark.full;
if (rfixed_trunc(priority_mark02) < 0)
priority_mark02.full = 0;
if (wm0.priority_mark_max.full > priority_mark02.full)
priority_mark02.full = wm0.priority_mark_max.full;
WREG32(D1MODE_PRIORITY_A_CNT, rfixed_trunc(priority_mark02));
WREG32(D1MODE_PRIORITY_B_CNT, rfixed_trunc(priority_mark02));
WREG32(D2MODE_PRIORITY_A_CNT, MODE_PRIORITY_OFF);
WREG32(D2MODE_PRIORITY_B_CNT, MODE_PRIORITY_OFF);
} else {
if (rfixed_trunc(wm1.dbpp) > 64)
a.full = rfixed_mul(wm1.dbpp, wm1.num_line_pair);
else
a.full = wm1.num_line_pair.full;
fill_rate.full = rfixed_div(wm1.sclk, a);
if (wm1.consumption_rate.full > fill_rate.full) {
b.full = wm1.consumption_rate.full - fill_rate.full;
b.full = rfixed_mul(b, wm1.active_time);
a.full = rfixed_mul(wm1.worst_case_latency,
wm1.consumption_rate);
a.full = a.full + b.full;
b.full = rfixed_const(16 * 1000);
priority_mark12.full = rfixed_div(a, b);
} else {
a.full = rfixed_mul(wm1.worst_case_latency,
wm1.consumption_rate);
b.full = rfixed_const(16 * 1000);
priority_mark12.full = rfixed_div(a, b);
}
if (wm1.priority_mark.full > priority_mark12.full)
priority_mark12.full = wm1.priority_mark.full;
if (rfixed_trunc(priority_mark12) < 0)
priority_mark12.full = 0;
if (wm1.priority_mark_max.full > priority_mark12.full)
priority_mark12.full = wm1.priority_mark_max.full;
WREG32(D1MODE_PRIORITY_A_CNT, MODE_PRIORITY_OFF);
WREG32(D1MODE_PRIORITY_B_CNT, MODE_PRIORITY_OFF);
WREG32(D2MODE_PRIORITY_A_CNT, rfixed_trunc(priority_mark12));
WREG32(D2MODE_PRIORITY_B_CNT, rfixed_trunc(priority_mark12));
}
}
 
/*
* Indirect registers accessor
*/
uint32_t rs690_mc_rreg(struct radeon_device *rdev, uint32_t reg)
/drivers/video/drm/radeon/rv515.c
25,12 → 25,11
* Alex Deucher
* Jerome Glisse
*/
#include <linux/seq_file.h>
//#include <linux/seq_file.h>
#include "drmP.h"
#include "rv515d.h"
#include "radeon_reg.h"
#include "radeon.h"
 
#include "rv515_reg_safe.h"
/* rv515 depends on : */
void r100_hdp_reset(struct radeon_device *rdev);
int r100_cp_reset(struct radeon_device *rdev);
37,6 → 36,8
int r100_rb2d_reset(struct radeon_device *rdev);
int r100_gui_wait_for_idle(struct radeon_device *rdev);
int r100_cp_init(struct radeon_device *rdev, unsigned ring_size);
int rv370_pcie_gart_enable(struct radeon_device *rdev);
void rv370_pcie_gart_disable(struct radeon_device *rdev);
void r420_pipes_init(struct radeon_device *rdev);
void rs600_mc_disable_clients(struct radeon_device *rdev);
void rs600_disable_vga(struct radeon_device *rdev);
51,7 → 52,6
void rv515_gpu_init(struct radeon_device *rdev);
int rv515_mc_wait_for_idle(struct radeon_device *rdev);
 
 
/*
* MC
*/
76,16 → 76,16
/* Setup GPU memory space */
rdev->mc.vram_location = 0xFFFFFFFFUL;
rdev->mc.gtt_location = 0xFFFFFFFFUL;
// if (rdev->flags & RADEON_IS_AGP) {
// r = radeon_agp_init(rdev);
// if (r) {
// printk(KERN_WARNING "[drm] Disabling AGP\n");
// rdev->flags &= ~RADEON_IS_AGP;
// rdev->mc.gtt_size = radeon_gart_size * 1024 * 1024;
// } else {
// rdev->mc.gtt_location = rdev->mc.agp_base;
// }
// }
if (rdev->flags & RADEON_IS_AGP) {
r = radeon_agp_init(rdev);
if (r) {
printk(KERN_WARNING "[drm] Disabling AGP\n");
rdev->flags &= ~RADEON_IS_AGP;
rdev->mc.gtt_size = radeon_gart_size * 1024 * 1024;
} else {
rdev->mc.gtt_location = rdev->mc.agp_base;
}
}
r = radeon_mc_setup(rdev);
if (r) {
return r;
98,26 → 98,26
"programming pipes. Bad things might happen.\n");
}
/* Write VRAM size in case we are limiting it */
WREG32(RADEON_CONFIG_MEMSIZE, rdev->mc.real_vram_size);
tmp = REG_SET(MC_FB_START, rdev->mc.vram_location >> 16);
WREG32(RADEON_CONFIG_MEMSIZE, rdev->mc.vram_size);
tmp = REG_SET(RV515_MC_FB_START, rdev->mc.vram_location >> 16);
WREG32(0x134, tmp);
tmp = rdev->mc.vram_location + rdev->mc.mc_vram_size - 1;
tmp = REG_SET(MC_FB_TOP, tmp >> 16);
tmp |= REG_SET(MC_FB_START, rdev->mc.vram_location >> 16);
WREG32_MC(MC_FB_LOCATION, tmp);
WREG32(HDP_FB_LOCATION, rdev->mc.vram_location >> 16);
tmp = rdev->mc.vram_location + rdev->mc.vram_size - 1;
tmp = REG_SET(RV515_MC_FB_TOP, tmp >> 16);
tmp |= REG_SET(RV515_MC_FB_START, rdev->mc.vram_location >> 16);
WREG32_MC(RV515_MC_FB_LOCATION, tmp);
WREG32(RS690_HDP_FB_LOCATION, rdev->mc.vram_location >> 16);
WREG32(0x310, rdev->mc.vram_location);
if (rdev->flags & RADEON_IS_AGP) {
tmp = rdev->mc.gtt_location + rdev->mc.gtt_size - 1;
tmp = REG_SET(MC_AGP_TOP, tmp >> 16);
tmp |= REG_SET(MC_AGP_START, rdev->mc.gtt_location >> 16);
WREG32_MC(MC_AGP_LOCATION, tmp);
WREG32_MC(MC_AGP_BASE, rdev->mc.agp_base);
WREG32_MC(MC_AGP_BASE_2, 0);
tmp = REG_SET(RV515_MC_AGP_TOP, tmp >> 16);
tmp |= REG_SET(RV515_MC_AGP_START, rdev->mc.gtt_location >> 16);
WREG32_MC(RV515_MC_AGP_LOCATION, tmp);
WREG32_MC(RV515_MC_AGP_BASE, rdev->mc.agp_base);
WREG32_MC(RV515_MC_AGP_BASE_2, 0);
} else {
WREG32_MC(MC_AGP_LOCATION, 0x0FFFFFFF);
WREG32_MC(MC_AGP_BASE, 0);
WREG32_MC(MC_AGP_BASE_2, 0);
WREG32_MC(RV515_MC_AGP_LOCATION, 0x0FFFFFFF);
WREG32_MC(RV515_MC_AGP_BASE, 0);
WREG32_MC(RV515_MC_AGP_BASE_2, 0);
}
return 0;
}
124,6 → 124,9
 
void rv515_mc_fini(struct radeon_device *rdev)
{
rv370_pcie_gart_disable(rdev);
radeon_gart_table_vram_free(rdev);
radeon_gart_fini(rdev);
}
 
 
132,74 → 135,101
*/
void rv515_ring_start(struct radeon_device *rdev)
{
unsigned gb_tile_config;
int r;
 
ENTER();
dbgprintf("%s\n",__FUNCTION__);
/* Sub pixel 1/12 so we can have 4K rendering according to doc */
gb_tile_config = R300_ENABLE_TILING | R300_TILE_SIZE_16;
switch (rdev->num_gb_pipes) {
case 2:
gb_tile_config |= R300_PIPE_COUNT_R300;
break;
case 3:
gb_tile_config |= R300_PIPE_COUNT_R420_3P;
break;
case 4:
gb_tile_config |= R300_PIPE_COUNT_R420;
break;
case 1:
default:
gb_tile_config |= R300_PIPE_COUNT_RV350;
break;
}
 
r = radeon_ring_lock(rdev, 64);
if (r) {
return;
}
radeon_ring_write(rdev, PACKET0(ISYNC_CNTL, 0));
radeon_ring_write(rdev, PACKET0(RADEON_ISYNC_CNTL, 0));
radeon_ring_write(rdev,
ISYNC_ANY2D_IDLE3D |
ISYNC_ANY3D_IDLE2D |
ISYNC_WAIT_IDLEGUI |
ISYNC_CPSCRATCH_IDLEGUI);
radeon_ring_write(rdev, PACKET0(WAIT_UNTIL, 0));
radeon_ring_write(rdev, WAIT_2D_IDLECLEAN | WAIT_3D_IDLECLEAN);
RADEON_ISYNC_ANY2D_IDLE3D |
RADEON_ISYNC_ANY3D_IDLE2D |
RADEON_ISYNC_WAIT_IDLEGUI |
RADEON_ISYNC_CPSCRATCH_IDLEGUI);
radeon_ring_write(rdev, PACKET0(R300_GB_TILE_CONFIG, 0));
radeon_ring_write(rdev, gb_tile_config);
radeon_ring_write(rdev, PACKET0(RADEON_WAIT_UNTIL, 0));
radeon_ring_write(rdev,
RADEON_WAIT_2D_IDLECLEAN |
RADEON_WAIT_3D_IDLECLEAN);
radeon_ring_write(rdev, PACKET0(0x170C, 0));
radeon_ring_write(rdev, 1 << 31);
radeon_ring_write(rdev, PACKET0(GB_SELECT, 0));
radeon_ring_write(rdev, PACKET0(R300_GB_SELECT, 0));
radeon_ring_write(rdev, 0);
radeon_ring_write(rdev, PACKET0(GB_ENABLE, 0));
radeon_ring_write(rdev, PACKET0(R300_GB_ENABLE, 0));
radeon_ring_write(rdev, 0);
radeon_ring_write(rdev, PACKET0(0x42C8, 0));
radeon_ring_write(rdev, (1 << rdev->num_gb_pipes) - 1);
radeon_ring_write(rdev, PACKET0(VAP_INDEX_OFFSET, 0));
radeon_ring_write(rdev, PACKET0(R500_VAP_INDEX_OFFSET, 0));
radeon_ring_write(rdev, 0);
radeon_ring_write(rdev, PACKET0(RB3D_DSTCACHE_CTLSTAT, 0));
radeon_ring_write(rdev, RB3D_DC_FLUSH | RB3D_DC_FREE);
radeon_ring_write(rdev, PACKET0(ZB_ZCACHE_CTLSTAT, 0));
radeon_ring_write(rdev, ZC_FLUSH | ZC_FREE);
radeon_ring_write(rdev, PACKET0(WAIT_UNTIL, 0));
radeon_ring_write(rdev, WAIT_2D_IDLECLEAN | WAIT_3D_IDLECLEAN);
radeon_ring_write(rdev, PACKET0(GB_AA_CONFIG, 0));
radeon_ring_write(rdev, PACKET0(R300_RB3D_DSTCACHE_CTLSTAT, 0));
radeon_ring_write(rdev, R300_RB3D_DC_FLUSH | R300_RB3D_DC_FREE);
radeon_ring_write(rdev, PACKET0(R300_RB3D_ZCACHE_CTLSTAT, 0));
radeon_ring_write(rdev, R300_ZC_FLUSH | R300_ZC_FREE);
radeon_ring_write(rdev, PACKET0(RADEON_WAIT_UNTIL, 0));
radeon_ring_write(rdev,
RADEON_WAIT_2D_IDLECLEAN |
RADEON_WAIT_3D_IDLECLEAN);
radeon_ring_write(rdev, PACKET0(R300_GB_AA_CONFIG, 0));
radeon_ring_write(rdev, 0);
radeon_ring_write(rdev, PACKET0(RB3D_DSTCACHE_CTLSTAT, 0));
radeon_ring_write(rdev, RB3D_DC_FLUSH | RB3D_DC_FREE);
radeon_ring_write(rdev, PACKET0(ZB_ZCACHE_CTLSTAT, 0));
radeon_ring_write(rdev, ZC_FLUSH | ZC_FREE);
radeon_ring_write(rdev, PACKET0(GB_MSPOS0, 0));
radeon_ring_write(rdev, PACKET0(R300_RB3D_DSTCACHE_CTLSTAT, 0));
radeon_ring_write(rdev, R300_RB3D_DC_FLUSH | R300_RB3D_DC_FREE);
radeon_ring_write(rdev, PACKET0(R300_RB3D_ZCACHE_CTLSTAT, 0));
radeon_ring_write(rdev, R300_ZC_FLUSH | R300_ZC_FREE);
radeon_ring_write(rdev, PACKET0(R300_GB_MSPOS0, 0));
radeon_ring_write(rdev,
((6 << MS_X0_SHIFT) |
(6 << MS_Y0_SHIFT) |
(6 << MS_X1_SHIFT) |
(6 << MS_Y1_SHIFT) |
(6 << MS_X2_SHIFT) |
(6 << MS_Y2_SHIFT) |
(6 << MSBD0_Y_SHIFT) |
(6 << MSBD0_X_SHIFT)));
radeon_ring_write(rdev, PACKET0(GB_MSPOS1, 0));
((6 << R300_MS_X0_SHIFT) |
(6 << R300_MS_Y0_SHIFT) |
(6 << R300_MS_X1_SHIFT) |
(6 << R300_MS_Y1_SHIFT) |
(6 << R300_MS_X2_SHIFT) |
(6 << R300_MS_Y2_SHIFT) |
(6 << R300_MSBD0_Y_SHIFT) |
(6 << R300_MSBD0_X_SHIFT)));
radeon_ring_write(rdev, PACKET0(R300_GB_MSPOS1, 0));
radeon_ring_write(rdev,
((6 << MS_X3_SHIFT) |
(6 << MS_Y3_SHIFT) |
(6 << MS_X4_SHIFT) |
(6 << MS_Y4_SHIFT) |
(6 << MS_X5_SHIFT) |
(6 << MS_Y5_SHIFT) |
(6 << MSBD1_SHIFT)));
radeon_ring_write(rdev, PACKET0(GA_ENHANCE, 0));
radeon_ring_write(rdev, GA_DEADLOCK_CNTL | GA_FASTSYNC_CNTL);
radeon_ring_write(rdev, PACKET0(GA_POLY_MODE, 0));
radeon_ring_write(rdev, FRONT_PTYPE_TRIANGE | BACK_PTYPE_TRIANGE);
radeon_ring_write(rdev, PACKET0(GA_ROUND_MODE, 0));
radeon_ring_write(rdev, GEOMETRY_ROUND_NEAREST | COLOR_ROUND_NEAREST);
((6 << R300_MS_X3_SHIFT) |
(6 << R300_MS_Y3_SHIFT) |
(6 << R300_MS_X4_SHIFT) |
(6 << R300_MS_Y4_SHIFT) |
(6 << R300_MS_X5_SHIFT) |
(6 << R300_MS_Y5_SHIFT) |
(6 << R300_MSBD1_SHIFT)));
radeon_ring_write(rdev, PACKET0(R300_GA_ENHANCE, 0));
radeon_ring_write(rdev, R300_GA_DEADLOCK_CNTL | R300_GA_FASTSYNC_CNTL);
radeon_ring_write(rdev, PACKET0(R300_GA_POLY_MODE, 0));
radeon_ring_write(rdev,
R300_FRONT_PTYPE_TRIANGE | R300_BACK_PTYPE_TRIANGE);
radeon_ring_write(rdev, PACKET0(R300_GA_ROUND_MODE, 0));
radeon_ring_write(rdev,
R300_GEOMETRY_ROUND_NEAREST |
R300_COLOR_ROUND_NEAREST);
radeon_ring_write(rdev, PACKET0(0x20C8, 0));
radeon_ring_write(rdev, 0);
radeon_ring_unlock_commit(rdev);
 
LEAVE();
dbgprintf("done %s\n",__FUNCTION__);
 
}
 
215,8 → 245,8
 
for (i = 0; i < rdev->usec_timeout; i++) {
/* read MC_STATUS */
tmp = RREG32_MC(MC_STATUS);
if (tmp & MC_STATUS_IDLE) {
tmp = RREG32_MC(RV515_MC_STATUS);
if (tmp & RV515_MC_STATUS_IDLE) {
return 0;
}
DRM_UDELAY(1);
255,6 → 285,7
}
}
 
 
int rv515_ga_reset(struct radeon_device *rdev)
{
uint32_t tmp;
261,25 → 292,25
bool reinit_cp;
int i;
 
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
reinit_cp = rdev->cp.ready;
rdev->cp.ready = false;
for (i = 0; i < rdev->usec_timeout; i++) {
WREG32(CP_CSQ_MODE, 0);
WREG32(CP_CSQ_CNTL, 0);
WREG32(RBBM_SOFT_RESET, 0x32005);
(void)RREG32(RBBM_SOFT_RESET);
WREG32(RADEON_CP_CSQ_MODE, 0);
WREG32(RADEON_CP_CSQ_CNTL, 0);
WREG32(RADEON_RBBM_SOFT_RESET, 0x32005);
(void)RREG32(RADEON_RBBM_SOFT_RESET);
udelay(200);
WREG32(RBBM_SOFT_RESET, 0);
WREG32(RADEON_RBBM_SOFT_RESET, 0);
/* Wait to prevent race in RBBM_STATUS */
mdelay(1);
tmp = RREG32(RBBM_STATUS);
tmp = RREG32(RADEON_RBBM_STATUS);
if (tmp & ((1 << 20) | (1 << 26))) {
DRM_ERROR("VAP & CP still busy (RBBM_STATUS=0x%08X)\n", tmp);
/* GA still busy soft reset it */
WREG32(0x429C, 0x200);
WREG32(VAP_PVS_STATE_FLUSH_REG, 0);
WREG32(R300_VAP_PVS_STATE_FLUSH_REG, 0);
WREG32(0x43E0, 0);
WREG32(0x43E4, 0);
WREG32(0x24AC, 0);
286,13 → 317,13
}
/* Wait to prevent race in RBBM_STATUS */
mdelay(1);
tmp = RREG32(RBBM_STATUS);
tmp = RREG32(RADEON_RBBM_STATUS);
if (!(tmp & ((1 << 20) | (1 << 26)))) {
break;
}
}
for (i = 0; i < rdev->usec_timeout; i++) {
tmp = RREG32(RBBM_STATUS);
tmp = RREG32(RADEON_RBBM_STATUS);
if (!(tmp & ((1 << 20) | (1 << 26)))) {
DRM_INFO("GA reset succeed (RBBM_STATUS=0x%08X)\n",
tmp);
306,7 → 337,7
}
DRM_UDELAY(1);
}
tmp = RREG32(RBBM_STATUS);
tmp = RREG32(RADEON_RBBM_STATUS);
DRM_ERROR("Failed to reset GA ! (RBBM_STATUS=0x%08X)\n", tmp);
return -1;
}
315,10 → 346,10
{
uint32_t status;
 
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
/* reset order likely matter */
status = RREG32(RBBM_STATUS);
status = RREG32(RADEON_RBBM_STATUS);
/* reset HDP */
r100_hdp_reset(rdev);
/* reset rb2d */
330,12 → 361,12
rv515_ga_reset(rdev);
}
/* reset CP */
status = RREG32(RBBM_STATUS);
status = RREG32(RADEON_RBBM_STATUS);
if (status & (1 << 16)) {
r100_cp_reset(rdev);
}
/* Check if GPU is idle */
status = RREG32(RBBM_STATUS);
status = RREG32(RADEON_RBBM_STATUS);
if (status & (1 << 31)) {
DRM_ERROR("Failed to reset GPU (RBBM_STATUS=0x%08X)\n", status);
return -1;
354,7 → 385,8
 
rdev->mc.vram_width = 128;
rdev->mc.vram_is_ddr = true;
tmp = RREG32_MC(RV515_MC_CNTL) & MEM_NUM_CHANNELS_MASK;
tmp = RREG32_MC(RV515_MC_CNTL);
tmp &= RV515_MEM_NUM_CHANNELS_MASK;
switch (tmp) {
case 0:
rdev->mc.vram_width = 64;
370,17 → 402,11
 
void rv515_vram_info(struct radeon_device *rdev)
{
fixed20_12 a;
 
rv515_vram_get_type(rdev);
rdev->mc.vram_size = RREG32(RADEON_CONFIG_MEMSIZE);
 
r100_vram_init_sizes(rdev);
/* FIXME: we should enforce default clock in case GPU is not in
* default setup
*/
a.full = rfixed_const(100);
rdev->pm.sclk.full = rfixed_const(rdev->clock.default_sclk);
rdev->pm.sclk.full = rfixed_div(rdev->pm.sclk, a);
rdev->mc.aper_base = drm_get_resource_start(rdev->ddev, 0);
rdev->mc.aper_size = drm_get_resource_len(rdev->ddev, 0);
}
 
 
391,19 → 417,38
{
uint32_t r;
 
WREG32(MC_IND_INDEX, 0x7f0000 | (reg & 0xffff));
r = RREG32(MC_IND_DATA);
WREG32(MC_IND_INDEX, 0);
WREG32(R520_MC_IND_INDEX, 0x7f0000 | (reg & 0xffff));
r = RREG32(R520_MC_IND_DATA);
WREG32(R520_MC_IND_INDEX, 0);
return r;
}
 
void rv515_mc_wreg(struct radeon_device *rdev, uint32_t reg, uint32_t v)
{
WREG32(MC_IND_INDEX, 0xff0000 | ((reg) & 0xffff));
WREG32(MC_IND_DATA, (v));
WREG32(MC_IND_INDEX, 0);
WREG32(R520_MC_IND_INDEX, 0xff0000 | ((reg) & 0xffff));
WREG32(R520_MC_IND_DATA, (v));
WREG32(R520_MC_IND_INDEX, 0);
}
 
uint32_t rv515_pcie_rreg(struct radeon_device *rdev, uint32_t reg)
{
uint32_t r;
 
WREG32(RADEON_PCIE_INDEX, ((reg) & 0x7ff));
(void)RREG32(RADEON_PCIE_INDEX);
r = RREG32(RADEON_PCIE_DATA);
return r;
}
 
void rv515_pcie_wreg(struct radeon_device *rdev, uint32_t reg, uint32_t v)
{
WREG32(RADEON_PCIE_INDEX, ((reg) & 0x7ff));
(void)RREG32(RADEON_PCIE_INDEX);
WREG32(RADEON_PCIE_DATA, (v));
(void)RREG32(RADEON_PCIE_DATA);
}
 
 
/*
* Debugfs info
*/
415,13 → 460,13
struct radeon_device *rdev = dev->dev_private;
uint32_t tmp;
 
tmp = RREG32(GB_PIPE_SELECT);
tmp = RREG32(R400_GB_PIPE_SELECT);
seq_printf(m, "GB_PIPE_SELECT 0x%08x\n", tmp);
tmp = RREG32(SU_REG_DEST);
tmp = RREG32(R500_SU_REG_DEST);
seq_printf(m, "SU_REG_DEST 0x%08x\n", tmp);
tmp = RREG32(GB_TILE_CONFIG);
tmp = RREG32(R300_GB_TILE_CONFIG);
seq_printf(m, "GB_TILE_CONFIG 0x%08x\n", tmp);
tmp = RREG32(DST_PIPE_CONFIG);
tmp = RREG32(R300_DST_PIPE_CONFIG);
seq_printf(m, "DST_PIPE_CONFIG 0x%08x\n", tmp);
return 0;
}
468,564 → 513,60
#endif
}
 
 
/*
* Asic initialization
*/
int rv515_init(struct radeon_device *rdev)
{
ENTER();
 
rdev->config.r300.reg_safe_bm = rv515_reg_safe_bm;
rdev->config.r300.reg_safe_bm_size = ARRAY_SIZE(rv515_reg_safe_bm);
return 0;
}
 
void atom_rv515_force_tv_scaler(struct radeon_device *rdev, struct radeon_crtc *crtc)
{
int index_reg = 0x6578 + crtc->crtc_offset;
int data_reg = 0x657c + crtc->crtc_offset;
 
WREG32(0x659C + crtc->crtc_offset, 0x0);
WREG32(0x6594 + crtc->crtc_offset, 0x705);
WREG32(0x65A4 + crtc->crtc_offset, 0x10001);
WREG32(0x65D8 + crtc->crtc_offset, 0x0);
WREG32(0x65B0 + crtc->crtc_offset, 0x0);
WREG32(0x65C0 + crtc->crtc_offset, 0x0);
WREG32(0x65D4 + crtc->crtc_offset, 0x0);
WREG32(index_reg, 0x0);
WREG32(data_reg, 0x841880A8);
WREG32(index_reg, 0x1);
WREG32(data_reg, 0x84208680);
WREG32(index_reg, 0x2);
WREG32(data_reg, 0xBFF880B0);
WREG32(index_reg, 0x100);
WREG32(data_reg, 0x83D88088);
WREG32(index_reg, 0x101);
WREG32(data_reg, 0x84608680);
WREG32(index_reg, 0x102);
WREG32(data_reg, 0xBFF080D0);
WREG32(index_reg, 0x200);
WREG32(data_reg, 0x83988068);
WREG32(index_reg, 0x201);
WREG32(data_reg, 0x84A08680);
WREG32(index_reg, 0x202);
WREG32(data_reg, 0xBFF080F8);
WREG32(index_reg, 0x300);
WREG32(data_reg, 0x83588058);
WREG32(index_reg, 0x301);
WREG32(data_reg, 0x84E08660);
WREG32(index_reg, 0x302);
WREG32(data_reg, 0xBFF88120);
WREG32(index_reg, 0x400);
WREG32(data_reg, 0x83188040);
WREG32(index_reg, 0x401);
WREG32(data_reg, 0x85008660);
WREG32(index_reg, 0x402);
WREG32(data_reg, 0xBFF88150);
WREG32(index_reg, 0x500);
WREG32(data_reg, 0x82D88030);
WREG32(index_reg, 0x501);
WREG32(data_reg, 0x85408640);
WREG32(index_reg, 0x502);
WREG32(data_reg, 0xBFF88180);
WREG32(index_reg, 0x600);
WREG32(data_reg, 0x82A08018);
WREG32(index_reg, 0x601);
WREG32(data_reg, 0x85808620);
WREG32(index_reg, 0x602);
WREG32(data_reg, 0xBFF081B8);
WREG32(index_reg, 0x700);
WREG32(data_reg, 0x82608010);
WREG32(index_reg, 0x701);
WREG32(data_reg, 0x85A08600);
WREG32(index_reg, 0x702);
WREG32(data_reg, 0x800081F0);
WREG32(index_reg, 0x800);
WREG32(data_reg, 0x8228BFF8);
WREG32(index_reg, 0x801);
WREG32(data_reg, 0x85E085E0);
WREG32(index_reg, 0x802);
WREG32(data_reg, 0xBFF88228);
WREG32(index_reg, 0x10000);
WREG32(data_reg, 0x82A8BF00);
WREG32(index_reg, 0x10001);
WREG32(data_reg, 0x82A08CC0);
WREG32(index_reg, 0x10002);
WREG32(data_reg, 0x8008BEF8);
WREG32(index_reg, 0x10100);
WREG32(data_reg, 0x81F0BF28);
WREG32(index_reg, 0x10101);
WREG32(data_reg, 0x83608CA0);
WREG32(index_reg, 0x10102);
WREG32(data_reg, 0x8018BED0);
WREG32(index_reg, 0x10200);
WREG32(data_reg, 0x8148BF38);
WREG32(index_reg, 0x10201);
WREG32(data_reg, 0x84408C80);
WREG32(index_reg, 0x10202);
WREG32(data_reg, 0x8008BEB8);
WREG32(index_reg, 0x10300);
WREG32(data_reg, 0x80B0BF78);
WREG32(index_reg, 0x10301);
WREG32(data_reg, 0x85008C20);
WREG32(index_reg, 0x10302);
WREG32(data_reg, 0x8020BEA0);
WREG32(index_reg, 0x10400);
WREG32(data_reg, 0x8028BF90);
WREG32(index_reg, 0x10401);
WREG32(data_reg, 0x85E08BC0);
WREG32(index_reg, 0x10402);
WREG32(data_reg, 0x8018BE90);
WREG32(index_reg, 0x10500);
WREG32(data_reg, 0xBFB8BFB0);
WREG32(index_reg, 0x10501);
WREG32(data_reg, 0x86C08B40);
WREG32(index_reg, 0x10502);
WREG32(data_reg, 0x8010BE90);
WREG32(index_reg, 0x10600);
WREG32(data_reg, 0xBF58BFC8);
WREG32(index_reg, 0x10601);
WREG32(data_reg, 0x87A08AA0);
WREG32(index_reg, 0x10602);
WREG32(data_reg, 0x8010BE98);
WREG32(index_reg, 0x10700);
WREG32(data_reg, 0xBF10BFF0);
WREG32(index_reg, 0x10701);
WREG32(data_reg, 0x886089E0);
WREG32(index_reg, 0x10702);
WREG32(data_reg, 0x8018BEB0);
WREG32(index_reg, 0x10800);
WREG32(data_reg, 0xBED8BFE8);
WREG32(index_reg, 0x10801);
WREG32(data_reg, 0x89408940);
WREG32(index_reg, 0x10802);
WREG32(data_reg, 0xBFE8BED8);
WREG32(index_reg, 0x20000);
WREG32(data_reg, 0x80008000);
WREG32(index_reg, 0x20001);
WREG32(data_reg, 0x90008000);
WREG32(index_reg, 0x20002);
WREG32(data_reg, 0x80008000);
WREG32(index_reg, 0x20003);
WREG32(data_reg, 0x80008000);
WREG32(index_reg, 0x20100);
WREG32(data_reg, 0x80108000);
WREG32(index_reg, 0x20101);
WREG32(data_reg, 0x8FE0BF70);
WREG32(index_reg, 0x20102);
WREG32(data_reg, 0xBFE880C0);
WREG32(index_reg, 0x20103);
WREG32(data_reg, 0x80008000);
WREG32(index_reg, 0x20200);
WREG32(data_reg, 0x8018BFF8);
WREG32(index_reg, 0x20201);
WREG32(data_reg, 0x8F80BF08);
WREG32(index_reg, 0x20202);
WREG32(data_reg, 0xBFD081A0);
WREG32(index_reg, 0x20203);
WREG32(data_reg, 0xBFF88000);
WREG32(index_reg, 0x20300);
WREG32(data_reg, 0x80188000);
WREG32(index_reg, 0x20301);
WREG32(data_reg, 0x8EE0BEC0);
WREG32(index_reg, 0x20302);
WREG32(data_reg, 0xBFB082A0);
WREG32(index_reg, 0x20303);
WREG32(data_reg, 0x80008000);
WREG32(index_reg, 0x20400);
WREG32(data_reg, 0x80188000);
WREG32(index_reg, 0x20401);
WREG32(data_reg, 0x8E00BEA0);
WREG32(index_reg, 0x20402);
WREG32(data_reg, 0xBF8883C0);
WREG32(index_reg, 0x20403);
WREG32(data_reg, 0x80008000);
WREG32(index_reg, 0x20500);
WREG32(data_reg, 0x80188000);
WREG32(index_reg, 0x20501);
WREG32(data_reg, 0x8D00BE90);
WREG32(index_reg, 0x20502);
WREG32(data_reg, 0xBF588500);
WREG32(index_reg, 0x20503);
WREG32(data_reg, 0x80008008);
WREG32(index_reg, 0x20600);
WREG32(data_reg, 0x80188000);
WREG32(index_reg, 0x20601);
WREG32(data_reg, 0x8BC0BE98);
WREG32(index_reg, 0x20602);
WREG32(data_reg, 0xBF308660);
WREG32(index_reg, 0x20603);
WREG32(data_reg, 0x80008008);
WREG32(index_reg, 0x20700);
WREG32(data_reg, 0x80108000);
WREG32(index_reg, 0x20701);
WREG32(data_reg, 0x8A80BEB0);
WREG32(index_reg, 0x20702);
WREG32(data_reg, 0xBF0087C0);
WREG32(index_reg, 0x20703);
WREG32(data_reg, 0x80008008);
WREG32(index_reg, 0x20800);
WREG32(data_reg, 0x80108000);
WREG32(index_reg, 0x20801);
WREG32(data_reg, 0x8920BED0);
WREG32(index_reg, 0x20802);
WREG32(data_reg, 0xBED08920);
WREG32(index_reg, 0x20803);
WREG32(data_reg, 0x80008010);
WREG32(index_reg, 0x30000);
WREG32(data_reg, 0x90008000);
WREG32(index_reg, 0x30001);
WREG32(data_reg, 0x80008000);
WREG32(index_reg, 0x30100);
WREG32(data_reg, 0x8FE0BF90);
WREG32(index_reg, 0x30101);
WREG32(data_reg, 0xBFF880A0);
WREG32(index_reg, 0x30200);
WREG32(data_reg, 0x8F60BF40);
WREG32(index_reg, 0x30201);
WREG32(data_reg, 0xBFE88180);
WREG32(index_reg, 0x30300);
WREG32(data_reg, 0x8EC0BF00);
WREG32(index_reg, 0x30301);
WREG32(data_reg, 0xBFC88280);
WREG32(index_reg, 0x30400);
WREG32(data_reg, 0x8DE0BEE0);
WREG32(index_reg, 0x30401);
WREG32(data_reg, 0xBFA083A0);
WREG32(index_reg, 0x30500);
WREG32(data_reg, 0x8CE0BED0);
WREG32(index_reg, 0x30501);
WREG32(data_reg, 0xBF7884E0);
WREG32(index_reg, 0x30600);
WREG32(data_reg, 0x8BA0BED8);
WREG32(index_reg, 0x30601);
WREG32(data_reg, 0xBF508640);
WREG32(index_reg, 0x30700);
WREG32(data_reg, 0x8A60BEE8);
WREG32(index_reg, 0x30701);
WREG32(data_reg, 0xBF2087A0);
WREG32(index_reg, 0x30800);
WREG32(data_reg, 0x8900BF00);
WREG32(index_reg, 0x30801);
WREG32(data_reg, 0xBF008900);
}
 
struct rv515_watermark {
u32 lb_request_fifo_depth;
fixed20_12 num_line_pair;
fixed20_12 estimated_width;
fixed20_12 worst_case_latency;
fixed20_12 consumption_rate;
fixed20_12 active_time;
fixed20_12 dbpp;
fixed20_12 priority_mark_max;
fixed20_12 priority_mark;
fixed20_12 sclk;
static const unsigned r500_reg_safe_bm[159] = {
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFBF, 0xFFFFFFFF, 0xFFFFFFBF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0x17FF1FFF, 0xFFFFFFFC, 0xFFFFFFFF, 0xFF30FFBF,
0xFFFFFFF8, 0xC3E6FFFF, 0xFFFFF6DF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFF03F,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFEFCE, 0xF00EBFFF, 0x007C0000,
0xF0000038, 0xFF000009, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0x00000000, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFF7FF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0x1FFFFC78, 0xFFFFE000, 0xFFFFFFFE, 0xFFFFFFFF,
0x38CF8F50, 0xFFF88082, 0xFF0000FC, 0xFAE009FF,
0x0000FFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0x00000000,
0xFFFF8CFC, 0xFFFFC1FF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF,
0xFFFFFFFF, 0xFFFFFFFF, 0xFFFFFFFF, 0xFF80FFFF,
0x00000000, 0x00000000, 0x00000000, 0x00000000,
0x0003FC01, 0x3FFFFCF8, 0xFE800B19,
};
 
void rv515_crtc_bandwidth_compute(struct radeon_device *rdev,
struct radeon_crtc *crtc,
struct rv515_watermark *wm)
{
struct drm_display_mode *mode = &crtc->base.mode;
fixed20_12 a, b, c;
fixed20_12 pclk, request_fifo_depth, tolerable_latency, estimated_width;
fixed20_12 consumption_time, line_time, chunk_time, read_delay_latency;
 
if (!crtc->base.enabled) {
/* FIXME: wouldn't it better to set priority mark to maximum */
wm->lb_request_fifo_depth = 4;
return;
}
 
if (crtc->vsc.full > rfixed_const(2))
wm->num_line_pair.full = rfixed_const(2);
else
wm->num_line_pair.full = rfixed_const(1);
 
b.full = rfixed_const(mode->crtc_hdisplay);
c.full = rfixed_const(256);
a.full = rfixed_mul(wm->num_line_pair, b);
request_fifo_depth.full = rfixed_div(a, c);
if (a.full < rfixed_const(4)) {
wm->lb_request_fifo_depth = 4;
} else {
wm->lb_request_fifo_depth = rfixed_trunc(request_fifo_depth);
}
 
/* Determine consumption rate
* pclk = pixel clock period(ns) = 1000 / (mode.clock / 1000)
* vtaps = number of vertical taps,
* vsc = vertical scaling ratio, defined as source/destination
* hsc = horizontal scaling ration, defined as source/destination
*/
a.full = rfixed_const(mode->clock);
b.full = rfixed_const(1000);
a.full = rfixed_div(a, b);
pclk.full = rfixed_div(b, a);
if (crtc->rmx_type != RMX_OFF) {
b.full = rfixed_const(2);
if (crtc->vsc.full > b.full)
b.full = crtc->vsc.full;
b.full = rfixed_mul(b, crtc->hsc);
c.full = rfixed_const(2);
b.full = rfixed_div(b, c);
consumption_time.full = rfixed_div(pclk, b);
} else {
consumption_time.full = pclk.full;
}
a.full = rfixed_const(1);
wm->consumption_rate.full = rfixed_div(a, consumption_time);
 
 
/* Determine line time
* LineTime = total time for one line of displayhtotal
* LineTime = total number of horizontal pixels
* pclk = pixel clock period(ns)
*/
a.full = rfixed_const(crtc->base.mode.crtc_htotal);
line_time.full = rfixed_mul(a, pclk);
 
/* Determine active time
* ActiveTime = time of active region of display within one line,
* hactive = total number of horizontal active pixels
* htotal = total number of horizontal pixels
*/
a.full = rfixed_const(crtc->base.mode.crtc_htotal);
b.full = rfixed_const(crtc->base.mode.crtc_hdisplay);
wm->active_time.full = rfixed_mul(line_time, b);
wm->active_time.full = rfixed_div(wm->active_time, a);
 
/* Determine chunk time
* ChunkTime = the time it takes the DCP to send one chunk of data
* to the LB which consists of pipeline delay and inter chunk gap
* sclk = system clock(Mhz)
*/
a.full = rfixed_const(600 * 1000);
chunk_time.full = rfixed_div(a, rdev->pm.sclk);
read_delay_latency.full = rfixed_const(1000);
 
/* Determine the worst case latency
* NumLinePair = Number of line pairs to request(1=2 lines, 2=4 lines)
* WorstCaseLatency = worst case time from urgent to when the MC starts
* to return data
* READ_DELAY_IDLE_MAX = constant of 1us
* ChunkTime = time it takes the DCP to send one chunk of data to the LB
* which consists of pipeline delay and inter chunk gap
*/
if (rfixed_trunc(wm->num_line_pair) > 1) {
a.full = rfixed_const(3);
wm->worst_case_latency.full = rfixed_mul(a, chunk_time);
wm->worst_case_latency.full += read_delay_latency.full;
} else {
wm->worst_case_latency.full = chunk_time.full + read_delay_latency.full;
}
 
/* Determine the tolerable latency
* TolerableLatency = Any given request has only 1 line time
* for the data to be returned
* LBRequestFifoDepth = Number of chunk requests the LB can
* put into the request FIFO for a display
* LineTime = total time for one line of display
* ChunkTime = the time it takes the DCP to send one chunk
* of data to the LB which consists of
* pipeline delay and inter chunk gap
*/
if ((2+wm->lb_request_fifo_depth) >= rfixed_trunc(request_fifo_depth)) {
tolerable_latency.full = line_time.full;
} else {
tolerable_latency.full = rfixed_const(wm->lb_request_fifo_depth - 2);
tolerable_latency.full = request_fifo_depth.full - tolerable_latency.full;
tolerable_latency.full = rfixed_mul(tolerable_latency, chunk_time);
tolerable_latency.full = line_time.full - tolerable_latency.full;
}
/* We assume worst case 32bits (4 bytes) */
wm->dbpp.full = rfixed_const(2 * 16);
 
/* Determine the maximum priority mark
* width = viewport width in pixels
*/
a.full = rfixed_const(16);
wm->priority_mark_max.full = rfixed_const(crtc->base.mode.crtc_hdisplay);
wm->priority_mark_max.full = rfixed_div(wm->priority_mark_max, a);
 
/* Determine estimated width */
estimated_width.full = tolerable_latency.full - wm->worst_case_latency.full;
estimated_width.full = rfixed_div(estimated_width, consumption_time);
if (rfixed_trunc(estimated_width) > crtc->base.mode.crtc_hdisplay) {
wm->priority_mark.full = rfixed_const(10);
} else {
a.full = rfixed_const(16);
wm->priority_mark.full = rfixed_div(estimated_width, a);
wm->priority_mark.full = wm->priority_mark_max.full - wm->priority_mark.full;
}
}
 
void rv515_bandwidth_avivo_update(struct radeon_device *rdev)
int rv515_init(struct radeon_device *rdev)
{
struct drm_display_mode *mode0 = NULL;
struct drm_display_mode *mode1 = NULL;
struct rv515_watermark wm0;
struct rv515_watermark wm1;
u32 tmp;
fixed20_12 priority_mark02, priority_mark12, fill_rate;
fixed20_12 a, b;
dbgprintf("%s\n",__FUNCTION__);
 
if (rdev->mode_info.crtcs[0]->base.enabled)
mode0 = &rdev->mode_info.crtcs[0]->base.mode;
if (rdev->mode_info.crtcs[1]->base.enabled)
mode1 = &rdev->mode_info.crtcs[1]->base.mode;
rs690_line_buffer_adjust(rdev, mode0, mode1);
 
rv515_crtc_bandwidth_compute(rdev, rdev->mode_info.crtcs[0], &wm0);
rv515_crtc_bandwidth_compute(rdev, rdev->mode_info.crtcs[1], &wm1);
 
tmp = wm0.lb_request_fifo_depth;
tmp |= wm1.lb_request_fifo_depth << 16;
WREG32(LB_MAX_REQ_OUTSTANDING, tmp);
 
if (mode0 && mode1) {
if (rfixed_trunc(wm0.dbpp) > 64)
a.full = rfixed_div(wm0.dbpp, wm0.num_line_pair);
else
a.full = wm0.num_line_pair.full;
if (rfixed_trunc(wm1.dbpp) > 64)
b.full = rfixed_div(wm1.dbpp, wm1.num_line_pair);
else
b.full = wm1.num_line_pair.full;
a.full += b.full;
fill_rate.full = rfixed_div(wm0.sclk, a);
if (wm0.consumption_rate.full > fill_rate.full) {
b.full = wm0.consumption_rate.full - fill_rate.full;
b.full = rfixed_mul(b, wm0.active_time);
a.full = rfixed_const(16);
b.full = rfixed_div(b, a);
a.full = rfixed_mul(wm0.worst_case_latency,
wm0.consumption_rate);
priority_mark02.full = a.full + b.full;
} else {
a.full = rfixed_mul(wm0.worst_case_latency,
wm0.consumption_rate);
b.full = rfixed_const(16 * 1000);
priority_mark02.full = rfixed_div(a, b);
rdev->config.r300.reg_safe_bm = r500_reg_safe_bm;
rdev->config.r300.reg_safe_bm_size = ARRAY_SIZE(r500_reg_safe_bm);
return 0;
}
if (wm1.consumption_rate.full > fill_rate.full) {
b.full = wm1.consumption_rate.full - fill_rate.full;
b.full = rfixed_mul(b, wm1.active_time);
a.full = rfixed_const(16);
b.full = rfixed_div(b, a);
a.full = rfixed_mul(wm1.worst_case_latency,
wm1.consumption_rate);
priority_mark12.full = a.full + b.full;
} else {
a.full = rfixed_mul(wm1.worst_case_latency,
wm1.consumption_rate);
b.full = rfixed_const(16 * 1000);
priority_mark12.full = rfixed_div(a, b);
}
if (wm0.priority_mark.full > priority_mark02.full)
priority_mark02.full = wm0.priority_mark.full;
if (rfixed_trunc(priority_mark02) < 0)
priority_mark02.full = 0;
if (wm0.priority_mark_max.full > priority_mark02.full)
priority_mark02.full = wm0.priority_mark_max.full;
if (wm1.priority_mark.full > priority_mark12.full)
priority_mark12.full = wm1.priority_mark.full;
if (rfixed_trunc(priority_mark12) < 0)
priority_mark12.full = 0;
if (wm1.priority_mark_max.full > priority_mark12.full)
priority_mark12.full = wm1.priority_mark_max.full;
WREG32(D1MODE_PRIORITY_A_CNT, rfixed_trunc(priority_mark02));
WREG32(D1MODE_PRIORITY_B_CNT, rfixed_trunc(priority_mark02));
WREG32(D2MODE_PRIORITY_A_CNT, rfixed_trunc(priority_mark12));
WREG32(D2MODE_PRIORITY_B_CNT, rfixed_trunc(priority_mark12));
} else if (mode0) {
if (rfixed_trunc(wm0.dbpp) > 64)
a.full = rfixed_div(wm0.dbpp, wm0.num_line_pair);
else
a.full = wm0.num_line_pair.full;
fill_rate.full = rfixed_div(wm0.sclk, a);
if (wm0.consumption_rate.full > fill_rate.full) {
b.full = wm0.consumption_rate.full - fill_rate.full;
b.full = rfixed_mul(b, wm0.active_time);
a.full = rfixed_const(16);
b.full = rfixed_div(b, a);
a.full = rfixed_mul(wm0.worst_case_latency,
wm0.consumption_rate);
priority_mark02.full = a.full + b.full;
} else {
a.full = rfixed_mul(wm0.worst_case_latency,
wm0.consumption_rate);
b.full = rfixed_const(16);
priority_mark02.full = rfixed_div(a, b);
}
if (wm0.priority_mark.full > priority_mark02.full)
priority_mark02.full = wm0.priority_mark.full;
if (rfixed_trunc(priority_mark02) < 0)
priority_mark02.full = 0;
if (wm0.priority_mark_max.full > priority_mark02.full)
priority_mark02.full = wm0.priority_mark_max.full;
WREG32(D1MODE_PRIORITY_A_CNT, rfixed_trunc(priority_mark02));
WREG32(D1MODE_PRIORITY_B_CNT, rfixed_trunc(priority_mark02));
WREG32(D2MODE_PRIORITY_A_CNT, MODE_PRIORITY_OFF);
WREG32(D2MODE_PRIORITY_B_CNT, MODE_PRIORITY_OFF);
} else {
if (rfixed_trunc(wm1.dbpp) > 64)
a.full = rfixed_div(wm1.dbpp, wm1.num_line_pair);
else
a.full = wm1.num_line_pair.full;
fill_rate.full = rfixed_div(wm1.sclk, a);
if (wm1.consumption_rate.full > fill_rate.full) {
b.full = wm1.consumption_rate.full - fill_rate.full;
b.full = rfixed_mul(b, wm1.active_time);
a.full = rfixed_const(16);
b.full = rfixed_div(b, a);
a.full = rfixed_mul(wm1.worst_case_latency,
wm1.consumption_rate);
priority_mark12.full = a.full + b.full;
} else {
a.full = rfixed_mul(wm1.worst_case_latency,
wm1.consumption_rate);
b.full = rfixed_const(16 * 1000);
priority_mark12.full = rfixed_div(a, b);
}
if (wm1.priority_mark.full > priority_mark12.full)
priority_mark12.full = wm1.priority_mark.full;
if (rfixed_trunc(priority_mark12) < 0)
priority_mark12.full = 0;
if (wm1.priority_mark_max.full > priority_mark12.full)
priority_mark12.full = wm1.priority_mark_max.full;
WREG32(D1MODE_PRIORITY_A_CNT, MODE_PRIORITY_OFF);
WREG32(D1MODE_PRIORITY_B_CNT, MODE_PRIORITY_OFF);
WREG32(D2MODE_PRIORITY_A_CNT, rfixed_trunc(priority_mark12));
WREG32(D2MODE_PRIORITY_B_CNT, rfixed_trunc(priority_mark12));
}
}
 
void rv515_bandwidth_update(struct radeon_device *rdev)
{
uint32_t tmp;
struct drm_display_mode *mode0 = NULL;
struct drm_display_mode *mode1 = NULL;
 
if (rdev->mode_info.crtcs[0]->base.enabled)
mode0 = &rdev->mode_info.crtcs[0]->base.mode;
if (rdev->mode_info.crtcs[1]->base.enabled)
mode1 = &rdev->mode_info.crtcs[1]->base.mode;
/*
* Set display0/1 priority up in the memory controller for
* modes if the user specifies HIGH for displaypriority
* option.
*/
if (rdev->disp_priority == 2) {
tmp = RREG32_MC(MC_MISC_LAT_TIMER);
tmp &= ~MC_DISP1R_INIT_LAT_MASK;
tmp &= ~MC_DISP0R_INIT_LAT_MASK;
if (mode1)
tmp |= (1 << MC_DISP1R_INIT_LAT_SHIFT);
if (mode0)
tmp |= (1 << MC_DISP0R_INIT_LAT_SHIFT);
WREG32_MC(MC_MISC_LAT_TIMER, tmp);
}
rv515_bandwidth_avivo_update(rdev);
}
/drivers/video/drm/radeon/r600.c
67,7 → 67,7
"programming pipes. Bad things might happen.\n");
}
 
tmp = rdev->mc.vram_location + rdev->mc.mc_vram_size - 1;
tmp = rdev->mc.vram_location + rdev->mc.vram_size - 1;
tmp = REG_SET(R600_MC_FB_TOP, tmp >> 24);
tmp |= REG_SET(R600_MC_FB_BASE, rdev->mc.vram_location >> 24);
WREG32(R600_MC_VM_FB_LOCATION, tmp);
140,8 → 140,7
void r600_vram_info(struct radeon_device *rdev)
{
r600_vram_get_type(rdev);
rdev->mc.real_vram_size = RREG32(R600_CONFIG_MEMSIZE);
rdev->mc.mc_vram_size = rdev->mc.real_vram_size;
rdev->mc.vram_size = RREG32(R600_CONFIG_MEMSIZE);
 
/* Could aper size report 0 ? */
rdev->mc.aper_base = drm_get_resource_start(rdev->ddev, 0);
/drivers/video/drm/radeon/radeon.h
45,23 → 45,18
*/
 
#include <types.h>
#include <linux/list.h>
#include <list.h>
 
#include <pci.h>
 
#include <errno-base.h>
#include "drm_edid.h"
 
#include "radeon_family.h"
#include "radeon_mode.h"
#include "radeon_reg.h"
#include "r300.h"
 
#include <syscall.h>
 
/*
* Modules parameters.
*/
extern int radeon_no_wb;
extern int radeon_modeset;
extern int radeon_dynclks;
extern int radeon_r4xx_atom;
69,62 → 64,8
extern int radeon_vram_limit;
extern int radeon_gart_size;
extern int radeon_benchmarking;
extern int radeon_testing;
extern int radeon_connector_table;
extern int radeon_tv;
 
 
static inline uint8_t __raw_readb(const volatile void __iomem *addr)
{
return *(const volatile uint8_t __force *) addr;
}
 
static inline uint16_t __raw_readw(const volatile void __iomem *addr)
{
return *(const volatile uint16_t __force *) addr;
}
 
static inline uint32_t __raw_readl(const volatile void __iomem *addr)
{
return *(const volatile uint32_t __force *) addr;
}
 
#define readb __raw_readb
#define readw __raw_readw
#define readl __raw_readl
 
 
 
static inline void __raw_writeb(uint8_t b, volatile void __iomem *addr)
{
*(volatile uint8_t __force *) addr = b;
}
 
static inline void __raw_writew(uint16_t b, volatile void __iomem *addr)
{
*(volatile uint16_t __force *) addr = b;
}
 
static inline void __raw_writel(uint32_t b, volatile void __iomem *addr)
{
*(volatile uint32_t __force *) addr = b;
}
 
static inline void __raw_writeq(__u64 b, volatile void __iomem *addr)
{
*(volatile __u64 *)addr = b;
}
 
#define writeb __raw_writeb
#define writew __raw_writew
#define writel __raw_writel
#define writeq __raw_writeq
 
//#define writeb(b,addr) *(volatile uint8_t* ) addr = (uint8_t)b
//#define writew(b,addr) *(volatile uint16_t*) addr = (uint16_t)b
//#define writel(b,addr) *(volatile uint32_t*) addr = (uint32_t)b
 
 
/*
* Copy from radeon_drv.h so we don't have to include both and have conflicting
* symbol;
133,8 → 74,63
#define RADEON_IB_POOL_SIZE 16
#define RADEON_DEBUGFS_MAX_NUM_FILES 32
#define RADEONFB_CONN_LIMIT 4
#define RADEON_BIOS_NUM_SCRATCH 8
 
enum radeon_family {
CHIP_R100,
CHIP_RV100,
CHIP_RS100,
CHIP_RV200,
CHIP_RS200,
CHIP_R200,
CHIP_RV250,
CHIP_RS300,
CHIP_RV280,
CHIP_R300,
CHIP_R350,
CHIP_RV350,
CHIP_RV380,
CHIP_R420,
CHIP_R423,
CHIP_RV410,
CHIP_RS400,
CHIP_RS480,
CHIP_RS600,
CHIP_RS690,
CHIP_RS740,
CHIP_RV515,
CHIP_R520,
CHIP_RV530,
CHIP_RV560,
CHIP_RV570,
CHIP_R580,
CHIP_R600,
CHIP_RV610,
CHIP_RV630,
CHIP_RV620,
CHIP_RV635,
CHIP_RV670,
CHIP_RS780,
CHIP_RV770,
CHIP_RV730,
CHIP_RV710,
CHIP_LAST,
};
 
enum radeon_chip_flags {
RADEON_FAMILY_MASK = 0x0000ffffUL,
RADEON_FLAGS_MASK = 0xffff0000UL,
RADEON_IS_MOBILITY = 0x00010000UL,
RADEON_IS_IGP = 0x00020000UL,
RADEON_SINGLE_CRTC = 0x00040000UL,
RADEON_IS_AGP = 0x00080000UL,
RADEON_HAS_HIERZ = 0x00100000UL,
RADEON_IS_PCIE = 0x00200000UL,
RADEON_NEW_MEMMAP = 0x00400000UL,
RADEON_IS_PCI = 0x00800000UL,
RADEON_IS_IGPGART = 0x01000000UL,
};
 
 
/*
* Errata workarounds.
*/
153,21 → 149,10
*/
bool radeon_get_bios(struct radeon_device *rdev);
 
 
/*
* Dummy page
* Clocks
*/
struct radeon_dummy_page {
struct page *page;
dma_addr_t addr;
};
int radeon_dummy_page_init(struct radeon_device *rdev);
void radeon_dummy_page_fini(struct radeon_device *rdev);
 
 
/*
* Clocks
*/
struct radeon_clock {
struct radeon_pll p1pll;
struct radeon_pll p2pll;
178,7 → 163,6
uint32_t default_sclk;
};
 
 
/*
* Fences.
*/
217,15 → 201,7
struct radeon_fence *radeon_fence_ref(struct radeon_fence *fence);
void radeon_fence_unref(struct radeon_fence **fence);
 
/*
* Tiling registers
*/
struct radeon_surface_reg {
struct radeon_object *robj;
};
 
#define RADEON_GEM_MAX_SURFACES 8
 
/*
* Radeon buffer.
*/
237,7 → 213,6
uint64_t gpu_offset;
unsigned rdomain;
unsigned wdomain;
uint32_t tiling_flags;
};
 
int radeon_object_init(struct radeon_device *rdev);
319,18 → 294,11
resource_size_t aper_size;
resource_size_t aper_base;
resource_size_t agp_base;
/* for some chips with <= 32MB we need to lie
* about vram size near mc fb location */
u64 mc_vram_size;
u64 gtt_location;
u64 gtt_size;
u64 gtt_start;
u64 gtt_end;
u64 vram_location;
u64 vram_start;
u64 vram_end;
unsigned gtt_location;
unsigned gtt_size;
unsigned vram_location;
unsigned vram_size;
unsigned vram_width;
u64 real_vram_size;
int vram_mtrr;
bool vram_is_ddr;
};
377,10 → 345,6
uint32_t length_dw;
};
 
/*
* locking -
* mutex protects scheduled_ibs, ready, alloc_bm
*/
struct radeon_ib_pool {
// struct mutex mutex;
struct radeon_object *robj;
406,16 → 370,6
bool ready;
};
 
struct r600_blit {
struct radeon_object *shader_obj;
u64 shader_gpu_addr;
u32 vs_offset, ps_offset;
u32 state_offset;
u32 state_len;
u32 vb_used, vb_total;
struct radeon_ib *vb_ib;
};
 
int radeon_ib_get(struct radeon_device *rdev, struct radeon_ib **ib);
void radeon_ib_free(struct radeon_device *rdev, struct radeon_ib **ib);
int radeon_ib_schedule(struct radeon_device *rdev, struct radeon_ib *ib);
468,7 → 422,6
int chunk_relocs_idx;
struct radeon_ib *ib;
void *track;
unsigned family;
};
 
struct radeon_cs_packet {
503,38 → 456,6
uint64_t gpu_addr;
};
 
/**
* struct radeon_pm - power management datas
* @max_bandwidth: maximum bandwidth the gpu has (MByte/s)
* @igp_sideport_mclk: sideport memory clock Mhz (rs690,rs740,rs780,rs880)
* @igp_system_mclk: system clock Mhz (rs690,rs740,rs780,rs880)
* @igp_ht_link_clk: ht link clock Mhz (rs690,rs740,rs780,rs880)
* @igp_ht_link_width: ht link width in bits (rs690,rs740,rs780,rs880)
* @k8_bandwidth: k8 bandwidth the gpu has (MByte/s) (IGP)
* @sideport_bandwidth: sideport bandwidth the gpu has (MByte/s) (IGP)
* @ht_bandwidth: ht bandwidth the gpu has (MByte/s) (IGP)
* @core_bandwidth: core GPU bandwidth the gpu has (MByte/s) (IGP)
* @sclk: GPU clock Mhz (core bandwith depends of this clock)
* @needed_bandwidth: current bandwidth needs
*
* It keeps track of various data needed to take powermanagement decision.
* Bandwith need is used to determine minimun clock of the GPU and memory.
* Equation between gpu/memory clock and available bandwidth is hw dependent
* (type of memory, bus size, efficiency, ...)
*/
struct radeon_pm {
fixed20_12 max_bandwidth;
fixed20_12 igp_sideport_mclk;
fixed20_12 igp_system_mclk;
fixed20_12 igp_ht_link_clk;
fixed20_12 igp_ht_link_width;
fixed20_12 k8_bandwidth;
fixed20_12 sideport_bandwidth;
fixed20_12 ht_bandwidth;
fixed20_12 core_bandwidth;
fixed20_12 sclk;
fixed20_12 needed_bandwidth;
};
 
/*
* ASIC specific functions.
541,19 → 462,13
*/
struct radeon_asic {
int (*init)(struct radeon_device *rdev);
void (*fini)(struct radeon_device *rdev);
int (*resume)(struct radeon_device *rdev);
int (*suspend)(struct radeon_device *rdev);
void (*errata)(struct radeon_device *rdev);
void (*vram_info)(struct radeon_device *rdev);
void (*vga_set_state)(struct radeon_device *rdev, bool state);
int (*gpu_reset)(struct radeon_device *rdev);
int (*mc_init)(struct radeon_device *rdev);
void (*mc_fini)(struct radeon_device *rdev);
int (*wb_init)(struct radeon_device *rdev);
void (*wb_fini)(struct radeon_device *rdev);
int (*gart_init)(struct radeon_device *rdev);
void (*gart_fini)(struct radeon_device *rdev);
int (*gart_enable)(struct radeon_device *rdev);
void (*gart_disable)(struct radeon_device *rdev);
void (*gart_tlb_flush)(struct radeon_device *rdev);
561,14 → 476,9
int (*cp_init)(struct radeon_device *rdev, unsigned ring_size);
void (*cp_fini)(struct radeon_device *rdev);
void (*cp_disable)(struct radeon_device *rdev);
void (*cp_commit)(struct radeon_device *rdev);
void (*ring_start)(struct radeon_device *rdev);
int (*ring_test)(struct radeon_device *rdev);
void (*ring_ib_execute)(struct radeon_device *rdev, struct radeon_ib *ib);
int (*ib_test)(struct radeon_device *rdev);
int (*irq_set)(struct radeon_device *rdev);
int (*irq_process)(struct radeon_device *rdev);
u32 (*get_vblank_counter)(struct radeon_device *rdev, int crtc);
void (*fence_ring_emit)(struct radeon_device *rdev, struct radeon_fence *fence);
int (*cs_parse)(struct radeon_cs_parser *p);
int (*copy_blit)(struct radeon_device *rdev,
590,75 → 500,14
void (*set_memory_clock)(struct radeon_device *rdev, uint32_t mem_clock);
void (*set_pcie_lanes)(struct radeon_device *rdev, int lanes);
void (*set_clock_gating)(struct radeon_device *rdev, int enable);
int (*set_surface_reg)(struct radeon_device *rdev, int reg,
uint32_t tiling_flags, uint32_t pitch,
uint32_t offset, uint32_t obj_size);
int (*clear_surface_reg)(struct radeon_device *rdev, int reg);
void (*bandwidth_update)(struct radeon_device *rdev);
};
 
/*
* Asic structures
*/
struct r100_asic {
const unsigned *reg_safe_bm;
unsigned reg_safe_bm_size;
};
 
struct r300_asic {
const unsigned *reg_safe_bm;
unsigned reg_safe_bm_size;
};
 
struct r600_asic {
unsigned max_pipes;
unsigned max_tile_pipes;
unsigned max_simds;
unsigned max_backends;
unsigned max_gprs;
unsigned max_threads;
unsigned max_stack_entries;
unsigned max_hw_contexts;
unsigned max_gs_threads;
unsigned sx_max_export_size;
unsigned sx_max_export_pos_size;
unsigned sx_max_export_smx_size;
unsigned sq_num_cf_insts;
};
 
struct rv770_asic {
unsigned max_pipes;
unsigned max_tile_pipes;
unsigned max_simds;
unsigned max_backends;
unsigned max_gprs;
unsigned max_threads;
unsigned max_stack_entries;
unsigned max_hw_contexts;
unsigned max_gs_threads;
unsigned sx_max_export_size;
unsigned sx_max_export_pos_size;
unsigned sx_max_export_smx_size;
unsigned sq_num_cf_insts;
unsigned sx_num_of_sets;
unsigned sc_prim_fifo_size;
unsigned sc_hiz_tile_fifo_size;
unsigned sc_earlyz_tile_fifo_fize;
};
 
union radeon_asic_config {
struct r300_asic r300;
struct r100_asic r100;
struct r600_asic r600;
struct rv770_asic rv770;
};
 
 
/*
 
 
 
 
/*
* Core structure, functions and helpers.
*/
675,7 → 524,6
int usec_timeout;
enum radeon_pll_errata pll_errata;
int num_gb_pipes;
int num_z_pipes;
int disp_priority;
/* BIOS */
uint8_t *bios;
686,15 → 534,20
struct fb_info *fbdev_info;
struct radeon_object *fbdev_robj;
struct radeon_framebuffer *fbdev_rfb;
 
/* Register mmio */
unsigned long rmmio_base;
unsigned long rmmio_size;
void *rmmio;
 
radeon_rreg_t mm_rreg;
radeon_wreg_t mm_wreg;
radeon_rreg_t mc_rreg;
radeon_wreg_t mc_wreg;
radeon_rreg_t pll_rreg;
radeon_wreg_t pll_wreg;
uint32_t pcie_reg_mask;
radeon_rreg_t pcie_rreg;
radeon_wreg_t pcie_wreg;
radeon_rreg_t pciep_rreg;
radeon_wreg_t pciep_wreg;
struct radeon_clock clock;
709,21 → 562,11
// struct radeon_irq irq;
struct radeon_asic *asic;
struct radeon_gem gem;
struct radeon_pm pm;
uint32_t bios_scratch[RADEON_BIOS_NUM_SCRATCH];
// struct mutex cs_mutex;
struct radeon_wb wb;
struct radeon_dummy_page dummy_page;
bool gpu_lockup;
bool shutdown;
bool suspend;
bool need_dma32;
bool new_init_path;
bool accel_working;
struct radeon_surface_reg surface_regs[RADEON_GEM_MAX_SURFACES];
const struct firmware *me_fw; /* all family ME firmware */
const struct firmware *pfp_fw; /* r6/700 PFP firmware */
struct r600_blit r600_blit;
};
 
int radeon_device_init(struct radeon_device *rdev,
733,41 → 576,70
void radeon_device_fini(struct radeon_device *rdev);
int radeon_gpu_wait_for_idle(struct radeon_device *rdev);
 
/* r600 blit */
int r600_blit_prepare_copy(struct radeon_device *rdev, int size_bytes);
void r600_blit_done_copy(struct radeon_device *rdev, struct radeon_fence *fence);
void r600_kms_blit_copy(struct radeon_device *rdev,
u64 src_gpu_addr, u64 dst_gpu_addr,
int size_bytes);
#define __iomem
#define __force
 
static inline uint32_t r100_mm_rreg(struct radeon_device *rdev, uint32_t reg)
 
 
static inline uint8_t __raw_readb(const volatile void __iomem *addr)
{
if (reg < 0x10000)
return readl(((void __iomem *)rdev->rmmio) + reg);
else {
writel(reg, ((void __iomem *)rdev->rmmio) + RADEON_MM_INDEX);
return readl(((void __iomem *)rdev->rmmio) + RADEON_MM_DATA);
return *(const volatile uint8_t __force *) addr;
}
 
static inline uint16_t __raw_readw(const volatile void __iomem *addr)
{
return *(const volatile uint16_t __force *) addr;
}
 
static inline void r100_mm_wreg(struct radeon_device *rdev, uint32_t reg, uint32_t v)
static inline uint32_t __raw_readl(const volatile void __iomem *addr)
{
if (reg < 0x10000)
writel(v, ((void __iomem *)rdev->rmmio) + reg);
else {
writel(reg, ((void __iomem *)rdev->rmmio) + RADEON_MM_INDEX);
writel(v, ((void __iomem *)rdev->rmmio) + RADEON_MM_DATA);
return *(const volatile uint32_t __force *) addr;
}
 
#define readb __raw_readb
#define readw __raw_readw
#define readl __raw_readl
 
 
 
static inline void __raw_writeb(uint8_t b, volatile void __iomem *addr)
{
*(volatile uint8_t __force *) addr = b;
}
 
static inline void __raw_writew(uint16_t b, volatile void __iomem *addr)
{
*(volatile uint16_t __force *) addr = b;
}
 
static inline void __raw_writel(uint32_t b, volatile void __iomem *addr)
{
*(volatile uint32_t __force *) addr = b;
}
 
static inline void __raw_writeq(__u64 b, volatile void __iomem *addr)
{
*(volatile __u64 *)addr = b;
}
 
#define writeb __raw_writeb
#define writew __raw_writew
#define writel __raw_writel
#define writeq __raw_writeq
 
//#define writeb(b,addr) *(volatile uint8_t* ) addr = (uint8_t)b
//#define writew(b,addr) *(volatile uint16_t*) addr = (uint16_t)b
//#define writel(b,addr) *(volatile uint32_t*) addr = (uint32_t)b
 
 
 
/*
* Registers read & write functions.
*/
#define RREG8(reg) readb(((void __iomem *)rdev->rmmio) + (reg))
#define WREG8(reg, v) writeb(v, ((void __iomem *)rdev->rmmio) + (reg))
#define RREG32(reg) r100_mm_rreg(rdev, (reg))
#define WREG32(reg, v) r100_mm_wreg(rdev, (reg), (v))
#define RREG32(reg) rdev->mm_rreg(rdev, (reg))
#define WREG32(reg, v) rdev->mm_wreg(rdev, (reg), (v))
#define REG_SET(FIELD, v) (((v) << FIELD##_SHIFT) & FIELD##_MASK)
#define REG_GET(FIELD, v) (((v) << FIELD##_SHIFT) & FIELD##_MASK)
#define RREG32_PLL(reg) rdev->pll_rreg(rdev, (reg))
774,8 → 646,8
#define WREG32_PLL(reg, v) rdev->pll_wreg(rdev, (reg), (v))
#define RREG32_MC(reg) rdev->mc_rreg(rdev, (reg))
#define WREG32_MC(reg, v) rdev->mc_wreg(rdev, (reg), (v))
#define RREG32_PCIE(reg) rv370_pcie_rreg(rdev, (reg))
#define WREG32_PCIE(reg, v) rv370_pcie_wreg(rdev, (reg), (v))
#define RREG32_PCIE(reg) rdev->pcie_rreg(rdev, (reg))
#define WREG32_PCIE(reg, v) rdev->pcie_wreg(rdev, (reg), (v))
#define WREG32_P(reg, val, mask) \
do { \
uint32_t tmp_ = RREG32(reg); \
791,34 → 663,7
WREG32_PLL(reg, tmp_); \
} while (0)
 
/*
* Indirect registers accessor
*/
static inline uint32_t rv370_pcie_rreg(struct radeon_device *rdev, uint32_t reg)
{
uint32_t r;
 
WREG32(RADEON_PCIE_INDEX, ((reg) & rdev->pcie_reg_mask));
r = RREG32(RADEON_PCIE_DATA);
return r;
}
 
static inline void rv370_pcie_wreg(struct radeon_device *rdev, uint32_t reg, uint32_t v)
{
WREG32(RADEON_PCIE_INDEX, ((reg) & rdev->pcie_reg_mask));
WREG32(RADEON_PCIE_DATA, (v));
}
 
void r100_pll_errata_after_index(struct radeon_device *rdev);
 
 
 
 
 
 
 
 
 
#define radeon_PCI_IDS \
{0x1002, 0x3150, PCI_ANY_ID, PCI_ANY_ID, 0, 0, CHIP_RV380|RADEON_IS_MOBILITY}, \
{0x1002, 0x3152, PCI_ANY_ID, PCI_ANY_ID, 0, 0, CHIP_RV380|RADEON_IS_MOBILITY|RADEON_NEW_MEMMAP}, \
1230,8 → 1075,6
/*
* ASICs helpers.
*/
#define ASIC_IS_RN50(rdev) ((rdev->pdev->device == 0x515e) || \
(rdev->pdev->device == 0x5969))
#define ASIC_IS_RV100(rdev) ((rdev->family == CHIP_RV100) || \
(rdev->family == CHIP_RV200) || \
(rdev->family == CHIP_RS100) || \
1332,20 → 1175,14
* ASICs macro.
*/
#define radeon_init(rdev) (rdev)->asic->init((rdev))
#define radeon_fini(rdev) (rdev)->asic->fini((rdev))
#define radeon_resume(rdev) (rdev)->asic->resume((rdev))
#define radeon_suspend(rdev) (rdev)->asic->suspend((rdev))
#define radeon_cs_parse(p) rdev->asic->cs_parse((p))
#define radeon_errata(rdev) (rdev)->asic->errata((rdev))
#define radeon_vram_info(rdev) (rdev)->asic->vram_info((rdev))
#define radeon_vga_set_state(rdev, state) (rdev)->asic->vga_set_state((rdev), (state))
#define radeon_gpu_reset(rdev) (rdev)->asic->gpu_reset((rdev))
#define radeon_mc_init(rdev) (rdev)->asic->mc_init((rdev))
#define radeon_mc_fini(rdev) (rdev)->asic->mc_fini((rdev))
#define radeon_wb_init(rdev) (rdev)->asic->wb_init((rdev))
#define radeon_wb_fini(rdev) (rdev)->asic->wb_fini((rdev))
#define radeon_gpu_gart_init(rdev) (rdev)->asic->gart_init((rdev))
#define radeon_gpu_gart_fini(rdev) (rdev)->asic->gart_fini((rdev))
#define radeon_gart_enable(rdev) (rdev)->asic->gart_enable((rdev))
#define radeon_gart_disable(rdev) (rdev)->asic->gart_disable((rdev))
#define radeon_gart_tlb_flush(rdev) (rdev)->asic->gart_tlb_flush((rdev))
1353,14 → 1190,9
#define radeon_cp_init(rdev,rsize) (rdev)->asic->cp_init((rdev), (rsize))
#define radeon_cp_fini(rdev) (rdev)->asic->cp_fini((rdev))
#define radeon_cp_disable(rdev) (rdev)->asic->cp_disable((rdev))
#define radeon_cp_commit(rdev) (rdev)->asic->cp_commit((rdev))
#define radeon_ring_start(rdev) (rdev)->asic->ring_start((rdev))
#define radeon_ring_test(rdev) (rdev)->asic->ring_test((rdev))
#define radeon_ring_ib_execute(rdev, ib) (rdev)->asic->ring_ib_execute((rdev), (ib))
#define radeon_ib_test(rdev) (rdev)->asic->ib_test((rdev))
#define radeon_irq_set(rdev) (rdev)->asic->irq_set((rdev))
#define radeon_irq_process(rdev) (rdev)->asic->irq_process((rdev))
#define radeon_get_vblank_counter(rdev, crtc) (rdev)->asic->get_vblank_counter((rdev), (crtc))
#define radeon_fence_ring_emit(rdev, fence) (rdev)->asic->fence_ring_emit((rdev), (fence))
#define radeon_copy_blit(rdev, s, d, np, f) (rdev)->asic->copy_blit((rdev), (s), (d), (np), (f))
#define radeon_copy_dma(rdev, s, d, np, f) (rdev)->asic->copy_dma((rdev), (s), (d), (np), (f))
1369,102 → 1201,8
#define radeon_set_memory_clock(rdev, e) (rdev)->asic->set_engine_clock((rdev), (e))
#define radeon_set_pcie_lanes(rdev, l) (rdev)->asic->set_pcie_lanes((rdev), (l))
#define radeon_set_clock_gating(rdev, e) (rdev)->asic->set_clock_gating((rdev), (e))
#define radeon_set_surface_reg(rdev, r, f, p, o, s) ((rdev)->asic->set_surface_reg((rdev), (r), (f), (p), (o), (s)))
#define radeon_clear_surface_reg(rdev, r) ((rdev)->asic->clear_surface_reg((rdev), (r)))
#define radeon_bandwidth_update(rdev) (rdev)->asic->bandwidth_update((rdev))
 
/* Common functions */
extern int radeon_gart_table_vram_pin(struct radeon_device *rdev);
extern int radeon_modeset_init(struct radeon_device *rdev);
extern void radeon_modeset_fini(struct radeon_device *rdev);
extern bool radeon_card_posted(struct radeon_device *rdev);
extern int radeon_clocks_init(struct radeon_device *rdev);
extern void radeon_clocks_fini(struct radeon_device *rdev);
extern void radeon_scratch_init(struct radeon_device *rdev);
extern void radeon_surface_init(struct radeon_device *rdev);
extern int radeon_cs_parser_init(struct radeon_cs_parser *p, void *data);
 
/* r100,rv100,rs100,rv200,rs200,r200,rv250,rs300,rv280 */
struct r100_mc_save {
u32 GENMO_WT;
u32 CRTC_EXT_CNTL;
u32 CRTC_GEN_CNTL;
u32 CRTC2_GEN_CNTL;
u32 CUR_OFFSET;
u32 CUR2_OFFSET;
};
extern void r100_cp_disable(struct radeon_device *rdev);
extern int r100_cp_init(struct radeon_device *rdev, unsigned ring_size);
extern void r100_cp_fini(struct radeon_device *rdev);
extern void r100_pci_gart_tlb_flush(struct radeon_device *rdev);
extern int r100_pci_gart_init(struct radeon_device *rdev);
extern void r100_pci_gart_fini(struct radeon_device *rdev);
extern int r100_pci_gart_enable(struct radeon_device *rdev);
extern void r100_pci_gart_disable(struct radeon_device *rdev);
extern int r100_pci_gart_set_page(struct radeon_device *rdev, int i, uint64_t addr);
extern int r100_debugfs_mc_info_init(struct radeon_device *rdev);
extern int r100_gui_wait_for_idle(struct radeon_device *rdev);
extern void r100_ib_fini(struct radeon_device *rdev);
extern int r100_ib_init(struct radeon_device *rdev);
extern void r100_irq_disable(struct radeon_device *rdev);
extern int r100_irq_set(struct radeon_device *rdev);
extern void r100_mc_stop(struct radeon_device *rdev, struct r100_mc_save *save);
extern void r100_mc_resume(struct radeon_device *rdev, struct r100_mc_save *save);
extern void r100_vram_init_sizes(struct radeon_device *rdev);
extern void r100_wb_disable(struct radeon_device *rdev);
extern void r100_wb_fini(struct radeon_device *rdev);
extern int r100_wb_init(struct radeon_device *rdev);
 
/* r300,r350,rv350,rv370,rv380 */
extern void r300_set_reg_safe(struct radeon_device *rdev);
extern void r300_mc_program(struct radeon_device *rdev);
extern void r300_vram_info(struct radeon_device *rdev);
extern int rv370_pcie_gart_init(struct radeon_device *rdev);
extern void rv370_pcie_gart_fini(struct radeon_device *rdev);
extern int rv370_pcie_gart_enable(struct radeon_device *rdev);
extern void rv370_pcie_gart_disable(struct radeon_device *rdev);
 
/* r420,r423,rv410 */
extern u32 r420_mc_rreg(struct radeon_device *rdev, u32 reg);
extern void r420_mc_wreg(struct radeon_device *rdev, u32 reg, u32 v);
extern int r420_debugfs_pipes_info_init(struct radeon_device *rdev);
 
/* rv515 */
extern void rv515_bandwidth_avivo_update(struct radeon_device *rdev);
 
/* rs690, rs740 */
extern void rs690_line_buffer_adjust(struct radeon_device *rdev,
struct drm_display_mode *mode1,
struct drm_display_mode *mode2);
 
/* r600, rv610, rv630, rv620, rv635, rv670, rs780, rs880 */
extern bool r600_card_posted(struct radeon_device *rdev);
extern void r600_cp_stop(struct radeon_device *rdev);
extern void r600_ring_init(struct radeon_device *rdev, unsigned ring_size);
extern int r600_cp_resume(struct radeon_device *rdev);
extern int r600_count_pipe_bits(uint32_t val);
extern int r600_gart_clear_page(struct radeon_device *rdev, int i);
extern int r600_mc_wait_for_idle(struct radeon_device *rdev);
extern int r600_pcie_gart_init(struct radeon_device *rdev);
extern void r600_pcie_gart_tlb_flush(struct radeon_device *rdev);
extern int r600_ib_test(struct radeon_device *rdev);
extern int r600_ring_test(struct radeon_device *rdev);
extern int r600_wb_init(struct radeon_device *rdev);
extern void r600_wb_fini(struct radeon_device *rdev);
extern void r600_scratch_init(struct radeon_device *rdev);
extern int r600_blit_init(struct radeon_device *rdev);
extern void r600_blit_fini(struct radeon_device *rdev);
extern int r600_cp_init_microcode(struct radeon_device *rdev);
extern int r600_gpu_reset(struct radeon_device *rdev);
 
 
 
 
 
 
 
 
 
#define DRM_UDELAY(d) udelay(d)
 
resource_size_t
1474,6 → 1212,4
 
bool set_mode(struct drm_device *dev, int width, int height);
 
 
 
#endif
/drivers/video/drm/radeon/radeon_asic.h
42,21 → 42,16
* r100,rv100,rs100,rv200,rs200,r200,rv250,rs300,rv280
*/
int r100_init(struct radeon_device *rdev);
int r200_init(struct radeon_device *rdev);
uint32_t r100_mm_rreg(struct radeon_device *rdev, uint32_t reg);
void r100_mm_wreg(struct radeon_device *rdev, uint32_t reg, uint32_t v);
void r100_errata(struct radeon_device *rdev);
void r100_vram_info(struct radeon_device *rdev);
void r100_vga_set_state(struct radeon_device *rdev, bool state);
int r100_gpu_reset(struct radeon_device *rdev);
int r100_mc_init(struct radeon_device *rdev);
void r100_mc_fini(struct radeon_device *rdev);
u32 r100_get_vblank_counter(struct radeon_device *rdev, int crtc);
int r100_wb_init(struct radeon_device *rdev);
void r100_wb_fini(struct radeon_device *rdev);
int r100_pci_gart_init(struct radeon_device *rdev);
void r100_pci_gart_fini(struct radeon_device *rdev);
int r100_pci_gart_enable(struct radeon_device *rdev);
int r100_gart_enable(struct radeon_device *rdev);
void r100_pci_gart_disable(struct radeon_device *rdev);
void r100_pci_gart_tlb_flush(struct radeon_device *rdev);
int r100_pci_gart_set_page(struct radeon_device *rdev, int i, uint64_t addr);
63,7 → 58,6
int r100_cp_init(struct radeon_device *rdev, unsigned ring_size);
void r100_cp_fini(struct radeon_device *rdev);
void r100_cp_disable(struct radeon_device *rdev);
void r100_cp_commit(struct radeon_device *rdev);
void r100_ring_start(struct radeon_device *rdev);
int r100_irq_set(struct radeon_device *rdev);
int r100_irq_process(struct radeon_device *rdev);
77,15 → 71,8
uint64_t dst_offset,
unsigned num_pages,
struct radeon_fence *fence);
int r100_set_surface_reg(struct radeon_device *rdev, int reg,
uint32_t tiling_flags, uint32_t pitch,
uint32_t offset, uint32_t obj_size);
int r100_clear_surface_reg(struct radeon_device *rdev, int reg);
void r100_bandwidth_update(struct radeon_device *rdev);
void r100_ring_ib_execute(struct radeon_device *rdev, struct radeon_ib *ib);
int r100_ib_test(struct radeon_device *rdev);
int r100_ring_test(struct radeon_device *rdev);
 
 
static struct radeon_asic r100_asic = {
.init = &r100_init,
.errata = &r100_errata,
95,7 → 82,7
.mc_fini = &r100_mc_fini,
// .wb_init = &r100_wb_init,
// .wb_fini = &r100_wb_fini,
.gart_enable = &r100_pci_gart_enable,
.gart_enable = &r100_gart_enable,
.gart_disable = &r100_pci_gart_disable,
.gart_tlb_flush = &r100_pci_gart_tlb_flush,
.gart_set_page = &r100_pci_gart_set_page,
114,9 → 101,6
// .set_memory_clock = NULL,
// .set_pcie_lanes = NULL,
// .set_clock_gating = &radeon_legacy_set_clock_gating,
.set_surface_reg = r100_set_surface_reg,
.clear_surface_reg = r100_clear_surface_reg,
.bandwidth_update = &r100_bandwidth_update,
};
 
 
133,9 → 117,7
void r300_fence_ring_emit(struct radeon_device *rdev,
struct radeon_fence *fence);
int r300_cs_parse(struct radeon_cs_parser *p);
int rv370_pcie_gart_init(struct radeon_device *rdev);
void rv370_pcie_gart_fini(struct radeon_device *rdev);
int rv370_pcie_gart_enable(struct radeon_device *rdev);
int r300_gart_enable(struct radeon_device *rdev);
void rv370_pcie_gart_disable(struct radeon_device *rdev);
void rv370_pcie_gart_tlb_flush(struct radeon_device *rdev);
int rv370_pcie_gart_set_page(struct radeon_device *rdev, int i, uint64_t addr);
148,17 → 130,17
unsigned num_pages,
struct radeon_fence *fence);
 
 
static struct radeon_asic r300_asic = {
.init = &r300_init,
.errata = &r300_errata,
.vram_info = &r300_vram_info,
.vga_set_state = &r100_vga_set_state,
.gpu_reset = &r300_gpu_reset,
.mc_init = &r300_mc_init,
.mc_fini = &r300_mc_fini,
// .wb_init = &r100_wb_init,
// .wb_fini = &r100_wb_fini,
.gart_enable = &r100_pci_gart_enable,
.gart_enable = &r300_gart_enable,
.gart_disable = &r100_pci_gart_disable,
.gart_tlb_flush = &r100_pci_gart_tlb_flush,
.gart_set_page = &r100_pci_gart_set_page,
177,38 → 159,32
// .set_memory_clock = NULL,
// .set_pcie_lanes = &rv370_set_pcie_lanes,
// .set_clock_gating = &radeon_legacy_set_clock_gating,
.set_surface_reg = r100_set_surface_reg,
.clear_surface_reg = r100_clear_surface_reg,
.bandwidth_update = &r100_bandwidth_update,
};
 
 
/*
* r420,r423,rv410
*/
extern int r420_init(struct radeon_device *rdev);
extern void r420_fini(struct radeon_device *rdev);
extern int r420_suspend(struct radeon_device *rdev);
extern int r420_resume(struct radeon_device *rdev);
void r420_errata(struct radeon_device *rdev);
void r420_vram_info(struct radeon_device *rdev);
int r420_mc_init(struct radeon_device *rdev);
void r420_mc_fini(struct radeon_device *rdev);
static struct radeon_asic r420_asic = {
.init = &r420_init,
.fini = &r420_fini,
.suspend = &r420_suspend,
.resume = &r420_resume,
.errata = NULL,
.vram_info = NULL,
.vga_set_state = &r100_vga_set_state,
.init = &r300_init,
.errata = &r420_errata,
.vram_info = &r420_vram_info,
.gpu_reset = &r300_gpu_reset,
.mc_init = NULL,
.mc_fini = NULL,
.wb_init = NULL,
.wb_fini = NULL,
.gart_enable = NULL,
.gart_disable = NULL,
.mc_init = &r420_mc_init,
.mc_fini = &r420_mc_fini,
// .wb_init = &r100_wb_init,
// .wb_fini = &r100_wb_fini,
.gart_enable = &r300_gart_enable,
.gart_disable = &rv370_pcie_gart_disable,
.gart_tlb_flush = &rv370_pcie_gart_tlb_flush,
.gart_set_page = &rv370_pcie_gart_set_page,
.cp_init = NULL,
.cp_fini = NULL,
.cp_disable = NULL,
.cp_init = &r100_cp_init,
// .cp_fini = &r100_cp_fini,
// .cp_disable = &r100_cp_disable,
.ring_start = &r300_ring_start,
// .irq_set = &r100_irq_set,
// .irq_process = &r100_irq_process,
221,9 → 197,6
// .set_memory_clock = &radeon_atom_set_memory_clock,
// .set_pcie_lanes = &rv370_set_pcie_lanes,
// .set_clock_gating = &radeon_atom_set_clock_gating,
.set_surface_reg = r100_set_surface_reg,
.clear_surface_reg = r100_clear_surface_reg,
.bandwidth_update = &r100_bandwidth_update,
};
 
 
234,8 → 207,6
void rs400_vram_info(struct radeon_device *rdev);
int rs400_mc_init(struct radeon_device *rdev);
void rs400_mc_fini(struct radeon_device *rdev);
int rs400_gart_init(struct radeon_device *rdev);
void rs400_gart_fini(struct radeon_device *rdev);
int rs400_gart_enable(struct radeon_device *rdev);
void rs400_gart_disable(struct radeon_device *rdev);
void rs400_gart_tlb_flush(struct radeon_device *rdev);
246,14 → 217,11
.init = &r300_init,
.errata = &rs400_errata,
.vram_info = &rs400_vram_info,
.vga_set_state = &r100_vga_set_state,
.gpu_reset = &r300_gpu_reset,
.mc_init = &rs400_mc_init,
.mc_fini = &rs400_mc_fini,
// .wb_init = &r100_wb_init,
// .wb_fini = &r100_wb_fini,
.gart_init = &rs400_gart_init,
.gart_fini = &rs400_gart_fini,
.gart_enable = &rs400_gart_enable,
.gart_disable = &rs400_gart_disable,
.gart_tlb_flush = &rs400_gart_tlb_flush,
261,7 → 229,6
.cp_init = &r100_cp_init,
// .cp_fini = &r100_cp_fini,
// .cp_disable = &r100_cp_disable,
.cp_commit = &r100_cp_commit,
.ring_start = &r300_ring_start,
// .irq_set = &r100_irq_set,
// .irq_process = &r100_irq_process,
274,9 → 241,6
// .set_memory_clock = NULL,
// .set_pcie_lanes = NULL,
// .set_clock_gating = &radeon_legacy_set_clock_gating,
.set_surface_reg = r100_set_surface_reg,
.clear_surface_reg = r100_clear_surface_reg,
.bandwidth_update = &r100_bandwidth_update,
};
 
 
283,16 → 247,11
/*
* rs600.
*/
int rs600_init(struct radeon_device *rdev);
void rs600_errata(struct radeon_device *rdev);
void rs600_vram_info(struct radeon_device *rdev);
int rs600_mc_init(struct radeon_device *rdev);
void rs600_mc_fini(struct radeon_device *rdev);
int rs600_irq_set(struct radeon_device *rdev);
int rs600_irq_process(struct radeon_device *rdev);
u32 rs600_get_vblank_counter(struct radeon_device *rdev, int crtc);
int rs600_gart_init(struct radeon_device *rdev);
void rs600_gart_fini(struct radeon_device *rdev);
int rs600_gart_enable(struct radeon_device *rdev);
void rs600_gart_disable(struct radeon_device *rdev);
void rs600_gart_tlb_flush(struct radeon_device *rdev);
299,19 → 258,16
int rs600_gart_set_page(struct radeon_device *rdev, int i, uint64_t addr);
uint32_t rs600_mc_rreg(struct radeon_device *rdev, uint32_t reg);
void rs600_mc_wreg(struct radeon_device *rdev, uint32_t reg, uint32_t v);
void rs600_bandwidth_update(struct radeon_device *rdev);
 
static struct radeon_asic rs600_asic = {
.init = &rs600_init,
.init = &r300_init,
.errata = &rs600_errata,
.vram_info = &rs600_vram_info,
.vga_set_state = &r100_vga_set_state,
.gpu_reset = &r300_gpu_reset,
.mc_init = &rs600_mc_init,
.mc_fini = &rs600_mc_fini,
// .wb_init = &r100_wb_init,
// .wb_fini = &r100_wb_fini,
.gart_init = &rs600_gart_init,
.gart_fini = &rs600_gart_fini,
.gart_enable = &rs600_gart_enable,
.gart_disable = &rs600_gart_disable,
.gart_tlb_flush = &rs600_gart_tlb_flush,
319,7 → 275,6
.cp_init = &r100_cp_init,
// .cp_fini = &r100_cp_fini,
// .cp_disable = &r100_cp_disable,
.cp_commit = &r100_cp_commit,
.ring_start = &r300_ring_start,
// .irq_set = &rs600_irq_set,
// .irq_process = &r100_irq_process,
332,7 → 287,6
// .set_memory_clock = &radeon_atom_set_memory_clock,
// .set_pcie_lanes = NULL,
// .set_clock_gating = &radeon_atom_set_clock_gating,
.bandwidth_update = &rs600_bandwidth_update,
};
 
 
345,19 → 299,15
void rs690_mc_fini(struct radeon_device *rdev);
uint32_t rs690_mc_rreg(struct radeon_device *rdev, uint32_t reg);
void rs690_mc_wreg(struct radeon_device *rdev, uint32_t reg, uint32_t v);
void rs690_bandwidth_update(struct radeon_device *rdev);
static struct radeon_asic rs690_asic = {
.init = &rs600_init,
.init = &r300_init,
.errata = &rs690_errata,
.vram_info = &rs690_vram_info,
.vga_set_state = &r100_vga_set_state,
.gpu_reset = &r300_gpu_reset,
.mc_init = &rs690_mc_init,
.mc_fini = &rs690_mc_fini,
// .wb_init = &r100_wb_init,
// .wb_fini = &r100_wb_fini,
.gart_init = &rs400_gart_init,
.gart_fini = &rs400_gart_fini,
.gart_enable = &rs400_gart_enable,
.gart_disable = &rs400_gart_disable,
.gart_tlb_flush = &rs400_gart_tlb_flush,
365,7 → 315,6
.cp_init = &r100_cp_init,
// .cp_fini = &r100_cp_fini,
// .cp_disable = &r100_cp_disable,
.cp_commit = &r100_cp_commit,
.ring_start = &r300_ring_start,
// .irq_set = &rs600_irq_set,
// .irq_process = &r100_irq_process,
378,12 → 327,8
// .set_memory_clock = &radeon_atom_set_memory_clock,
// .set_pcie_lanes = NULL,
// .set_clock_gating = &radeon_atom_set_clock_gating,
.set_surface_reg = r100_set_surface_reg,
.clear_surface_reg = r100_clear_surface_reg,
.bandwidth_update = &rs690_bandwidth_update,
};
 
 
/*
* rv515
*/
398,20 → 343,18
void rv515_ring_start(struct radeon_device *rdev);
uint32_t rv515_pcie_rreg(struct radeon_device *rdev, uint32_t reg);
void rv515_pcie_wreg(struct radeon_device *rdev, uint32_t reg, uint32_t v);
void rv515_bandwidth_update(struct radeon_device *rdev);
 
 
static struct radeon_asic rv515_asic = {
.init = &rv515_init,
.errata = &rv515_errata,
.vram_info = &rv515_vram_info,
.vga_set_state = &r100_vga_set_state,
.gpu_reset = &rv515_gpu_reset,
.mc_init = &rv515_mc_init,
.mc_fini = &rv515_mc_fini,
// .wb_init = &r100_wb_init,
// .wb_fini = &r100_wb_fini,
.gart_init = &rv370_pcie_gart_init,
.gart_fini = &rv370_pcie_gart_fini,
.gart_enable = &rv370_pcie_gart_enable,
.gart_enable = &r300_gart_enable,
.gart_disable = &rv370_pcie_gart_disable,
.gart_tlb_flush = &rv370_pcie_gart_tlb_flush,
.gart_set_page = &rv370_pcie_gart_set_page,
418,7 → 361,6
.cp_init = &r100_cp_init,
// .cp_fini = &r100_cp_fini,
// .cp_disable = &r100_cp_disable,
.cp_commit = &r100_cp_commit,
.ring_start = &rv515_ring_start,
// .irq_set = &r100_irq_set,
// .irq_process = &r100_irq_process,
431,9 → 373,6
// .set_memory_clock = &radeon_atom_set_memory_clock,
// .set_pcie_lanes = &rv370_set_pcie_lanes,
// .set_clock_gating = &radeon_atom_set_clock_gating,
.set_surface_reg = r100_set_surface_reg,
.clear_surface_reg = r100_clear_surface_reg,
.bandwidth_update = &rv515_bandwidth_update,
};
 
 
444,20 → 383,17
void r520_vram_info(struct radeon_device *rdev);
int r520_mc_init(struct radeon_device *rdev);
void r520_mc_fini(struct radeon_device *rdev);
void r520_bandwidth_update(struct radeon_device *rdev);
 
static struct radeon_asic r520_asic = {
.init = &rv515_init,
.errata = &r520_errata,
.vram_info = &r520_vram_info,
.vga_set_state = &r100_vga_set_state,
.gpu_reset = &rv515_gpu_reset,
.mc_init = &r520_mc_init,
.mc_fini = &r520_mc_fini,
// .wb_init = &r100_wb_init,
// .wb_fini = &r100_wb_fini,
.gart_init = &rv370_pcie_gart_init,
.gart_fini = &rv370_pcie_gart_fini,
.gart_enable = &rv370_pcie_gart_enable,
.gart_enable = &r300_gart_enable,
.gart_disable = &rv370_pcie_gart_disable,
.gart_tlb_flush = &rv370_pcie_gart_tlb_flush,
.gart_set_page = &rv370_pcie_gart_set_page,
464,7 → 400,6
.cp_init = &r100_cp_init,
// .cp_fini = &r100_cp_fini,
// .cp_disable = &r100_cp_disable,
.cp_commit = &r100_cp_commit,
.ring_start = &rv515_ring_start,
// .irq_set = &r100_irq_set,
// .irq_process = &r100_irq_process,
477,23 → 412,11
// .set_memory_clock = &radeon_atom_set_memory_clock,
// .set_pcie_lanes = &rv370_set_pcie_lanes,
// .set_clock_gating = &radeon_atom_set_clock_gating,
.set_surface_reg = r100_set_surface_reg,
.clear_surface_reg = r100_clear_surface_reg,
.bandwidth_update = &r520_bandwidth_update,
};
 
/*
* r600,rv610,rv630,rv620,rv635,rv670,rs780,rv770,rv730,rv710
*/
int r600_init(struct radeon_device *rdev);
void r600_fini(struct radeon_device *rdev);
int r600_suspend(struct radeon_device *rdev);
int r600_resume(struct radeon_device *rdev);
void r600_vga_set_state(struct radeon_device *rdev, bool state);
int r600_wb_init(struct radeon_device *rdev);
void r600_wb_fini(struct radeon_device *rdev);
void r600_cp_commit(struct radeon_device *rdev);
void r600_pcie_gart_tlb_flush(struct radeon_device *rdev);
uint32_t r600_pciep_rreg(struct radeon_device *rdev, uint32_t reg);
void r600_pciep_wreg(struct radeon_device *rdev, uint32_t reg, uint32_t v);
 
/drivers/video/drm/radeon/radeon_atombios.c
103,8 → 103,7
static bool radeon_atom_apply_quirks(struct drm_device *dev,
uint32_t supported_device,
int *connector_type,
struct radeon_i2c_bus_rec *i2c_bus,
uint16_t *line_mux)
struct radeon_i2c_bus_rec *i2c_bus)
{
 
/* Asus M2A-VM HDMI board lists the DVI port as HDMI */
128,11 → 127,9
if ((dev->pdev->device == 0x5653) &&
(dev->pdev->subsystem_vendor == 0x1462) &&
(dev->pdev->subsystem_device == 0x0291)) {
if (*connector_type == DRM_MODE_CONNECTOR_LVDS) {
if (*connector_type == DRM_MODE_CONNECTOR_LVDS)
i2c_bus->valid = false;
*line_mux = 53;
}
}
 
/* Funky macbooks */
if ((dev->pdev->device == 0x71C5) &&
143,34 → 140,23
return false;
}
 
/* some BIOSes seem to report DAC on HDMI - they hurt me with their lies */
if ((*connector_type == DRM_MODE_CONNECTOR_HDMIA) ||
(*connector_type == DRM_MODE_CONNECTOR_HDMIB)) {
if (supported_device & (ATOM_DEVICE_CRT_SUPPORT)) {
return false;
}
}
 
/* ASUS HD 3600 XT board lists the DVI port as HDMI */
if ((dev->pdev->device == 0x9598) &&
(dev->pdev->subsystem_vendor == 0x1043) &&
(dev->pdev->subsystem_device == 0x01da)) {
if (*connector_type == DRM_MODE_CONNECTOR_HDMIA) {
*connector_type = DRM_MODE_CONNECTOR_DVII;
if (*connector_type == DRM_MODE_CONNECTOR_HDMIB) {
*connector_type = DRM_MODE_CONNECTOR_DVID;
}
}
 
/* ASUS HD 3450 board lists the DVI port as HDMI */
if ((dev->pdev->device == 0x95C5) &&
(dev->pdev->subsystem_vendor == 0x1043) &&
(dev->pdev->subsystem_device == 0x01e2)) {
if (*connector_type == DRM_MODE_CONNECTOR_HDMIA) {
*connector_type = DRM_MODE_CONNECTOR_DVII;
}
}
 
/* some BIOSes seem to report DAC on HDMI - usually this is a board with
* HDMI + VGA reporting as HDMI
*/
if (*connector_type == DRM_MODE_CONNECTOR_HDMIA) {
if (supported_device & (ATOM_DEVICE_CRT_SUPPORT)) {
*connector_type = DRM_MODE_CONNECTOR_VGA;
*line_mux = 0;
}
}
 
return true;
}
 
203,11 → 189,11
DRM_MODE_CONNECTOR_Composite,
DRM_MODE_CONNECTOR_SVIDEO,
DRM_MODE_CONNECTOR_Unknown,
DRM_MODE_CONNECTOR_Unknown,
DRM_MODE_CONNECTOR_9PinDIN,
DRM_MODE_CONNECTOR_Unknown,
DRM_MODE_CONNECTOR_HDMIA,
DRM_MODE_CONNECTOR_HDMIB,
DRM_MODE_CONNECTOR_HDMIB,
DRM_MODE_CONNECTOR_LVDS,
DRM_MODE_CONNECTOR_9PinDIN,
DRM_MODE_CONNECTOR_Unknown,
229,7 → 215,7
ATOM_OBJECT_HEADER *obj_header;
int i, j, path_size, device_support;
int connector_type;
uint16_t igp_lane_info, conn_id;
uint16_t igp_lane_info;
bool linkb;
struct radeon_i2c_bus_rec ddc_bus;
 
381,6 → 367,10
&& record->
ucRecordType <=
ATOM_MAX_OBJECT_RECORD_NUMBER) {
DRM_ERROR
("record type %d\n",
record->
ucRecordType);
switch (record->
ucRecordType) {
case ATOM_I2C_RECORD_TYPE:
416,16 → 406,10
else
ddc_bus = radeon_lookup_gpio(dev, line_mux);
 
conn_id = le16_to_cpu(path->usConnObjectId);
 
if (!radeon_atom_apply_quirks
(dev, le16_to_cpu(path->usDeviceTag), &connector_type,
&ddc_bus, &conn_id))
continue;
 
radeon_add_atom_connector(dev,
conn_id,
le16_to_cpu(path->
usConnObjectId),
le16_to_cpu(path->
usDeviceTag),
connector_type, &ddc_bus,
linkb, igp_lane_info);
440,7 → 424,7
 
struct bios_connector {
bool valid;
uint16_t line_mux;
uint8_t line_mux;
uint16_t devices;
int connector_type;
struct radeon_i2c_bus_rec ddc_bus;
484,6 → 468,11
continue;
}
 
if (i == ATOM_DEVICE_TV1_INDEX) {
DRM_DEBUG("Skipping TV Out\n");
continue;
}
 
bios_connectors[i].connector_type =
supported_devices_connector_convert[ci.sucConnectorInfo.
sbfAccess.
537,7 → 526,7
 
if (!radeon_atom_apply_quirks
(dev, (1 << i), &bios_connectors[i].connector_type,
&bios_connectors[i].ddc_bus, &bios_connectors[i].line_mux))
&bios_connectors[i].ddc_bus))
continue;
 
bios_connectors[i].valid = true;
719,8 → 708,9
return false;
}
 
bool radeon_atombios_get_tmds_info(struct radeon_encoder *encoder,
struct radeon_encoder_int_tmds *tmds)
struct radeon_encoder_int_tmds *radeon_atombios_get_tmds_info(struct
radeon_encoder
*encoder)
{
struct drm_device *dev = encoder->base.dev;
struct radeon_device *rdev = dev->dev_private;
731,6 → 721,7
uint8_t frev, crev;
uint16_t maxfreq;
int i;
struct radeon_encoder_int_tmds *tmds = NULL;
 
atom_parse_data_header(mode_info->atom_context, index, NULL, &frev,
&crev, &data_offset);
740,6 → 731,12
data_offset);
 
if (tmds_info) {
tmds =
kzalloc(sizeof(struct radeon_encoder_int_tmds), GFP_KERNEL);
 
if (!tmds)
return NULL;
 
maxfreq = le16_to_cpu(tmds_info->usMaxFrequency);
for (i = 0; i < 4; i++) {
tmds->tmds_pll[i].freq =
765,9 → 762,8
break;
}
}
return true;
}
return false;
return tmds;
}
 
union lvds_info {
859,72 → 855,6
return p_dac;
}
 
bool radeon_atom_get_tv_timings(struct radeon_device *rdev, int index,
SET_CRTC_TIMING_PARAMETERS_PS_ALLOCATION *crtc_timing,
int32_t *pixel_clock)
{
struct radeon_mode_info *mode_info = &rdev->mode_info;
ATOM_ANALOG_TV_INFO *tv_info;
ATOM_ANALOG_TV_INFO_V1_2 *tv_info_v1_2;
ATOM_DTD_FORMAT *dtd_timings;
int data_index = GetIndexIntoMasterTable(DATA, AnalogTV_Info);
u8 frev, crev;
uint16_t data_offset;
 
atom_parse_data_header(mode_info->atom_context, data_index, NULL, &frev, &crev, &data_offset);
 
switch (crev) {
case 1:
tv_info = (ATOM_ANALOG_TV_INFO *)(mode_info->atom_context->bios + data_offset);
if (index > MAX_SUPPORTED_TV_TIMING)
return false;
 
crtc_timing->usH_Total = le16_to_cpu(tv_info->aModeTimings[index].usCRTC_H_Total);
crtc_timing->usH_Disp = le16_to_cpu(tv_info->aModeTimings[index].usCRTC_H_Disp);
crtc_timing->usH_SyncStart = le16_to_cpu(tv_info->aModeTimings[index].usCRTC_H_SyncStart);
crtc_timing->usH_SyncWidth = le16_to_cpu(tv_info->aModeTimings[index].usCRTC_H_SyncWidth);
 
crtc_timing->usV_Total = le16_to_cpu(tv_info->aModeTimings[index].usCRTC_V_Total);
crtc_timing->usV_Disp = le16_to_cpu(tv_info->aModeTimings[index].usCRTC_V_Disp);
crtc_timing->usV_SyncStart = le16_to_cpu(tv_info->aModeTimings[index].usCRTC_V_SyncStart);
crtc_timing->usV_SyncWidth = le16_to_cpu(tv_info->aModeTimings[index].usCRTC_V_SyncWidth);
 
crtc_timing->susModeMiscInfo = tv_info->aModeTimings[index].susModeMiscInfo;
 
crtc_timing->ucOverscanRight = le16_to_cpu(tv_info->aModeTimings[index].usCRTC_OverscanRight);
crtc_timing->ucOverscanLeft = le16_to_cpu(tv_info->aModeTimings[index].usCRTC_OverscanLeft);
crtc_timing->ucOverscanBottom = le16_to_cpu(tv_info->aModeTimings[index].usCRTC_OverscanBottom);
crtc_timing->ucOverscanTop = le16_to_cpu(tv_info->aModeTimings[index].usCRTC_OverscanTop);
*pixel_clock = le16_to_cpu(tv_info->aModeTimings[index].usPixelClock) * 10;
 
if (index == 1) {
/* PAL timings appear to have wrong values for totals */
crtc_timing->usH_Total -= 1;
crtc_timing->usV_Total -= 1;
}
break;
case 2:
tv_info_v1_2 = (ATOM_ANALOG_TV_INFO_V1_2 *)(mode_info->atom_context->bios + data_offset);
if (index > MAX_SUPPORTED_TV_TIMING_V1_2)
return false;
 
dtd_timings = &tv_info_v1_2->aModeTimings[index];
crtc_timing->usH_Total = le16_to_cpu(dtd_timings->usHActive) + le16_to_cpu(dtd_timings->usHBlanking_Time);
crtc_timing->usH_Disp = le16_to_cpu(dtd_timings->usHActive);
crtc_timing->usH_SyncStart = le16_to_cpu(dtd_timings->usHActive) + le16_to_cpu(dtd_timings->usHSyncOffset);
crtc_timing->usH_SyncWidth = le16_to_cpu(dtd_timings->usHSyncWidth);
crtc_timing->usV_Total = le16_to_cpu(dtd_timings->usVActive) + le16_to_cpu(dtd_timings->usVBlanking_Time);
crtc_timing->usV_Disp = le16_to_cpu(dtd_timings->usVActive);
crtc_timing->usV_SyncStart = le16_to_cpu(dtd_timings->usVActive) + le16_to_cpu(dtd_timings->usVSyncOffset);
crtc_timing->usV_SyncWidth = le16_to_cpu(dtd_timings->usVSyncWidth);
 
crtc_timing->susModeMiscInfo.usAccess = le16_to_cpu(dtd_timings->susModeMiscInfo.usAccess);
*pixel_clock = le16_to_cpu(dtd_timings->usPixClk) * 10;
break;
}
return true;
}
 
struct radeon_encoder_tv_dac *
radeon_atombios_get_tv_dac_info(struct radeon_encoder *encoder)
{
1015,10 → 945,10
uint32_t bios_2_scratch, bios_6_scratch;
 
if (rdev->family >= CHIP_R600) {
bios_2_scratch = RREG32(R600_BIOS_2_SCRATCH);
bios_2_scratch = RREG32(R600_BIOS_0_SCRATCH);
bios_6_scratch = RREG32(R600_BIOS_6_SCRATCH);
} else {
bios_2_scratch = RREG32(RADEON_BIOS_2_SCRATCH);
bios_2_scratch = RREG32(RADEON_BIOS_0_SCRATCH);
bios_6_scratch = RREG32(RADEON_BIOS_6_SCRATCH);
}
 
1038,34 → 968,6
 
}
 
void radeon_save_bios_scratch_regs(struct radeon_device *rdev)
{
uint32_t scratch_reg;
int i;
 
if (rdev->family >= CHIP_R600)
scratch_reg = R600_BIOS_0_SCRATCH;
else
scratch_reg = RADEON_BIOS_0_SCRATCH;
 
for (i = 0; i < RADEON_BIOS_NUM_SCRATCH; i++)
rdev->bios_scratch[i] = RREG32(scratch_reg + (i * 4));
}
 
void radeon_restore_bios_scratch_regs(struct radeon_device *rdev)
{
uint32_t scratch_reg;
int i;
 
if (rdev->family >= CHIP_R600)
scratch_reg = R600_BIOS_0_SCRATCH;
else
scratch_reg = RADEON_BIOS_0_SCRATCH;
 
for (i = 0; i < RADEON_BIOS_NUM_SCRATCH; i++)
WREG32(scratch_reg + (i * 4), rdev->bios_scratch[i]);
}
 
void radeon_atom_output_lock(struct drm_encoder *encoder, bool lock)
{
struct drm_device *dev = encoder->dev;
/drivers/video/drm/radeon/radeon_clocks.c
102,12 → 102,10
p1pll->reference_div = 12;
if (p2pll->reference_div < 2)
p2pll->reference_div = 12;
if (rdev->family < CHIP_RS600) {
if (spll->reference_div < 2)
spll->reference_div =
RREG32_PLL(RADEON_M_SPLL_REF_FB_DIV) &
RADEON_M_SPLL_REF_DIV_MASK;
}
if (mpll->reference_div < 2)
mpll->reference_div = spll->reference_div;
} else {
/drivers/video/drm/radeon/radeon_fb.c
27,8 → 27,16
* Modularization
*/
 
#include <linux/module.h>
#include <linux/fb.h>
//#include <linux/module.h>
//#include <linux/kernel.h>
//#include <linux/errno.h>
//#include <linux/string.h>
//#include <linux/mm.h>
//#include <linux/tty.h>
//#include <linux/slab.h>
//#include <linux/delay.h>
//#include <linux/fb.h>
//#include <linux/init.h>
 
#include "drmP.h"
#include "drm.h"
37,29 → 45,559
#include "radeon_drm.h"
#include "radeon.h"
 
#include "drm_fb_helper.h"
 
#include <drm_mm.h>
#include "radeon_object.h"
 
struct fb_info *framebuffer_alloc(size_t size);
 
#define FB_TYPE_PACKED_PIXELS 0 /* Packed Pixels */
#define FB_VISUAL_TRUECOLOR 2 /* True color */
 
struct fb_fix_screeninfo {
char id[16]; /* identification string eg "TT Builtin" */
unsigned long smem_start; /* Start of frame buffer mem */
/* (physical address) */
__u32 smem_len; /* Length of frame buffer mem */
__u32 type; /* see FB_TYPE_* */
__u32 type_aux; /* Interleave for interleaved Planes */
__u32 visual; /* see FB_VISUAL_* */
__u16 xpanstep; /* zero if no hardware panning */
__u16 ypanstep; /* zero if no hardware panning */
__u16 ywrapstep; /* zero if no hardware ywrap */
__u32 line_length; /* length of a line in bytes */
unsigned long mmio_start; /* Start of Memory Mapped I/O */
/* (physical address) */
__u32 mmio_len; /* Length of Memory Mapped I/O */
__u32 accel; /* Indicate to driver which */
/* specific chip/card we have */
__u16 reserved[3]; /* Reserved for future compatibility */
};
 
 
 
 
struct fb_bitfield {
__u32 offset; /* beginning of bitfield */
__u32 length; /* length of bitfield */
__u32 msb_right; /* != 0 : Most significant bit is */
/* right */
};
 
 
struct fb_var_screeninfo {
__u32 xres; /* visible resolution */
__u32 yres;
__u32 xres_virtual; /* virtual resolution */
__u32 yres_virtual;
__u32 xoffset; /* offset from virtual to visible */
__u32 yoffset; /* resolution */
 
__u32 bits_per_pixel; /* guess what */
__u32 grayscale; /* != 0 Graylevels instead of colors */
 
struct fb_bitfield red; /* bitfield in fb mem if true color, */
struct fb_bitfield green; /* else only length is significant */
struct fb_bitfield blue;
struct fb_bitfield transp; /* transparency */
 
__u32 nonstd; /* != 0 Non standard pixel format */
 
__u32 activate; /* see FB_ACTIVATE_* */
 
__u32 height; /* height of picture in mm */
__u32 width; /* width of picture in mm */
 
__u32 accel_flags; /* (OBSOLETE) see fb_info.flags */
 
/* Timing: All values in pixclocks, except pixclock (of course) */
__u32 pixclock; /* pixel clock in ps (pico seconds) */
__u32 left_margin; /* time from sync to picture */
__u32 right_margin; /* time from picture to sync */
__u32 upper_margin; /* time from sync to picture */
__u32 lower_margin;
__u32 hsync_len; /* length of horizontal sync */
__u32 vsync_len; /* length of vertical sync */
__u32 sync; /* see FB_SYNC_* */
__u32 vmode; /* see FB_VMODE_* */
__u32 rotate; /* angle we rotate counter clockwise */
__u32 reserved[5]; /* Reserved for future compatibility */
};
 
 
 
struct fb_chroma {
__u32 redx; /* in fraction of 1024 */
__u32 greenx;
__u32 bluex;
__u32 whitex;
__u32 redy;
__u32 greeny;
__u32 bluey;
__u32 whitey;
};
 
struct fb_videomode {
const char *name; /* optional */
u32 refresh; /* optional */
u32 xres;
u32 yres;
u32 pixclock;
u32 left_margin;
u32 right_margin;
u32 upper_margin;
u32 lower_margin;
u32 hsync_len;
u32 vsync_len;
u32 sync;
u32 vmode;
u32 flag;
};
 
 
struct fb_monspecs {
struct fb_chroma chroma;
struct fb_videomode *modedb; /* mode database */
__u8 manufacturer[4]; /* Manufacturer */
__u8 monitor[14]; /* Monitor String */
__u8 serial_no[14]; /* Serial Number */
__u8 ascii[14]; /* ? */
__u32 modedb_len; /* mode database length */
__u32 model; /* Monitor Model */
__u32 serial; /* Serial Number - Integer */
__u32 year; /* Year manufactured */
__u32 week; /* Week Manufactured */
__u32 hfmin; /* hfreq lower limit (Hz) */
__u32 hfmax; /* hfreq upper limit (Hz) */
__u32 dclkmin; /* pixelclock lower limit (Hz) */
__u32 dclkmax; /* pixelclock upper limit (Hz) */
__u16 input; /* display type - see FB_DISP_* */
__u16 dpms; /* DPMS support - see FB_DPMS_ */
__u16 signal; /* Signal Type - see FB_SIGNAL_* */
__u16 vfmin; /* vfreq lower limit (Hz) */
__u16 vfmax; /* vfreq upper limit (Hz) */
__u16 gamma; /* Gamma - in fractions of 100 */
__u16 gtf : 1; /* supports GTF */
__u16 misc; /* Misc flags - see FB_MISC_* */
__u8 version; /* EDID version... */
__u8 revision; /* ...and revision */
__u8 max_x; /* Maximum horizontal size (cm) */
__u8 max_y; /* Maximum vertical size (cm) */
};
 
 
struct fb_info {
int node;
int flags;
// struct mutex lock; /* Lock for open/release/ioctl funcs */
// struct mutex mm_lock; /* Lock for fb_mmap and smem_* fields */
struct fb_var_screeninfo var; /* Current var */
struct fb_fix_screeninfo fix; /* Current fix */
struct fb_monspecs monspecs; /* Current Monitor specs */
// struct work_struct queue; /* Framebuffer event queue */
// struct fb_pixmap pixmap; /* Image hardware mapper */
// struct fb_pixmap sprite; /* Cursor hardware mapper */
// struct fb_cmap cmap; /* Current cmap */
struct list_head modelist; /* mode list */
struct fb_videomode *mode; /* current mode */
 
#ifdef CONFIG_FB_BACKLIGHT
/* assigned backlight device */
/* set before framebuffer registration,
remove after unregister */
struct backlight_device *bl_dev;
 
/* Backlight level curve */
struct mutex bl_curve_mutex;
u8 bl_curve[FB_BACKLIGHT_LEVELS];
#endif
#ifdef CONFIG_FB_DEFERRED_IO
struct delayed_work deferred_work;
struct fb_deferred_io *fbdefio;
#endif
 
struct fb_ops *fbops;
// struct device *device; /* This is the parent */
// struct device *dev; /* This is this fb device */
int class_flag; /* private sysfs flags */
#ifdef CONFIG_FB_TILEBLITTING
struct fb_tile_ops *tileops; /* Tile Blitting */
#endif
char __iomem *screen_base; /* Virtual address */
unsigned long screen_size; /* Amount of ioremapped VRAM or 0 */
void *pseudo_palette; /* Fake palette of 16 colors */
#define FBINFO_STATE_RUNNING 0
#define FBINFO_STATE_SUSPENDED 1
u32 state; /* Hardware state i.e suspend */
void *fbcon_par; /* fbcon use-only private area */
/* From here on everything is device dependent */
void *par;
/* we need the PCI or similiar aperture base/size not
smem_start/size as smem_start may just be an object
allocated inside the aperture so may not actually overlap */
resource_size_t aperture_base;
resource_size_t aperture_size;
};
 
 
 
struct radeon_fb_device {
struct drm_fb_helper helper;
struct radeon_device *rdev;
struct drm_display_mode *mode;
struct radeon_framebuffer *rfb;
struct radeon_device *rdev;
int crtc_count;
/* crtc currently bound to this */
uint32_t crtc_ids[2];
};
 
int radeon_gem_fb_object_create(struct radeon_device *rdev, int size,
int alignment, int initial_domain,
bool discardable, bool kernel,
bool interruptible,
struct drm_gem_object **obj);
 
struct fb_info *framebuffer_alloc(size_t size);
 
#if 0
static int radeonfb_setcolreg(unsigned regno,
unsigned red,
unsigned green,
unsigned blue,
unsigned transp,
struct fb_info *info)
{
struct radeon_fb_device *rfbdev = info->par;
struct drm_device *dev = rfbdev->rdev->ddev;
struct drm_crtc *crtc;
int i;
 
list_for_each_entry(crtc, &dev->mode_config.crtc_list, head) {
struct radeon_crtc *radeon_crtc = to_radeon_crtc(crtc);
struct drm_mode_set *modeset = &radeon_crtc->mode_set;
struct drm_framebuffer *fb = modeset->fb;
 
for (i = 0; i < rfbdev->crtc_count; i++) {
if (crtc->base.id == rfbdev->crtc_ids[i]) {
break;
}
}
if (i == rfbdev->crtc_count) {
continue;
}
if (regno > 255) {
return 1;
}
if (fb->depth == 8) {
radeon_crtc_fb_gamma_set(crtc, red, green, blue, regno);
return 0;
}
 
if (regno < 16) {
switch (fb->depth) {
case 15:
fb->pseudo_palette[regno] = ((red & 0xf800) >> 1) |
((green & 0xf800) >> 6) |
((blue & 0xf800) >> 11);
break;
case 16:
fb->pseudo_palette[regno] = (red & 0xf800) |
((green & 0xfc00) >> 5) |
((blue & 0xf800) >> 11);
break;
case 24:
case 32:
fb->pseudo_palette[regno] = ((red & 0xff00) << 8) |
(green & 0xff00) |
((blue & 0xff00) >> 8);
break;
}
}
}
return 0;
}
 
static int radeonfb_check_var(struct fb_var_screeninfo *var,
struct fb_info *info)
{
struct radeon_fb_device *rfbdev = info->par;
struct radeon_framebuffer *rfb = rfbdev->rfb;
struct drm_framebuffer *fb = &rfb->base;
int depth;
 
if (var->pixclock == -1 || !var->pixclock) {
return -EINVAL;
}
/* Need to resize the fb object !!! */
if (var->xres > fb->width || var->yres > fb->height) {
DRM_ERROR("Requested width/height is greater than current fb "
"object %dx%d > %dx%d\n", var->xres, var->yres,
fb->width, fb->height);
DRM_ERROR("Need resizing code.\n");
return -EINVAL;
}
 
switch (var->bits_per_pixel) {
case 16:
depth = (var->green.length == 6) ? 16 : 15;
break;
case 32:
depth = (var->transp.length > 0) ? 32 : 24;
break;
default:
depth = var->bits_per_pixel;
break;
}
 
switch (depth) {
case 8:
var->red.offset = 0;
var->green.offset = 0;
var->blue.offset = 0;
var->red.length = 8;
var->green.length = 8;
var->blue.length = 8;
var->transp.length = 0;
var->transp.offset = 0;
break;
case 15:
var->red.offset = 10;
var->green.offset = 5;
var->blue.offset = 0;
var->red.length = 5;
var->green.length = 5;
var->blue.length = 5;
var->transp.length = 1;
var->transp.offset = 15;
break;
case 16:
var->red.offset = 11;
var->green.offset = 5;
var->blue.offset = 0;
var->red.length = 5;
var->green.length = 6;
var->blue.length = 5;
var->transp.length = 0;
var->transp.offset = 0;
break;
case 24:
var->red.offset = 16;
var->green.offset = 8;
var->blue.offset = 0;
var->red.length = 8;
var->green.length = 8;
var->blue.length = 8;
var->transp.length = 0;
var->transp.offset = 0;
break;
case 32:
var->red.offset = 16;
var->green.offset = 8;
var->blue.offset = 0;
var->red.length = 8;
var->green.length = 8;
var->blue.length = 8;
var->transp.length = 8;
var->transp.offset = 24;
break;
default:
return -EINVAL;
}
return 0;
}
 
#endif
 
 
/* this will let fbcon do the mode init */
static int radeonfb_set_par(struct fb_info *info)
{
struct radeon_fb_device *rfbdev = info->par;
struct drm_device *dev = rfbdev->rdev->ddev;
struct fb_var_screeninfo *var = &info->var;
struct drm_crtc *crtc;
int ret;
int i;
 
if (var->pixclock != -1) {
DRM_ERROR("PIXEL CLCOK SET\n");
return -EINVAL;
}
 
list_for_each_entry(crtc, &dev->mode_config.crtc_list, head) {
struct radeon_crtc *radeon_crtc = to_radeon_crtc(crtc);
 
for (i = 0; i < rfbdev->crtc_count; i++) {
if (crtc->base.id == rfbdev->crtc_ids[i]) {
break;
}
}
if (i == rfbdev->crtc_count) {
continue;
}
if (crtc->fb == radeon_crtc->mode_set.fb) {
// mutex_lock(&dev->mode_config.mutex);
ret = crtc->funcs->set_config(&radeon_crtc->mode_set);
// mutex_unlock(&dev->mode_config.mutex);
if (ret) {
return ret;
}
}
}
return 0;
}
 
#if 0
 
static int radeonfb_pan_display(struct fb_var_screeninfo *var,
struct fb_info *info)
{
struct radeon_fb_device *rfbdev = info->par;
struct drm_device *dev = rfbdev->rdev->ddev;
struct drm_mode_set *modeset;
struct drm_crtc *crtc;
struct radeon_crtc *radeon_crtc;
int ret = 0;
int i;
 
list_for_each_entry(crtc, &dev->mode_config.crtc_list, head) {
for (i = 0; i < rfbdev->crtc_count; i++) {
if (crtc->base.id == rfbdev->crtc_ids[i]) {
break;
}
}
 
if (i == rfbdev->crtc_count) {
continue;
}
 
radeon_crtc = to_radeon_crtc(crtc);
modeset = &radeon_crtc->mode_set;
 
modeset->x = var->xoffset;
modeset->y = var->yoffset;
 
if (modeset->num_connectors) {
mutex_lock(&dev->mode_config.mutex);
ret = crtc->funcs->set_config(modeset);
mutex_unlock(&dev->mode_config.mutex);
if (!ret) {
info->var.xoffset = var->xoffset;
info->var.yoffset = var->yoffset;
}
}
}
return ret;
}
 
static void radeonfb_on(struct fb_info *info)
{
struct radeon_fb_device *rfbdev = info->par;
struct drm_device *dev = rfbdev->rdev->ddev;
struct drm_crtc *crtc;
struct drm_encoder *encoder;
int i;
 
/*
* For each CRTC in this fb, find all associated encoders
* and turn them off, then turn off the CRTC.
*/
list_for_each_entry(crtc, &dev->mode_config.crtc_list, head) {
struct drm_crtc_helper_funcs *crtc_funcs = crtc->helper_private;
 
for (i = 0; i < rfbdev->crtc_count; i++) {
if (crtc->base.id == rfbdev->crtc_ids[i]) {
break;
}
}
 
mutex_lock(&dev->mode_config.mutex);
crtc_funcs->dpms(crtc, DRM_MODE_DPMS_ON);
mutex_unlock(&dev->mode_config.mutex);
 
/* Found a CRTC on this fb, now find encoders */
list_for_each_entry(encoder, &dev->mode_config.encoder_list, head) {
if (encoder->crtc == crtc) {
struct drm_encoder_helper_funcs *encoder_funcs;
 
encoder_funcs = encoder->helper_private;
mutex_lock(&dev->mode_config.mutex);
encoder_funcs->dpms(encoder, DRM_MODE_DPMS_ON);
mutex_unlock(&dev->mode_config.mutex);
}
}
}
}
 
static void radeonfb_off(struct fb_info *info, int dpms_mode)
{
struct radeon_fb_device *rfbdev = info->par;
struct drm_device *dev = rfbdev->rdev->ddev;
struct drm_crtc *crtc;
struct drm_encoder *encoder;
int i;
 
/*
* For each CRTC in this fb, find all associated encoders
* and turn them off, then turn off the CRTC.
*/
list_for_each_entry(crtc, &dev->mode_config.crtc_list, head) {
struct drm_crtc_helper_funcs *crtc_funcs = crtc->helper_private;
 
for (i = 0; i < rfbdev->crtc_count; i++) {
if (crtc->base.id == rfbdev->crtc_ids[i]) {
break;
}
}
 
/* Found a CRTC on this fb, now find encoders */
list_for_each_entry(encoder, &dev->mode_config.encoder_list, head) {
if (encoder->crtc == crtc) {
struct drm_encoder_helper_funcs *encoder_funcs;
 
encoder_funcs = encoder->helper_private;
mutex_lock(&dev->mode_config.mutex);
encoder_funcs->dpms(encoder, dpms_mode);
mutex_unlock(&dev->mode_config.mutex);
}
}
if (dpms_mode == DRM_MODE_DPMS_OFF) {
mutex_lock(&dev->mode_config.mutex);
crtc_funcs->dpms(crtc, dpms_mode);
mutex_unlock(&dev->mode_config.mutex);
}
}
}
 
int radeonfb_blank(int blank, struct fb_info *info)
{
switch (blank) {
case FB_BLANK_UNBLANK:
radeonfb_on(info);
break;
case FB_BLANK_NORMAL:
radeonfb_off(info, DRM_MODE_DPMS_STANDBY);
break;
case FB_BLANK_HSYNC_SUSPEND:
radeonfb_off(info, DRM_MODE_DPMS_STANDBY);
break;
case FB_BLANK_VSYNC_SUSPEND:
radeonfb_off(info, DRM_MODE_DPMS_SUSPEND);
break;
case FB_BLANK_POWERDOWN:
radeonfb_off(info, DRM_MODE_DPMS_OFF);
break;
}
return 0;
}
 
static struct fb_ops radeonfb_ops = {
// .owner = THIS_MODULE,
.fb_check_var = drm_fb_helper_check_var,
.fb_set_par = drm_fb_helper_set_par,
.fb_setcolreg = drm_fb_helper_setcolreg,
// .fb_fillrect = cfb_fillrect,
// .fb_copyarea = cfb_copyarea,
// .fb_imageblit = cfb_imageblit,
// .fb_pan_display = drm_fb_helper_pan_display,
.fb_blank = drm_fb_helper_blank,
.owner = THIS_MODULE,
.fb_check_var = radeonfb_check_var,
.fb_set_par = radeonfb_set_par,
.fb_setcolreg = radeonfb_setcolreg,
.fb_fillrect = cfb_fillrect,
.fb_copyarea = cfb_copyarea,
.fb_imageblit = cfb_imageblit,
.fb_pan_display = radeonfb_pan_display,
.fb_blank = radeonfb_blank,
};
 
/**
102,10 → 640,26
}
EXPORT_SYMBOL(radeonfb_resize);
 
static int radeon_align_pitch(struct radeon_device *rdev, int width, int bpp, bool tiled)
static struct drm_mode_set panic_mode;
 
int radeonfb_panic(struct notifier_block *n, unsigned long ununsed,
void *panic_str)
{
DRM_ERROR("panic occurred, switching back to text console\n");
drm_crtc_helper_set_config(&panic_mode);
return 0;
}
EXPORT_SYMBOL(radeonfb_panic);
 
static struct notifier_block paniced = {
.notifier_call = radeonfb_panic,
};
#endif
 
static int radeon_align_pitch(struct radeon_device *rdev, int width, int bpp)
{
int aligned = width;
int align_large = (ASIC_IS_AVIVO(rdev)) || tiled;
int align_large = (ASIC_IS_AVIVO(rdev));
int pitch_mask = 0;
 
switch (bpp / 8) {
126,16 → 680,11
return aligned;
}
 
static struct drm_fb_helper_funcs radeon_fb_helper_funcs = {
.gamma_set = radeon_crtc_fb_gamma_set,
};
 
int radeonfb_create(struct drm_device *dev,
int radeonfb_create(struct radeon_device *rdev,
uint32_t fb_width, uint32_t fb_height,
uint32_t surface_width, uint32_t surface_height,
struct drm_framebuffer **fb_p)
struct radeon_framebuffer **rfb_p)
{
struct radeon_device *rdev = dev->dev_private;
struct fb_info *info;
struct radeon_fb_device *rfbdev;
struct drm_framebuffer *fb = NULL;
148,15 → 697,15
u64 fb_gpuaddr;
void *fbptr = NULL;
unsigned long tmp;
bool fb_tiled = false; /* useful for testing */
u32 tiling_flags = 0;
 
ENTRY();
 
mode_cmd.width = surface_width;
mode_cmd.height = surface_height;
mode_cmd.bpp = 32;
/* need to align pitch with crtc limits */
mode_cmd.pitch = radeon_align_pitch(rdev, mode_cmd.width, mode_cmd.bpp, fb_tiled) * ((mode_cmd.bpp + 1) / 8);
mode_cmd.depth = 24;
mode_cmd.pitch = radeon_align_pitch(rdev, mode_cmd.width, mode_cmd.bpp) * ((mode_cmd.bpp + 1) / 8);
mode_cmd.depth = 32;
 
size = mode_cmd.pitch * mode_cmd.height;
aligned_size = ALIGN(size, PAGE_SIZE);
166,6 → 715,7
false, 0,
false, &gobj);
 
 
if (ret) {
printk(KERN_ERR "failed to allocate framebuffer (%d %d)\n",
surface_width, surface_height);
174,7 → 724,7
}
robj = gobj->driver_private;
 
mutex_lock(&rdev->ddev->struct_mutex);
// mutex_lock(&rdev->ddev->struct_mutex);
fb = radeon_framebuffer_create(rdev->ddev, &mode_cmd, gobj);
if (fb == NULL) {
DRM_ERROR("failed to allocate fb.\n");
190,8 → 740,8
 
list_add(&fb->filp_head, &rdev->ddev->mode_config.fb_kernel_list);
 
*fb_p = fb;
rfb = to_radeon_framebuffer(fb);
*rfb_p = rfb;
rdev->fbdev_rfb = rfb;
rdev->fbdev_robj = robj;
 
200,15 → 750,7
ret = -ENOMEM;
goto out_unref;
}
 
rdev->fbdev_info = info;
rfbdev = info->par;
rfbdev->helper.funcs = &radeon_fb_helper_funcs;
rfbdev->helper.dev = dev;
ret = drm_fb_helper_init_crtc_count(&rfbdev->helper, 2,
RADEONFB_CONN_LIMIT);
if (ret)
goto out_unref;
 
// ret = radeon_object_kmap(robj, &fbptr);
// if (ret) {
215,28 → 757,37
// goto out_unref;
// }
 
 
fbptr = (void*)0xFE000000; // LFB_BASE
 
 
strcpy(info->fix.id, "radeondrmfb");
 
drm_fb_helper_fill_fix(info, fb->pitch);
 
info->flags = FBINFO_DEFAULT;
info->fbops = &radeonfb_ops;
 
info->fix.type = FB_TYPE_PACKED_PIXELS;
info->fix.visual = FB_VISUAL_TRUECOLOR;
info->fix.type_aux = 0;
info->fix.xpanstep = 1; /* doing it in hw */
info->fix.ypanstep = 1; /* doing it in hw */
info->fix.ywrapstep = 0;
// info->fix.accel = FB_ACCEL_NONE;
info->fix.type_aux = 0;
// info->flags = FBINFO_DEFAULT;
// info->fbops = &radeonfb_ops;
info->fix.line_length = fb->pitch;
tmp = fb_gpuaddr - rdev->mc.vram_location;
info->fix.smem_start = rdev->mc.aper_base + tmp;
info->fix.smem_len = size;
info->screen_base = fbptr;
info->screen_size = size;
 
drm_fb_helper_fill_var(info, fb, fb_width, fb_height);
 
/* setup aperture base/size for vesafb takeover */
info->aperture_base = rdev->ddev->mode_config.fb_base;
info->aperture_size = rdev->mc.real_vram_size;
 
info->pseudo_palette = fb->pseudo_palette;
info->var.xres_virtual = fb->width;
info->var.yres_virtual = fb->height;
info->var.bits_per_pixel = fb->bits_per_pixel;
info->var.xoffset = 0;
info->var.yoffset = 0;
// info->var.activate = FB_ACTIVATE_NOW;
info->var.height = -1;
info->var.width = -1;
info->var.xres = fb_width;
info->var.yres = fb_height;
info->fix.mmio_start = 0;
info->fix.mmio_len = 0;
// info->pixmap.size = 64*1024;
254,6 → 805,60
DRM_INFO("fb depth is %d\n", fb->depth);
DRM_INFO(" pitch is %d\n", fb->pitch);
 
switch (fb->depth) {
case 8:
info->var.red.offset = 0;
info->var.green.offset = 0;
info->var.blue.offset = 0;
info->var.red.length = 8; /* 8bit DAC */
info->var.green.length = 8;
info->var.blue.length = 8;
info->var.transp.offset = 0;
info->var.transp.length = 0;
break;
case 15:
info->var.red.offset = 10;
info->var.green.offset = 5;
info->var.blue.offset = 0;
info->var.red.length = 5;
info->var.green.length = 5;
info->var.blue.length = 5;
info->var.transp.offset = 15;
info->var.transp.length = 1;
break;
case 16:
info->var.red.offset = 11;
info->var.green.offset = 5;
info->var.blue.offset = 0;
info->var.red.length = 5;
info->var.green.length = 6;
info->var.blue.length = 5;
info->var.transp.offset = 0;
break;
case 24:
info->var.red.offset = 16;
info->var.green.offset = 8;
info->var.blue.offset = 0;
info->var.red.length = 8;
info->var.green.length = 8;
info->var.blue.length = 8;
info->var.transp.offset = 0;
info->var.transp.length = 0;
break;
case 32:
info->var.red.offset = 16;
info->var.green.offset = 8;
info->var.blue.offset = 0;
info->var.red.length = 8;
info->var.green.length = 8;
info->var.blue.length = 8;
info->var.transp.offset = 24;
info->var.transp.length = 8;
break;
default:
break;
}
 
dbgprintf("fb = %x\n", fb);
 
fb->fbdev = info;
260,7 → 865,7
rfbdev->rfb = rfb;
rfbdev->rdev = rdev;
 
mutex_unlock(&rdev->ddev->struct_mutex);
// mutex_unlock(&rdev->ddev->struct_mutex);
return 0;
 
out_unref:
274,15 → 879,156
kfree(fb);
}
// drm_gem_object_unreference(gobj);
mutex_unlock(&rdev->ddev->struct_mutex);
// mutex_unlock(&rdev->ddev->struct_mutex);
out:
return ret;
}
 
static int radeonfb_single_fb_probe(struct radeon_device *rdev)
{
struct drm_crtc *crtc;
struct drm_connector *connector;
unsigned int fb_width = (unsigned)-1, fb_height = (unsigned)-1;
unsigned int surface_width = 0, surface_height = 0;
int new_fb = 0;
int crtc_count = 0;
int ret, i, conn_count = 0;
struct radeon_framebuffer *rfb;
struct fb_info *info;
struct radeon_fb_device *rfbdev;
struct drm_mode_set *modeset = NULL;
 
ENTRY();
 
/* first up get a count of crtcs now in use and new min/maxes width/heights */
list_for_each_entry(crtc, &rdev->ddev->mode_config.crtc_list, head) {
if (drm_helper_crtc_in_use(crtc)) {
if (crtc->desired_mode) {
if (crtc->desired_mode->hdisplay < fb_width)
fb_width = crtc->desired_mode->hdisplay;
 
if (crtc->desired_mode->vdisplay < fb_height)
fb_height = crtc->desired_mode->vdisplay;
 
if (crtc->desired_mode->hdisplay > surface_width)
surface_width = crtc->desired_mode->hdisplay;
 
if (crtc->desired_mode->vdisplay > surface_height)
surface_height = crtc->desired_mode->vdisplay;
}
crtc_count++;
}
}
 
if (crtc_count == 0 || fb_width == -1 || fb_height == -1) {
/* hmm everyone went away - assume VGA cable just fell out
and will come back later. */
 
dbgprintf("crtc count %x width %x height %x\n",
crtc_count, fb_width, fb_height);
return 0;
}
 
/* do we have an fb already? */
if (list_empty(&rdev->ddev->mode_config.fb_kernel_list)) {
/* create an fb if we don't have one */
ret = radeonfb_create(rdev, fb_width, fb_height, surface_width, surface_height, &rfb);
if (ret) {
return -EINVAL;
}
new_fb = 1;
} else {
struct drm_framebuffer *fb;
fb = list_first_entry(&rdev->ddev->mode_config.fb_kernel_list, struct drm_framebuffer, filp_head);
rfb = to_radeon_framebuffer(fb);
 
/* if someone hotplugs something bigger than we have already allocated, we are pwned.
As really we can't resize an fbdev that is in the wild currently due to fbdev
not really being designed for the lower layers moving stuff around under it.
- so in the grand style of things - punt. */
if ((fb->width < surface_width) || (fb->height < surface_height)) {
DRM_ERROR("Framebuffer not large enough to scale console onto.\n");
return -EINVAL;
}
}
 
info = rfb->base.fbdev;
rdev->fbdev_info = info;
rfbdev = info->par;
 
crtc_count = 0;
/* okay we need to setup new connector sets in the crtcs */
list_for_each_entry(crtc, &rdev->ddev->mode_config.crtc_list, head) {
struct radeon_crtc *radeon_crtc = to_radeon_crtc(crtc);
modeset = &radeon_crtc->mode_set;
modeset->fb = &rfb->base;
conn_count = 0;
list_for_each_entry(connector, &rdev->ddev->mode_config.connector_list, head) {
if (connector->encoder)
if (connector->encoder->crtc == modeset->crtc) {
modeset->connectors[conn_count] = connector;
conn_count++;
if (conn_count > RADEONFB_CONN_LIMIT)
BUG();
}
}
 
for (i = conn_count; i < RADEONFB_CONN_LIMIT; i++)
modeset->connectors[i] = NULL;
 
 
rfbdev->crtc_ids[crtc_count++] = crtc->base.id;
 
modeset->num_connectors = conn_count;
if (modeset->crtc->desired_mode) {
if (modeset->mode) {
drm_mode_destroy(rdev->ddev, modeset->mode);
}
modeset->mode = drm_mode_duplicate(rdev->ddev,
modeset->crtc->desired_mode);
}
}
rfbdev->crtc_count = crtc_count;
 
if (new_fb) {
info->var.pixclock = -1;
// if (register_framebuffer(info) < 0)
// return -EINVAL;
} else {
radeonfb_set_par(info);
}
printk(KERN_INFO "fb%d: %s frame buffer device\n", info->node,
info->fix.id);
 
/* Switch back to kernel console on panic */
// panic_mode = *modeset;
// atomic_notifier_chain_register(&panic_notifier_list, &paniced);
// printk(KERN_INFO "registered panic notifier\n");
LEAVE();
 
return 0;
}
 
int radeonfb_probe(struct drm_device *dev)
{
int ret;
ret = drm_fb_helper_single_fb_probe(dev, &radeonfb_create);
 
/* something has changed in the lower levels of hell - deal with it
here */
 
/* two modes : a) 1 fb to rule all crtcs.
b) one fb per crtc.
two actions 1) new connected device
2) device removed.
case a/1 : if the fb surface isn't big enough - resize the surface fb.
if the fb size isn't big enough - resize fb into surface.
if everything big enough configure the new crtc/etc.
case a/2 : undo the configuration
possibly resize down the fb to fit the new configuration.
case b/1 : see if it is on a new crtc - setup a new fb and add it.
case b/2 : teardown the new fb.
*/
ret = radeonfb_single_fb_probe(dev->dev_private);
return ret;
}
EXPORT_SYMBOL(radeonfb_probe);
298,7 → 1044,6
}
info = fb->fbdev;
if (info) {
struct radeon_fb_device *rfbdev = info->par;
robj = rfb->obj->driver_private;
// unregister_framebuffer(info);
// radeon_object_kunmap(robj);
307,7 → 1052,8
}
 
printk(KERN_INFO "unregistered panic notifier\n");
 
// atomic_notifier_chain_unregister(&panic_notifier_list, &paniced);
// memset(&panic_mode, 0, sizeof(struct drm_mode_set));
return 0;
}
EXPORT_SYMBOL(radeonfb_remove);
446,6 → 1192,8
 
bool ret;
 
ENTRY();
 
list_for_each_entry(connector, &dev->mode_config.connector_list, head)
{
struct drm_display_mode *mode;
496,17 → 1244,17
 
fb->width = width;
fb->height = height;
fb->pitch = radeon_align_pitch(dev->dev_private, width, 32, false) * ((32 + 1) / 8);
fb->pitch = radeon_align_pitch(dev->dev_private, width, 32)
* ((32 + 1) / 8);
 
crtc->fb = fb;
 
ret = drm_crtc_helper_set_mode(crtc, mode, 0, 0, fb);
 
sysSetScreen(width, height, fb->pitch);
sysSetScreen(width,height);
 
if (ret == true)
{
dbgprintf("new mode %d %d pitch %d\n", width, height, fb->pitch);
}
else
{
/drivers/video/drm/radeon/radeon_gart.c
75,9 → 75,10
 
int radeon_gart_table_vram_alloc(struct radeon_device *rdev)
{
uint32_t gpu_addr;
int r;
 
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
if (rdev->gart.table.vram.robj == NULL) {
r = radeon_object_create(rdev, NULL,
89,14 → 90,6
return r;
}
}
return 0;
}
 
int radeon_gart_table_vram_pin(struct radeon_device *rdev)
{
uint64_t gpu_addr;
int r;
 
r = radeon_object_pin(rdev->gart.table.vram.robj,
RADEON_GEM_DOMAIN_VRAM, &gpu_addr);
if (r) {
182,8 → 175,7
uint64_t page_base;
int i, j;
 
ENTER();
 
dbgprintf("%s ",__FUNCTION__);
dbgprintf("offset %x pages %x list %x\n",
offset, pages, pagelist);
 
215,7 → 207,7
mb();
radeon_gart_tlb_flush(rdev);
 
LEAVE();
dbgprintf("done %s\n",__FUNCTION__);
 
return 0;
}
223,7 → 215,7
int radeon_gart_init(struct radeon_device *rdev)
{
 
ENTER();
dbgprintf("%s\n",__FUNCTION__);
 
if (rdev->gart.pages) {
return 0;
/drivers/video/drm/radeon/radeon_object.c
29,8 → 29,9
* Thomas Hellstrom <thomas-at-tungstengraphics-dot-com>
* Dave Airlie
*/
#include <linux/list.h>
#include <drm/drmP.h>
#include <list.h>
#include <drmP.h>
 
#include "radeon_drm.h"
#include "radeon.h"
#include <drm_mm.h>
/drivers/video/drm/radeon/atom.h
25,7 → 25,7
#ifndef ATOM_H
#define ATOM_H
 
#include <linux/types.h>
#include <types.h>
#include "drmP.h"
 
#define ATOM_BIOS_MAGIC 0xAA55
/drivers/video/drm/radeon/radeon_display.c
158,6 → 158,9
{
struct radeon_crtc *radeon_crtc = to_radeon_crtc(crtc);
 
if (radeon_crtc->mode_set.mode) {
drm_mode_destroy(crtc->dev, radeon_crtc->mode_set.mode);
}
drm_crtc_cleanup(crtc);
kfree(radeon_crtc);
}
164,7 → 167,7
 
static const struct drm_crtc_funcs radeon_crtc_funcs = {
// .cursor_set = radeon_crtc_cursor_set,
.cursor_move = radeon_crtc_cursor_move,
// .cursor_move = radeon_crtc_cursor_move,
.gamma_set = radeon_crtc_gamma_set,
.set_config = drm_crtc_helper_set_config,
.destroy = radeon_crtc_destroy,
176,6 → 179,8
struct radeon_crtc *radeon_crtc;
int i;
 
ENTRY();
 
radeon_crtc = kzalloc(sizeof(struct radeon_crtc) + (RADEONFB_CONN_LIMIT * sizeof(struct drm_connector *)), GFP_KERNEL);
if (radeon_crtc == NULL)
return;
184,13 → 189,10
 
drm_mode_crtc_set_gamma_size(&radeon_crtc->base, 256);
radeon_crtc->crtc_id = index;
rdev->mode_info.crtcs[index] = radeon_crtc;
 
#if 0
radeon_crtc->mode_set.crtc = &radeon_crtc->base;
radeon_crtc->mode_set.connectors = (struct drm_connector **)(radeon_crtc + 1);
radeon_crtc->mode_set.num_connectors = 0;
#endif
 
for (i = 0; i < 256; i++) {
radeon_crtc->lut_r[i] = i << 2;
202,6 → 204,8
radeon_atombios_init_crtc(dev, radeon_crtc);
else
radeon_legacy_init_crtc(dev, radeon_crtc);
 
LEAVE();
}
 
static const char *encoder_names[34] = {
312,12 → 316,14
}
}
 
static bool radeon_setup_enc_conn(struct drm_device *dev)
bool radeon_setup_enc_conn(struct drm_device *dev)
{
struct radeon_device *rdev = dev->dev_private;
struct drm_connector *drm_connector;
bool ret = false;
 
ENTRY();
 
if (rdev->bios) {
if (rdev->is_atom_bios) {
if (rdev->family >= CHIP_R600)
335,6 → 341,7
list_for_each_entry(drm_connector, &dev->mode_config.connector_list, head)
radeon_ddc_dump(drm_connector);
}
LEAVE();
 
return ret;
}
346,13 → 353,9
 
if (!radeon_connector->ddc_bus)
return -1;
if (!radeon_connector->edid) {
radeon_i2c_do_lock(radeon_connector, 1);
edid = drm_get_edid(&radeon_connector->base, &radeon_connector->ddc_bus->adapter);
radeon_i2c_do_lock(radeon_connector, 0);
} else
edid = radeon_connector->edid;
 
if (edid) {
/* update digital bits here */
if (edid->input & DRM_EDID_INPUT_DIGITAL)
365,7 → 368,7
return ret;
}
drm_mode_connector_update_edid_property(&radeon_connector->base, NULL);
return 0;
return -1;
}
 
static int radeon_ddc_dump(struct drm_connector *connector)
495,10 → 498,6
tmp += (uint64_t)pll->reference_freq * 1000 * frac_feedback_div;
current_freq = radeon_div(tmp, ref_div * post_div);
 
if (flags & RADEON_PLL_PREFER_CLOSEST_LOWER) {
error = freq - current_freq;
error = error < 0 ? 0xffffffff : error;
} else
error = abs(current_freq - freq);
vco_diff = abs(vco - best_vco);
 
557,6 → 556,7
*post_div_p = best_post_div;
}
 
 
static void radeon_user_framebuffer_destroy(struct drm_framebuffer *fb)
{
struct radeon_framebuffer *radeon_fb = to_radeon_framebuffer(fb);
590,6 → 590,7
.create_handle = radeon_user_framebuffer_create_handle,
};
 
 
struct drm_framebuffer *
radeon_framebuffer_create(struct drm_device *dev,
struct drm_mode_fb_cmd *mode_cmd,
621,90 → 622,17
// return radeon_framebuffer_create(dev, mode_cmd, obj);
}
 
 
static const struct drm_mode_config_funcs radeon_mode_funcs = {
// .fb_create = radeon_user_framebuffer_create,
.fb_changed = radeonfb_probe,
};
 
struct drm_prop_enum_list {
int type;
char *name;
};
 
static struct drm_prop_enum_list radeon_tmds_pll_enum_list[] =
{ { 0, "driver" },
{ 1, "bios" },
};
 
static struct drm_prop_enum_list radeon_tv_std_enum_list[] =
{ { TV_STD_NTSC, "ntsc" },
{ TV_STD_PAL, "pal" },
{ TV_STD_PAL_M, "pal-m" },
{ TV_STD_PAL_60, "pal-60" },
{ TV_STD_NTSC_J, "ntsc-j" },
{ TV_STD_SCART_PAL, "scart-pal" },
{ TV_STD_PAL_CN, "pal-cn" },
{ TV_STD_SECAM, "secam" },
};
 
int radeon_modeset_create_props(struct radeon_device *rdev)
int radeon_modeset_init(struct radeon_device *rdev)
{
int i, sz;
 
if (rdev->is_atom_bios) {
rdev->mode_info.coherent_mode_property =
drm_property_create(rdev->ddev,
DRM_MODE_PROP_RANGE,
"coherent", 2);
if (!rdev->mode_info.coherent_mode_property)
return -ENOMEM;
dbgprintf("%s\n",__FUNCTION__);
 
rdev->mode_info.coherent_mode_property->values[0] = 0;
rdev->mode_info.coherent_mode_property->values[0] = 1;
}
 
if (!ASIC_IS_AVIVO(rdev)) {
sz = ARRAY_SIZE(radeon_tmds_pll_enum_list);
rdev->mode_info.tmds_pll_property =
drm_property_create(rdev->ddev,
DRM_MODE_PROP_ENUM,
"tmds_pll", sz);
for (i = 0; i < sz; i++) {
drm_property_add_enum(rdev->mode_info.tmds_pll_property,
i,
radeon_tmds_pll_enum_list[i].type,
radeon_tmds_pll_enum_list[i].name);
}
}
 
rdev->mode_info.load_detect_property =
drm_property_create(rdev->ddev,
DRM_MODE_PROP_RANGE,
"load detection", 2);
if (!rdev->mode_info.load_detect_property)
return -ENOMEM;
rdev->mode_info.load_detect_property->values[0] = 0;
rdev->mode_info.load_detect_property->values[0] = 1;
 
drm_mode_create_scaling_mode_property(rdev->ddev);
 
sz = ARRAY_SIZE(radeon_tv_std_enum_list);
rdev->mode_info.tv_std_property =
drm_property_create(rdev->ddev,
DRM_MODE_PROP_ENUM,
"tv standard", sz);
for (i = 0; i < sz; i++) {
drm_property_add_enum(rdev->mode_info.tv_std_property,
i,
radeon_tv_std_enum_list[i].type,
radeon_tv_std_enum_list[i].name);
}
 
return 0;
}
 
int radeon_modeset_init(struct radeon_device *rdev)
{
int num_crtc = 2, i;
int ret;
 
723,10 → 651,6
 
rdev->ddev->mode_config.fb_base = rdev->mc.aper_base;
 
ret = radeon_modeset_create_props(rdev);
if (ret) {
return ret;
}
/* allocate crtcs - TODO single crtc */
for (i = 0; i < num_crtc; i++) {
radeon_crtc_init(rdev->ddev, i);
738,6 → 662,9
return ret;
}
drm_helper_initial_config(rdev->ddev);
 
dbgprintf("done %s\n",__FUNCTION__);
 
return 0;
}
 
749,50 → 676,36
}
}
 
bool radeon_crtc_scaling_mode_fixup(struct drm_crtc *crtc,
struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode)
void radeon_init_disp_bandwidth(struct drm_device *dev)
{
struct drm_device *dev = crtc->dev;
struct drm_encoder *encoder;
struct radeon_device *rdev = dev->dev_private;
struct drm_display_mode *modes[2];
int pixel_bytes[2];
struct drm_crtc *crtc;
 
pixel_bytes[0] = pixel_bytes[1] = 0;
modes[0] = modes[1] = NULL;
 
list_for_each_entry(crtc, &dev->mode_config.crtc_list, head) {
struct radeon_crtc *radeon_crtc = to_radeon_crtc(crtc);
struct radeon_encoder *radeon_encoder;
bool first = true;
 
list_for_each_entry(encoder, &dev->mode_config.encoder_list, head) {
radeon_encoder = to_radeon_encoder(encoder);
if (encoder->crtc != crtc)
continue;
if (first) {
radeon_crtc->rmx_type = radeon_encoder->rmx_type;
memcpy(&radeon_crtc->native_mode,
&radeon_encoder->native_mode,
sizeof(struct radeon_native_mode));
first = false;
} else {
if (radeon_crtc->rmx_type != radeon_encoder->rmx_type) {
/* WARNING: Right now this can't happen but
* in the future we need to check that scaling
* are consistent accross different encoder
* (ie all encoder can work with the same
* scaling).
*/
DRM_ERROR("Scaling not consistent accross encoder.\n");
return false;
if (crtc->enabled && crtc->fb) {
modes[radeon_crtc->crtc_id] = &crtc->mode;
pixel_bytes[radeon_crtc->crtc_id] = crtc->fb->bits_per_pixel / 8;
}
}
}
if (radeon_crtc->rmx_type != RMX_OFF) {
fixed20_12 a, b;
a.full = rfixed_const(crtc->mode.vdisplay);
b.full = rfixed_const(radeon_crtc->native_mode.panel_xres);
radeon_crtc->vsc.full = rfixed_div(a, b);
a.full = rfixed_const(crtc->mode.hdisplay);
b.full = rfixed_const(radeon_crtc->native_mode.panel_yres);
radeon_crtc->hsc.full = rfixed_div(a, b);
 
if (ASIC_IS_AVIVO(rdev)) {
radeon_init_disp_bw_avivo(dev,
modes[0],
pixel_bytes[0],
modes[1],
pixel_bytes[1]);
} else {
radeon_crtc->vsc.full = rfixed_const(1);
radeon_crtc->hsc.full = rfixed_const(1);
radeon_init_disp_bw_legacy(dev,
modes[0],
pixel_bytes[0],
modes[1],
pixel_bytes[1]);
}
return true;
}
/drivers/video/drm/radeon/radeon_encoders.c
126,23 → 126,6
}
}
 
void radeon_encoder_set_active_device(struct drm_encoder *encoder)
{
struct drm_device *dev = encoder->dev;
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
struct drm_connector *connector;
 
list_for_each_entry(connector, &dev->mode_config.connector_list, head) {
if (connector->encoder == encoder) {
struct radeon_connector *radeon_connector = to_radeon_connector(connector);
radeon_encoder->active_device = radeon_encoder->devices & radeon_connector->devices;
DRM_DEBUG("setting active device to %08x from %08x %08x for encoder %d\n",
radeon_encoder->active_device, radeon_encoder->devices,
radeon_connector->devices, encoder->encoder_type);
}
}
}
 
static struct drm_connector *
radeon_get_connector_for_encoder(struct drm_encoder *encoder)
{
171,6 → 154,7
 
if (mode->hdisplay < native_mode->panel_xres ||
mode->vdisplay < native_mode->panel_yres) {
radeon_encoder->flags |= RADEON_USE_RMX;
if (ASIC_IS_AVIVO(rdev)) {
adjusted_mode->hdisplay = native_mode->panel_xres;
adjusted_mode->vdisplay = native_mode->panel_yres;
217,8 → 201,11
struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode)
{
 
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
 
radeon_encoder->flags &= ~RADEON_USE_RMX;
 
drm_mode_set_crtcinfo(adjusted_mode, 0);
 
if (radeon_encoder->rmx_type != RMX_OFF)
240,12 → 227,9
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
DAC_ENCODER_CONTROL_PS_ALLOCATION args;
int index = 0, num = 0;
struct radeon_encoder_atom_dac *dac_info = radeon_encoder->enc_priv;
/* fixme - fill in enc_priv for atom dac */
enum radeon_tv_std tv_std = TV_STD_NTSC;
 
if (dac_info->tv_std)
tv_std = dac_info->tv_std;
 
memset(&args, 0, sizeof(args));
 
switch (radeon_encoder->encoder_id) {
263,9 → 247,9
 
args.ucAction = action;
 
if (radeon_encoder->active_device & (ATOM_DEVICE_CRT_SUPPORT))
if (radeon_encoder->devices & (ATOM_DEVICE_CRT_SUPPORT))
args.ucDacStandard = ATOM_DAC1_PS2;
else if (radeon_encoder->active_device & (ATOM_DEVICE_CV_SUPPORT))
else if (radeon_encoder->devices & (ATOM_DEVICE_CV_SUPPORT))
args.ucDacStandard = ATOM_DAC1_CV;
else {
switch (tv_std) {
298,12 → 282,9
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
TV_ENCODER_CONTROL_PS_ALLOCATION args;
int index = 0;
struct radeon_encoder_atom_dac *dac_info = radeon_encoder->enc_priv;
/* fixme - fill in enc_priv for atom dac */
enum radeon_tv_std tv_std = TV_STD_NTSC;
 
if (dac_info->tv_std)
tv_std = dac_info->tv_std;
 
memset(&args, 0, sizeof(args));
 
index = GetIndexIntoMasterTable(COMMAND, TVEncoderControl);
310,7 → 291,7
 
args.sTVEncoder.ucAction = action;
 
if (radeon_encoder->active_device & (ATOM_DEVICE_CV_SUPPORT))
if (radeon_encoder->devices & (ATOM_DEVICE_CV_SUPPORT))
args.sTVEncoder.ucTvStandard = ATOM_TV_CV;
else {
switch (tv_std) {
542,7 → 523,6
 
switch (connector->connector_type) {
case DRM_MODE_CONNECTOR_DVII:
case DRM_MODE_CONNECTOR_HDMIB: /* HDMI-B is basically DL-DVI; analog works fine */
if (drm_detect_hdmi_monitor((struct edid *)connector->edid_blob_ptr))
return ATOM_ENCODER_MODE_HDMI;
else if (radeon_connector->use_digital)
552,6 → 532,7
break;
case DRM_MODE_CONNECTOR_DVID:
case DRM_MODE_CONNECTOR_HDMIA:
case DRM_MODE_CONNECTOR_HDMIB:
default:
if (drm_detect_hdmi_monitor((struct edid *)connector->edid_blob_ptr))
return ATOM_ENCODER_MODE_HDMI;
827,6 → 808,234
 
}
 
static void atom_rv515_force_tv_scaler(struct radeon_device *rdev)
{
 
WREG32(0x659C, 0x0);
WREG32(0x6594, 0x705);
WREG32(0x65A4, 0x10001);
WREG32(0x65D8, 0x0);
WREG32(0x65B0, 0x0);
WREG32(0x65C0, 0x0);
WREG32(0x65D4, 0x0);
WREG32(0x6578, 0x0);
WREG32(0x657C, 0x841880A8);
WREG32(0x6578, 0x1);
WREG32(0x657C, 0x84208680);
WREG32(0x6578, 0x2);
WREG32(0x657C, 0xBFF880B0);
WREG32(0x6578, 0x100);
WREG32(0x657C, 0x83D88088);
WREG32(0x6578, 0x101);
WREG32(0x657C, 0x84608680);
WREG32(0x6578, 0x102);
WREG32(0x657C, 0xBFF080D0);
WREG32(0x6578, 0x200);
WREG32(0x657C, 0x83988068);
WREG32(0x6578, 0x201);
WREG32(0x657C, 0x84A08680);
WREG32(0x6578, 0x202);
WREG32(0x657C, 0xBFF080F8);
WREG32(0x6578, 0x300);
WREG32(0x657C, 0x83588058);
WREG32(0x6578, 0x301);
WREG32(0x657C, 0x84E08660);
WREG32(0x6578, 0x302);
WREG32(0x657C, 0xBFF88120);
WREG32(0x6578, 0x400);
WREG32(0x657C, 0x83188040);
WREG32(0x6578, 0x401);
WREG32(0x657C, 0x85008660);
WREG32(0x6578, 0x402);
WREG32(0x657C, 0xBFF88150);
WREG32(0x6578, 0x500);
WREG32(0x657C, 0x82D88030);
WREG32(0x6578, 0x501);
WREG32(0x657C, 0x85408640);
WREG32(0x6578, 0x502);
WREG32(0x657C, 0xBFF88180);
WREG32(0x6578, 0x600);
WREG32(0x657C, 0x82A08018);
WREG32(0x6578, 0x601);
WREG32(0x657C, 0x85808620);
WREG32(0x6578, 0x602);
WREG32(0x657C, 0xBFF081B8);
WREG32(0x6578, 0x700);
WREG32(0x657C, 0x82608010);
WREG32(0x6578, 0x701);
WREG32(0x657C, 0x85A08600);
WREG32(0x6578, 0x702);
WREG32(0x657C, 0x800081F0);
WREG32(0x6578, 0x800);
WREG32(0x657C, 0x8228BFF8);
WREG32(0x6578, 0x801);
WREG32(0x657C, 0x85E085E0);
WREG32(0x6578, 0x802);
WREG32(0x657C, 0xBFF88228);
WREG32(0x6578, 0x10000);
WREG32(0x657C, 0x82A8BF00);
WREG32(0x6578, 0x10001);
WREG32(0x657C, 0x82A08CC0);
WREG32(0x6578, 0x10002);
WREG32(0x657C, 0x8008BEF8);
WREG32(0x6578, 0x10100);
WREG32(0x657C, 0x81F0BF28);
WREG32(0x6578, 0x10101);
WREG32(0x657C, 0x83608CA0);
WREG32(0x6578, 0x10102);
WREG32(0x657C, 0x8018BED0);
WREG32(0x6578, 0x10200);
WREG32(0x657C, 0x8148BF38);
WREG32(0x6578, 0x10201);
WREG32(0x657C, 0x84408C80);
WREG32(0x6578, 0x10202);
WREG32(0x657C, 0x8008BEB8);
WREG32(0x6578, 0x10300);
WREG32(0x657C, 0x80B0BF78);
WREG32(0x6578, 0x10301);
WREG32(0x657C, 0x85008C20);
WREG32(0x6578, 0x10302);
WREG32(0x657C, 0x8020BEA0);
WREG32(0x6578, 0x10400);
WREG32(0x657C, 0x8028BF90);
WREG32(0x6578, 0x10401);
WREG32(0x657C, 0x85E08BC0);
WREG32(0x6578, 0x10402);
WREG32(0x657C, 0x8018BE90);
WREG32(0x6578, 0x10500);
WREG32(0x657C, 0xBFB8BFB0);
WREG32(0x6578, 0x10501);
WREG32(0x657C, 0x86C08B40);
WREG32(0x6578, 0x10502);
WREG32(0x657C, 0x8010BE90);
WREG32(0x6578, 0x10600);
WREG32(0x657C, 0xBF58BFC8);
WREG32(0x6578, 0x10601);
WREG32(0x657C, 0x87A08AA0);
WREG32(0x6578, 0x10602);
WREG32(0x657C, 0x8010BE98);
WREG32(0x6578, 0x10700);
WREG32(0x657C, 0xBF10BFF0);
WREG32(0x6578, 0x10701);
WREG32(0x657C, 0x886089E0);
WREG32(0x6578, 0x10702);
WREG32(0x657C, 0x8018BEB0);
WREG32(0x6578, 0x10800);
WREG32(0x657C, 0xBED8BFE8);
WREG32(0x6578, 0x10801);
WREG32(0x657C, 0x89408940);
WREG32(0x6578, 0x10802);
WREG32(0x657C, 0xBFE8BED8);
WREG32(0x6578, 0x20000);
WREG32(0x657C, 0x80008000);
WREG32(0x6578, 0x20001);
WREG32(0x657C, 0x90008000);
WREG32(0x6578, 0x20002);
WREG32(0x657C, 0x80008000);
WREG32(0x6578, 0x20003);
WREG32(0x657C, 0x80008000);
WREG32(0x6578, 0x20100);
WREG32(0x657C, 0x80108000);
WREG32(0x6578, 0x20101);
WREG32(0x657C, 0x8FE0BF70);
WREG32(0x6578, 0x20102);
WREG32(0x657C, 0xBFE880C0);
WREG32(0x6578, 0x20103);
WREG32(0x657C, 0x80008000);
WREG32(0x6578, 0x20200);
WREG32(0x657C, 0x8018BFF8);
WREG32(0x6578, 0x20201);
WREG32(0x657C, 0x8F80BF08);
WREG32(0x6578, 0x20202);
WREG32(0x657C, 0xBFD081A0);
WREG32(0x6578, 0x20203);
WREG32(0x657C, 0xBFF88000);
WREG32(0x6578, 0x20300);
WREG32(0x657C, 0x80188000);
WREG32(0x6578, 0x20301);
WREG32(0x657C, 0x8EE0BEC0);
WREG32(0x6578, 0x20302);
WREG32(0x657C, 0xBFB082A0);
WREG32(0x6578, 0x20303);
WREG32(0x657C, 0x80008000);
WREG32(0x6578, 0x20400);
WREG32(0x657C, 0x80188000);
WREG32(0x6578, 0x20401);
WREG32(0x657C, 0x8E00BEA0);
WREG32(0x6578, 0x20402);
WREG32(0x657C, 0xBF8883C0);
WREG32(0x6578, 0x20403);
WREG32(0x657C, 0x80008000);
WREG32(0x6578, 0x20500);
WREG32(0x657C, 0x80188000);
WREG32(0x6578, 0x20501);
WREG32(0x657C, 0x8D00BE90);
WREG32(0x6578, 0x20502);
WREG32(0x657C, 0xBF588500);
WREG32(0x6578, 0x20503);
WREG32(0x657C, 0x80008008);
WREG32(0x6578, 0x20600);
WREG32(0x657C, 0x80188000);
WREG32(0x6578, 0x20601);
WREG32(0x657C, 0x8BC0BE98);
WREG32(0x6578, 0x20602);
WREG32(0x657C, 0xBF308660);
WREG32(0x6578, 0x20603);
WREG32(0x657C, 0x80008008);
WREG32(0x6578, 0x20700);
WREG32(0x657C, 0x80108000);
WREG32(0x6578, 0x20701);
WREG32(0x657C, 0x8A80BEB0);
WREG32(0x6578, 0x20702);
WREG32(0x657C, 0xBF0087C0);
WREG32(0x6578, 0x20703);
WREG32(0x657C, 0x80008008);
WREG32(0x6578, 0x20800);
WREG32(0x657C, 0x80108000);
WREG32(0x6578, 0x20801);
WREG32(0x657C, 0x8920BED0);
WREG32(0x6578, 0x20802);
WREG32(0x657C, 0xBED08920);
WREG32(0x6578, 0x20803);
WREG32(0x657C, 0x80008010);
WREG32(0x6578, 0x30000);
WREG32(0x657C, 0x90008000);
WREG32(0x6578, 0x30001);
WREG32(0x657C, 0x80008000);
WREG32(0x6578, 0x30100);
WREG32(0x657C, 0x8FE0BF90);
WREG32(0x6578, 0x30101);
WREG32(0x657C, 0xBFF880A0);
WREG32(0x6578, 0x30200);
WREG32(0x657C, 0x8F60BF40);
WREG32(0x6578, 0x30201);
WREG32(0x657C, 0xBFE88180);
WREG32(0x6578, 0x30300);
WREG32(0x657C, 0x8EC0BF00);
WREG32(0x6578, 0x30301);
WREG32(0x657C, 0xBFC88280);
WREG32(0x6578, 0x30400);
WREG32(0x657C, 0x8DE0BEE0);
WREG32(0x6578, 0x30401);
WREG32(0x657C, 0xBFA083A0);
WREG32(0x6578, 0x30500);
WREG32(0x657C, 0x8CE0BED0);
WREG32(0x6578, 0x30501);
WREG32(0x657C, 0xBF7884E0);
WREG32(0x6578, 0x30600);
WREG32(0x657C, 0x8BA0BED8);
WREG32(0x6578, 0x30601);
WREG32(0x657C, 0xBF508640);
WREG32(0x6578, 0x30700);
WREG32(0x657C, 0x8A60BEE8);
WREG32(0x6578, 0x30701);
WREG32(0x657C, 0xBF2087A0);
WREG32(0x6578, 0x30800);
WREG32(0x657C, 0x8900BF00);
WREG32(0x6578, 0x30801);
WREG32(0x657C, 0xBF008900);
}
 
static void
atombios_yuv_setup(struct drm_encoder *encoder, bool enable)
{
847,10 → 1056,10
 
/* XXX: fix up scratch reg handling */
temp = RREG32(reg);
if (radeon_encoder->active_device & (ATOM_DEVICE_TV_SUPPORT))
if (radeon_encoder->devices & (ATOM_DEVICE_TV_SUPPORT))
WREG32(reg, (ATOM_S3_TV1_ACTIVE |
(radeon_crtc->crtc_id << 18)));
else if (radeon_encoder->active_device & (ATOM_DEVICE_CV_SUPPORT))
else if (radeon_encoder->devices & (ATOM_DEVICE_CV_SUPPORT))
WREG32(reg, (ATOM_S3_CV_ACTIVE | (radeon_crtc->crtc_id << 24)));
else
WREG32(reg, 0);
865,6 → 1074,129
}
 
static void
atombios_overscan_setup(struct drm_encoder *encoder,
struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode)
{
struct drm_device *dev = encoder->dev;
struct radeon_device *rdev = dev->dev_private;
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
struct radeon_crtc *radeon_crtc = to_radeon_crtc(encoder->crtc);
SET_CRTC_OVERSCAN_PS_ALLOCATION args;
int index = GetIndexIntoMasterTable(COMMAND, SetCRTC_OverScan);
 
memset(&args, 0, sizeof(args));
 
args.usOverscanRight = 0;
args.usOverscanLeft = 0;
args.usOverscanBottom = 0;
args.usOverscanTop = 0;
args.ucCRTC = radeon_crtc->crtc_id;
 
if (radeon_encoder->flags & RADEON_USE_RMX) {
if (radeon_encoder->rmx_type == RMX_FULL) {
args.usOverscanRight = 0;
args.usOverscanLeft = 0;
args.usOverscanBottom = 0;
args.usOverscanTop = 0;
} else if (radeon_encoder->rmx_type == RMX_CENTER) {
args.usOverscanTop = (adjusted_mode->crtc_vdisplay - mode->crtc_vdisplay) / 2;
args.usOverscanBottom = (adjusted_mode->crtc_vdisplay - mode->crtc_vdisplay) / 2;
args.usOverscanLeft = (adjusted_mode->crtc_hdisplay - mode->crtc_hdisplay) / 2;
args.usOverscanRight = (adjusted_mode->crtc_hdisplay - mode->crtc_hdisplay) / 2;
} else if (radeon_encoder->rmx_type == RMX_ASPECT) {
int a1 = mode->crtc_vdisplay * adjusted_mode->crtc_hdisplay;
int a2 = adjusted_mode->crtc_vdisplay * mode->crtc_hdisplay;
 
if (a1 > a2) {
args.usOverscanLeft = (adjusted_mode->crtc_hdisplay - (a2 / mode->crtc_vdisplay)) / 2;
args.usOverscanRight = (adjusted_mode->crtc_hdisplay - (a2 / mode->crtc_vdisplay)) / 2;
} else if (a2 > a1) {
args.usOverscanLeft = (adjusted_mode->crtc_vdisplay - (a1 / mode->crtc_hdisplay)) / 2;
args.usOverscanRight = (adjusted_mode->crtc_vdisplay - (a1 / mode->crtc_hdisplay)) / 2;
}
}
}
 
atom_execute_table(rdev->mode_info.atom_context, index, (uint32_t *)&args);
 
}
 
static void
atombios_scaler_setup(struct drm_encoder *encoder)
{
struct drm_device *dev = encoder->dev;
struct radeon_device *rdev = dev->dev_private;
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
struct radeon_crtc *radeon_crtc = to_radeon_crtc(encoder->crtc);
ENABLE_SCALER_PS_ALLOCATION args;
int index = GetIndexIntoMasterTable(COMMAND, EnableScaler);
/* fixme - fill in enc_priv for atom dac */
enum radeon_tv_std tv_std = TV_STD_NTSC;
 
if (!ASIC_IS_AVIVO(rdev) && radeon_crtc->crtc_id)
return;
 
memset(&args, 0, sizeof(args));
 
args.ucScaler = radeon_crtc->crtc_id;
 
if (radeon_encoder->devices & (ATOM_DEVICE_TV_SUPPORT)) {
switch (tv_std) {
case TV_STD_NTSC:
default:
args.ucTVStandard = ATOM_TV_NTSC;
break;
case TV_STD_PAL:
args.ucTVStandard = ATOM_TV_PAL;
break;
case TV_STD_PAL_M:
args.ucTVStandard = ATOM_TV_PALM;
break;
case TV_STD_PAL_60:
args.ucTVStandard = ATOM_TV_PAL60;
break;
case TV_STD_NTSC_J:
args.ucTVStandard = ATOM_TV_NTSCJ;
break;
case TV_STD_SCART_PAL:
args.ucTVStandard = ATOM_TV_PAL; /* ??? */
break;
case TV_STD_SECAM:
args.ucTVStandard = ATOM_TV_SECAM;
break;
case TV_STD_PAL_CN:
args.ucTVStandard = ATOM_TV_PALCN;
break;
}
args.ucEnable = SCALER_ENABLE_MULTITAP_MODE;
} else if (radeon_encoder->devices & (ATOM_DEVICE_CV_SUPPORT)) {
args.ucTVStandard = ATOM_TV_CV;
args.ucEnable = SCALER_ENABLE_MULTITAP_MODE;
} else if (radeon_encoder->flags & RADEON_USE_RMX) {
if (radeon_encoder->rmx_type == RMX_FULL)
args.ucEnable = ATOM_SCALER_EXPANSION;
else if (radeon_encoder->rmx_type == RMX_CENTER)
args.ucEnable = ATOM_SCALER_CENTER;
else if (radeon_encoder->rmx_type == RMX_ASPECT)
args.ucEnable = ATOM_SCALER_EXPANSION;
} else {
if (ASIC_IS_AVIVO(rdev))
args.ucEnable = ATOM_SCALER_DISABLE;
else
args.ucEnable = ATOM_SCALER_CENTER;
}
 
atom_execute_table(rdev->mode_info.atom_context, index, (uint32_t *)&args);
 
if (radeon_encoder->devices & (ATOM_DEVICE_CV_SUPPORT | ATOM_DEVICE_TV_SUPPORT)
&& rdev->family >= CHIP_RV515 && rdev->family <= CHIP_RV570) {
atom_rv515_force_tv_scaler(rdev);
}
 
}
 
static void
radeon_atom_encoder_dpms(struct drm_encoder *encoder, int mode)
{
struct drm_device *dev = encoder->dev;
873,19 → 1205,9
DISPLAY_DEVICE_OUTPUT_CONTROL_PS_ALLOCATION args;
int index = 0;
bool is_dig = false;
int devices;
 
memset(&args, 0, sizeof(args));
 
/* on DPMS off we have no idea if active device is meaningful */
if (mode != DRM_MODE_DPMS_ON && !radeon_encoder->active_device)
devices = radeon_encoder->devices;
else
devices = radeon_encoder->active_device;
 
DRM_DEBUG("encoder dpms %d to mode %d, devices %08x, active_devices %08x\n",
radeon_encoder->encoder_id, mode, radeon_encoder->devices,
radeon_encoder->active_device);
switch (radeon_encoder->encoder_id) {
case ENCODER_OBJECT_ID_INTERNAL_TMDS1:
case ENCODER_OBJECT_ID_INTERNAL_KLDSCP_TMDS1:
913,9 → 1235,9
break;
case ENCODER_OBJECT_ID_INTERNAL_DAC1:
case ENCODER_OBJECT_ID_INTERNAL_KLDSCP_DAC1:
if (devices & (ATOM_DEVICE_TV_SUPPORT))
if (radeon_encoder->devices & (ATOM_DEVICE_TV_SUPPORT))
index = GetIndexIntoMasterTable(COMMAND, TV1OutputControl);
else if (devices & (ATOM_DEVICE_CV_SUPPORT))
else if (radeon_encoder->devices & (ATOM_DEVICE_CV_SUPPORT))
index = GetIndexIntoMasterTable(COMMAND, CV1OutputControl);
else
index = GetIndexIntoMasterTable(COMMAND, DAC1OutputControl);
922,9 → 1244,9
break;
case ENCODER_OBJECT_ID_INTERNAL_DAC2:
case ENCODER_OBJECT_ID_INTERNAL_KLDSCP_DAC2:
if (devices & (ATOM_DEVICE_TV_SUPPORT))
if (radeon_encoder->devices & (ATOM_DEVICE_TV_SUPPORT))
index = GetIndexIntoMasterTable(COMMAND, TV1OutputControl);
else if (devices & (ATOM_DEVICE_CV_SUPPORT))
else if (radeon_encoder->devices & (ATOM_DEVICE_CV_SUPPORT))
index = GetIndexIntoMasterTable(COMMAND, CV1OutputControl);
else
index = GetIndexIntoMasterTable(COMMAND, DAC2OutputControl);
1011,9 → 1333,9
break;
case ENCODER_OBJECT_ID_INTERNAL_DAC1:
case ENCODER_OBJECT_ID_INTERNAL_KLDSCP_DAC1:
if (radeon_encoder->active_device & (ATOM_DEVICE_TV_SUPPORT))
if (radeon_encoder->devices & (ATOM_DEVICE_TV_SUPPORT))
args.v1.ucDevice = ATOM_DEVICE_TV1_INDEX;
else if (radeon_encoder->active_device & (ATOM_DEVICE_CV_SUPPORT))
else if (radeon_encoder->devices & (ATOM_DEVICE_CV_SUPPORT))
args.v1.ucDevice = ATOM_DEVICE_CV_INDEX;
else
args.v1.ucDevice = ATOM_DEVICE_CRT1_INDEX;
1020,9 → 1342,9
break;
case ENCODER_OBJECT_ID_INTERNAL_DAC2:
case ENCODER_OBJECT_ID_INTERNAL_KLDSCP_DAC2:
if (radeon_encoder->active_device & (ATOM_DEVICE_TV_SUPPORT))
if (radeon_encoder->devices & (ATOM_DEVICE_TV_SUPPORT))
args.v1.ucDevice = ATOM_DEVICE_TV1_INDEX;
else if (radeon_encoder->active_device & (ATOM_DEVICE_CV_SUPPORT))
else if (radeon_encoder->devices & (ATOM_DEVICE_CV_SUPPORT))
args.v1.ucDevice = ATOM_DEVICE_CV_INDEX;
else
args.v1.ucDevice = ATOM_DEVICE_CRT2_INDEX;
1051,17 → 1373,17
args.v2.ucEncoderID = ASIC_INT_DIG2_ENCODER_ID;
break;
case ENCODER_OBJECT_ID_INTERNAL_KLDSCP_DAC1:
if (radeon_encoder->active_device & (ATOM_DEVICE_TV_SUPPORT))
if (radeon_encoder->devices & (ATOM_DEVICE_TV_SUPPORT))
args.v2.ucEncoderID = ASIC_INT_TV_ENCODER_ID;
else if (radeon_encoder->active_device & (ATOM_DEVICE_CV_SUPPORT))
else if (radeon_encoder->devices & (ATOM_DEVICE_CV_SUPPORT))
args.v2.ucEncoderID = ASIC_INT_TV_ENCODER_ID;
else
args.v2.ucEncoderID = ASIC_INT_DAC1_ENCODER_ID;
break;
case ENCODER_OBJECT_ID_INTERNAL_KLDSCP_DAC2:
if (radeon_encoder->active_device & (ATOM_DEVICE_TV_SUPPORT))
if (radeon_encoder->devices & (ATOM_DEVICE_TV_SUPPORT))
args.v2.ucEncoderID = ASIC_INT_TV_ENCODER_ID;
else if (radeon_encoder->active_device & (ATOM_DEVICE_CV_SUPPORT))
else if (radeon_encoder->devices & (ATOM_DEVICE_CV_SUPPORT))
args.v2.ucEncoderID = ASIC_INT_TV_ENCODER_ID;
else
args.v2.ucEncoderID = ASIC_INT_DAC2_ENCODER_ID;
1126,10 → 1448,12
radeon_encoder->pixel_clock = adjusted_mode->clock;
 
radeon_atombios_encoder_crtc_scratch_regs(encoder, radeon_crtc->crtc_id);
atombios_overscan_setup(encoder, mode, adjusted_mode);
atombios_scaler_setup(encoder);
atombios_set_encoder_crtc_source(encoder);
 
if (ASIC_IS_AVIVO(rdev)) {
if (radeon_encoder->active_device & (ATOM_DEVICE_CV_SUPPORT | ATOM_DEVICE_TV_SUPPORT))
if (radeon_encoder->devices & (ATOM_DEVICE_CV_SUPPORT | ATOM_DEVICE_TV_SUPPORT))
atombios_yuv_setup(encoder, true);
else
atombios_yuv_setup(encoder, false);
1167,7 → 1491,7
case ENCODER_OBJECT_ID_INTERNAL_DAC2:
case ENCODER_OBJECT_ID_INTERNAL_KLDSCP_DAC2:
atombios_dac_setup(encoder, ATOM_ENABLE);
if (radeon_encoder->active_device & (ATOM_DEVICE_TV_SUPPORT | ATOM_DEVICE_CV_SUPPORT))
if (radeon_encoder->devices & (ATOM_DEVICE_TV_SUPPORT | ATOM_DEVICE_CV_SUPPORT))
atombios_tv_setup(encoder, ATOM_ENABLE);
break;
}
1175,12 → 1499,11
}
 
static bool
atombios_dac_load_detect(struct drm_encoder *encoder, struct drm_connector *connector)
atombios_dac_load_detect(struct drm_encoder *encoder)
{
struct drm_device *dev = encoder->dev;
struct radeon_device *rdev = dev->dev_private;
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
struct radeon_connector *radeon_connector = to_radeon_connector(connector);
 
if (radeon_encoder->devices & (ATOM_DEVICE_TV_SUPPORT |
ATOM_DEVICE_CV_SUPPORT |
1201,15 → 1524,15
else
args.sDacload.ucDacType = ATOM_DAC_B;
 
if (radeon_connector->devices & ATOM_DEVICE_CRT1_SUPPORT)
if (radeon_encoder->devices & ATOM_DEVICE_CRT1_SUPPORT)
args.sDacload.usDeviceID = cpu_to_le16(ATOM_DEVICE_CRT1_SUPPORT);
else if (radeon_connector->devices & ATOM_DEVICE_CRT2_SUPPORT)
else if (radeon_encoder->devices & ATOM_DEVICE_CRT2_SUPPORT)
args.sDacload.usDeviceID = cpu_to_le16(ATOM_DEVICE_CRT2_SUPPORT);
else if (radeon_connector->devices & ATOM_DEVICE_CV_SUPPORT) {
else if (radeon_encoder->devices & ATOM_DEVICE_CV_SUPPORT) {
args.sDacload.usDeviceID = cpu_to_le16(ATOM_DEVICE_CV_SUPPORT);
if (crev >= 3)
args.sDacload.ucMisc = DAC_LOAD_MISC_YPrPb;
} else if (radeon_connector->devices & ATOM_DEVICE_TV1_SUPPORT) {
} else if (radeon_encoder->devices & ATOM_DEVICE_TV1_SUPPORT) {
args.sDacload.usDeviceID = cpu_to_le16(ATOM_DEVICE_TV1_SUPPORT);
if (crev >= 3)
args.sDacload.ucMisc = DAC_LOAD_MISC_YPrPb;
1228,10 → 1551,9
struct drm_device *dev = encoder->dev;
struct radeon_device *rdev = dev->dev_private;
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
struct radeon_connector *radeon_connector = to_radeon_connector(connector);
uint32_t bios_0_scratch;
 
if (!atombios_dac_load_detect(encoder, connector)) {
if (!atombios_dac_load_detect(encoder)) {
DRM_DEBUG("detect returned false \n");
return connector_status_unknown;
}
1241,20 → 1563,17
else
bios_0_scratch = RREG32(RADEON_BIOS_0_SCRATCH);
 
DRM_DEBUG("Bios 0 scratch %x %08x\n", bios_0_scratch, radeon_encoder->devices);
if (radeon_connector->devices & ATOM_DEVICE_CRT1_SUPPORT) {
DRM_DEBUG("Bios 0 scratch %x\n", bios_0_scratch);
if (radeon_encoder->devices & ATOM_DEVICE_CRT1_SUPPORT) {
if (bios_0_scratch & ATOM_S0_CRT1_MASK)
return connector_status_connected;
}
if (radeon_connector->devices & ATOM_DEVICE_CRT2_SUPPORT) {
} else if (radeon_encoder->devices & ATOM_DEVICE_CRT2_SUPPORT) {
if (bios_0_scratch & ATOM_S0_CRT2_MASK)
return connector_status_connected;
}
if (radeon_connector->devices & ATOM_DEVICE_CV_SUPPORT) {
} else if (radeon_encoder->devices & ATOM_DEVICE_CV_SUPPORT) {
if (bios_0_scratch & (ATOM_S0_CV_MASK|ATOM_S0_CV_MASK_A))
return connector_status_connected;
}
if (radeon_connector->devices & ATOM_DEVICE_TV1_SUPPORT) {
} else if (radeon_encoder->devices & ATOM_DEVICE_TV1_SUPPORT) {
if (bios_0_scratch & (ATOM_S0_TV1_COMPOSITE | ATOM_S0_TV1_COMPOSITE_A))
return connector_status_connected; /* CTV */
else if (bios_0_scratch & (ATOM_S0_TV1_SVIDEO | ATOM_S0_TV1_SVIDEO_A))
1267,8 → 1586,6
{
radeon_atom_output_lock(encoder, true);
radeon_atom_encoder_dpms(encoder, DRM_MODE_DPMS_OFF);
 
radeon_encoder_set_active_device(encoder);
}
 
static void radeon_atom_encoder_commit(struct drm_encoder *encoder)
1277,13 → 1594,6
radeon_atom_output_lock(encoder, false);
}
 
static void radeon_atom_encoder_disable(struct drm_encoder *encoder)
{
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
radeon_atom_encoder_dpms(encoder, DRM_MODE_DPMS_OFF);
radeon_encoder->active_device = 0;
}
 
static const struct drm_encoder_helper_funcs radeon_atom_dig_helper_funcs = {
.dpms = radeon_atom_encoder_dpms,
.mode_fixup = radeon_atom_mode_fixup,
1290,7 → 1600,6
.prepare = radeon_atom_encoder_prepare,
.mode_set = radeon_atom_encoder_mode_set,
.commit = radeon_atom_encoder_commit,
.disable = radeon_atom_encoder_disable,
/* no detect for TMDS/LVDS yet */
};
 
1315,18 → 1624,6
.destroy = radeon_enc_destroy,
};
 
struct radeon_encoder_atom_dac *
radeon_atombios_set_dac_info(struct radeon_encoder *radeon_encoder)
{
struct radeon_encoder_atom_dac *dac = kzalloc(sizeof(struct radeon_encoder_atom_dac), GFP_KERNEL);
 
if (!dac)
return NULL;
 
dac->tv_std = TV_STD_NTSC;
return dac;
}
 
struct radeon_encoder_atom_dig *
radeon_atombios_set_dig_info(struct radeon_encoder *radeon_encoder)
{
1370,7 → 1667,6
 
radeon_encoder->encoder_id = encoder_id;
radeon_encoder->devices = supported_device;
radeon_encoder->rmx_type = RMX_OFF;
 
switch (radeon_encoder->encoder_id) {
case ENCODER_OBJECT_ID_INTERNAL_LVDS:
1395,7 → 1691,6
case ENCODER_OBJECT_ID_INTERNAL_KLDSCP_DAC1:
case ENCODER_OBJECT_ID_INTERNAL_KLDSCP_DAC2:
drm_encoder_init(dev, encoder, &radeon_atom_enc_funcs, DRM_MODE_ENCODER_TVDAC);
radeon_encoder->enc_priv = radeon_atombios_set_dac_info(radeon_encoder);
drm_encoder_helper_add(encoder, &radeon_atom_dac_helper_funcs);
break;
case ENCODER_OBJECT_ID_INTERNAL_DVO1:
1405,14 → 1700,8
case ENCODER_OBJECT_ID_INTERNAL_KLDSCP_LVTMA:
case ENCODER_OBJECT_ID_INTERNAL_UNIPHY1:
case ENCODER_OBJECT_ID_INTERNAL_UNIPHY2:
if (radeon_encoder->devices & (ATOM_DEVICE_LCD_SUPPORT)) {
radeon_encoder->rmx_type = RMX_FULL;
drm_encoder_init(dev, encoder, &radeon_atom_enc_funcs, DRM_MODE_ENCODER_LVDS);
radeon_encoder->enc_priv = radeon_atombios_get_lvds_info(radeon_encoder);
} else {
drm_encoder_init(dev, encoder, &radeon_atom_enc_funcs, DRM_MODE_ENCODER_TMDS);
radeon_encoder->enc_priv = radeon_atombios_set_dig_info(radeon_encoder);
}
drm_encoder_helper_add(encoder, &radeon_atom_dig_helper_funcs);
break;
}
/drivers/video/drm/radeon/radeon_gem.c
182,9 → 182,9
struct radeon_device *rdev = dev->dev_private;
struct drm_radeon_gem_info *args = data;
 
args->vram_size = rdev->mc.real_vram_size;
args->vram_size = rdev->mc.vram_size;
/* FIXME: report somethings that makes sense */
args->vram_visible = rdev->mc.real_vram_size - (4 * 1024 * 1024);
args->vram_visible = rdev->mc.vram_size - (4 * 1024 * 1024);
args->gart_size = rdev->mc.gtt_size;
return 0;
}
/drivers/video/drm/radeon/atikms.lds
20,21 → 20,11
*(.data)
}
 
.bss ALIGN(__section_alignment__):
.reloc ALIGN(__section_alignment__) :
{
*(.bss)
*(COMMON)
*(.reloc)
}
 
/DISCARD/ :
{
*(.debug$S)
*(.debug$T)
*(.debug$F)
*(.drectve)
*(.edata)
}
 
.idata ALIGN(__section_alignment__):
{
SORT(*)(.idata$2)
47,10 → 37,19
SORT(*)(.idata$7)
}
 
.reloc ALIGN(__section_alignment__) :
.bss ALIGN(__section_alignment__):
{
*(.reloc)
*(.bss)
*(COMMON)
}
 
/DISCARD/ :
{
*(.debug$S)
*(.debug$T)
*(.debug$F)
*(.drectve)
*(.edata)
}
}
 
/drivers/video/drm/radeon/radeon_fence.c
53,9 → 53,9
* away
*/
WREG32(rdev->fence_drv.scratch_reg, fence->seq);
} else
} else {
radeon_fence_ring_emit(rdev, fence);
 
}
fence->emited = true;
fence->timeout = jiffies + ((2000 * HZ) / 1000);
list_del(&fence->list);
168,40 → 168,9
return signaled;
}
 
int r600_fence_wait(struct radeon_fence *fence, bool intr, bool lazy)
int radeon_fence_wait(struct radeon_fence *fence, bool interruptible)
{
struct radeon_device *rdev;
int ret = 0;
 
rdev = fence->rdev;
 
__set_current_state(intr ? TASK_INTERRUPTIBLE : TASK_UNINTERRUPTIBLE);
 
while (1) {
if (radeon_fence_signaled(fence))
break;
 
if (time_after_eq(jiffies, fence->timeout)) {
ret = -EBUSY;
break;
}
 
if (lazy)
schedule_timeout(1);
 
if (intr && signal_pending(current)) {
ret = -ERESTARTSYS;
break;
}
}
__set_current_state(TASK_RUNNING);
return ret;
}
 
 
int radeon_fence_wait(struct radeon_fence *fence, bool intr)
{
struct radeon_device *rdev;
unsigned long cur_jiffies;
unsigned long timeout;
bool expired = false;
216,14 → 185,6
if (radeon_fence_signaled(fence)) {
return 0;
}
 
if (rdev->family >= CHIP_R600) {
r = r600_fence_wait(fence, intr, 0);
if (r == -ERESTARTSYS)
return -EBUSY;
return r;
}
 
retry:
cur_jiffies = jiffies;
timeout = HZ / 100;
230,11 → 191,11
if (time_after(fence->timeout, cur_jiffies)) {
timeout = fence->timeout - cur_jiffies;
}
if (intr) {
if (interruptible) {
r = wait_event_interruptible_timeout(rdev->fence_drv.queue,
radeon_fence_signaled(fence), timeout);
if (unlikely(r == -ERESTARTSYS)) {
return -EBUSY;
return -ERESTART;
}
} else {
r = wait_event_timeout(rdev->fence_drv.queue,
/drivers/video/drm/radeon/radeon_mode.h
34,12 → 34,8
#include <drm_mode.h>
#include <drm_edid.h>
#include <linux/i2c.h>
#include <linux/i2c-id.h>
#include <linux/i2c-algo-bit.h>
#include "radeon_fixed.h"
 
struct radeon_device;
 
#define to_radeon_crtc(x) container_of(x, struct radeon_crtc, base)
#define to_radeon_connector(x) container_of(x, struct radeon_connector, base)
#define to_radeon_encoder(x) container_of(x, struct radeon_encoder, base)
127,7 → 123,6
#define RADEON_PLL_PREFER_LOW_POST_DIV (1 << 8)
#define RADEON_PLL_PREFER_HIGH_POST_DIV (1 << 9)
#define RADEON_PLL_USE_FRAC_FB_DIV (1 << 10)
#define RADEON_PLL_PREFER_CLOSEST_LOWER (1 << 11)
 
struct radeon_pll {
uint16_t reference_freq;
174,18 → 169,25
struct atom_context *atom_context;
enum radeon_connector_table connector_table;
bool mode_config_initialized;
struct radeon_crtc *crtcs[2];
/* DVI-I properties */
struct drm_property *coherent_mode_property;
/* DAC enable load detect */
struct drm_property *load_detect_property;
/* TV standard load detect */
struct drm_property *tv_std_property;
/* legacy TMDS PLL detect */
struct drm_property *tmds_pll_property;
};
 
struct radeon_crtc {
struct drm_crtc base;
int crtc_id;
u16_t lut_r[256], lut_g[256], lut_b[256];
bool enabled;
bool can_tile;
uint32_t crtc_offset;
struct radeon_framebuffer *fbdev_fb;
struct drm_mode_set mode_set;
// struct drm_gem_object *cursor_bo;
uint64_t cursor_addr;
int cursor_width;
int cursor_height;
};
 
#define RADEON_USE_RMX 1
 
struct radeon_native_mode {
/* preferred mode */
uint32_t panel_xres, panel_yres;
197,40 → 199,6
uint32_t flags;
};
 
#define MAX_H_CODE_TIMING_LEN 32
#define MAX_V_CODE_TIMING_LEN 32
 
/* need to store these as reading
back code tables is excessive */
struct radeon_tv_regs {
uint32_t tv_uv_adr;
uint32_t timing_cntl;
uint32_t hrestart;
uint32_t vrestart;
uint32_t frestart;
uint16_t h_code_timing[MAX_H_CODE_TIMING_LEN];
uint16_t v_code_timing[MAX_V_CODE_TIMING_LEN];
};
 
struct radeon_crtc {
struct drm_crtc base;
int crtc_id;
u16 lut_r[256], lut_g[256], lut_b[256];
bool enabled;
bool can_tile;
uint32_t crtc_offset;
// struct drm_gem_object *cursor_bo;
uint64_t cursor_addr;
int cursor_width;
int cursor_height;
uint32_t legacy_display_base_addr;
uint32_t legacy_cursor_offset;
enum radeon_rmx_type rmx_type;
fixed20_12 vsc;
fixed20_12 hsc;
struct radeon_native_mode native_mode;
};
 
struct radeon_encoder_primary_dac {
/* legacy primary dac */
uint32_t ps2_pdac_adj;
257,13 → 225,7
uint32_t ntsc_tvdac_adj;
uint32_t pal_tvdac_adj;
 
int h_pos;
int v_pos;
int h_size;
int supported_tv_stds;
bool tv_on;
enum radeon_tv_std tv_std;
struct radeon_tv_regs tv;
};
 
struct radeon_encoder_int_tmds {
282,15 → 244,10
struct radeon_native_mode native_mode;
};
 
struct radeon_encoder_atom_dac {
enum radeon_tv_std tv_std;
};
 
struct radeon_encoder {
struct drm_encoder base;
uint32_t encoder_id;
uint32_t devices;
uint32_t active_device;
uint32_t flags;
uint32_t pixel_clock;
enum radeon_rmx_type rmx_type;
308,12 → 265,8
uint32_t connector_id;
uint32_t devices;
struct radeon_i2c_chan *ddc_bus;
bool use_digital;
/* we need to mind the EDID between detect
and get modes due to analog/digital/tvencoder */
struct edid *edid;
int use_digital;
void *con_priv;
bool dac_load_detect;
};
 
struct radeon_framebuffer {
346,7 → 299,6
struct drm_encoder *radeon_encoder_legacy_tmds_ext_add(struct drm_device *dev, int bios_index);
extern void atombios_external_tmds_setup(struct drm_encoder *encoder, int action);
extern int atombios_get_encoder_mode(struct drm_encoder *encoder);
extern void radeon_encoder_set_active_device(struct drm_encoder *encoder);
 
extern void radeon_crtc_load_lut(struct drm_crtc *crtc);
extern int atombios_crtc_set_base(struct drm_crtc *crtc, int x, int y,
374,12 → 326,8
extern bool radeon_combios_get_clock_info(struct drm_device *dev);
extern struct radeon_encoder_atom_dig *
radeon_atombios_get_lvds_info(struct radeon_encoder *encoder);
bool radeon_atombios_get_tmds_info(struct radeon_encoder *encoder,
struct radeon_encoder_int_tmds *tmds);
bool radeon_legacy_get_tmds_info_from_combios(struct radeon_encoder *encoder,
struct radeon_encoder_int_tmds *tmds);
bool radeon_legacy_get_tmds_info_from_table(struct radeon_encoder *encoder,
struct radeon_encoder_int_tmds *tmds);
extern struct radeon_encoder_int_tmds *
radeon_atombios_get_tmds_info(struct radeon_encoder *encoder);
extern struct radeon_encoder_primary_dac *
radeon_atombios_get_primary_dac_info(struct radeon_encoder *encoder);
extern struct radeon_encoder_tv_dac *
386,6 → 334,8
radeon_atombios_get_tv_dac_info(struct radeon_encoder *encoder);
extern struct radeon_encoder_lvds *
radeon_combios_get_lvds_info(struct radeon_encoder *encoder);
extern struct radeon_encoder_int_tmds *
radeon_combios_get_tmds_info(struct radeon_encoder *encoder);
extern void radeon_combios_get_ext_tmds_info(struct radeon_encoder *encoder);
extern struct radeon_encoder_tv_dac *
radeon_combios_get_tv_dac_info(struct radeon_encoder *encoder);
395,8 → 345,6
extern void radeon_combios_initialize_bios_scratch_regs(struct drm_device *dev);
extern void radeon_atom_output_lock(struct drm_encoder *encoder, bool lock);
extern void radeon_atom_initialize_bios_scratch_regs(struct drm_device *dev);
extern void radeon_save_bios_scratch_regs(struct radeon_device *rdev);
extern void radeon_restore_bios_scratch_regs(struct radeon_device *rdev);
extern void
radeon_atombios_encoder_crtc_scratch_regs(struct drm_encoder *encoder, int crtc);
extern void
434,22 → 382,16
void radeon_copy_fb(struct drm_device *dev, struct drm_gem_object *dst_obj);
void radeon_combios_asic_init(struct drm_device *dev);
extern int radeon_static_clocks_init(struct drm_device *dev);
bool radeon_crtc_scaling_mode_fixup(struct drm_crtc *crtc,
struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode);
void atom_rv515_force_tv_scaler(struct radeon_device *rdev, struct radeon_crtc *radeon_crtc);
void radeon_init_disp_bw_legacy(struct drm_device *dev,
struct drm_display_mode *mode1,
uint32_t pixel_bytes1,
struct drm_display_mode *mode2,
uint32_t pixel_bytes2);
void radeon_init_disp_bw_avivo(struct drm_device *dev,
struct drm_display_mode *mode1,
uint32_t pixel_bytes1,
struct drm_display_mode *mode2,
uint32_t pixel_bytes2);
void radeon_init_disp_bandwidth(struct drm_device *dev);
 
/* legacy tv */
void radeon_legacy_tv_adjust_crtc_reg(struct drm_encoder *encoder,
uint32_t *h_total_disp, uint32_t *h_sync_strt_wid,
uint32_t *v_total_disp, uint32_t *v_sync_strt_wid);
void radeon_legacy_tv_adjust_pll1(struct drm_encoder *encoder,
uint32_t *htotal_cntl, uint32_t *ppll_ref_div,
uint32_t *ppll_div_3, uint32_t *pixclks_cntl);
void radeon_legacy_tv_adjust_pll2(struct drm_encoder *encoder,
uint32_t *htotal2_cntl, uint32_t *p2pll_ref_div,
uint32_t *p2pll_div_0, uint32_t *pixclks_cntl);
void radeon_legacy_tv_mode_set(struct drm_encoder *encoder,
struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode);
#endif
/drivers/video/drm/radeon/radeon_combios.c
685,15 → 685,23
0x00780000, /* rs480 */
};
 
static void radeon_legacy_get_tv_dac_info_from_table(struct radeon_device *rdev,
struct radeon_encoder_tv_dac *tv_dac)
static struct radeon_encoder_tv_dac
*radeon_legacy_get_tv_dac_info_from_table(struct radeon_device *rdev)
{
struct radeon_encoder_tv_dac *tv_dac = NULL;
 
tv_dac = kzalloc(sizeof(struct radeon_encoder_tv_dac), GFP_KERNEL);
 
if (!tv_dac)
return NULL;
 
tv_dac->ps2_tvdac_adj = default_tvdac_adj[rdev->family];
if ((rdev->flags & RADEON_IS_MOBILITY) && (rdev->family == CHIP_RV250))
tv_dac->ps2_tvdac_adj = 0x00880000;
tv_dac->pal_tvdac_adj = tv_dac->ps2_tvdac_adj;
tv_dac->ntsc_tvdac_adj = tv_dac->ps2_tvdac_adj;
return;
 
return tv_dac;
}
 
struct radeon_encoder_tv_dac *radeon_combios_get_tv_dac_info(struct
705,18 → 713,19
uint16_t dac_info;
uint8_t rev, bg, dac;
struct radeon_encoder_tv_dac *tv_dac = NULL;
int found = 0;
 
tv_dac = kzalloc(sizeof(struct radeon_encoder_tv_dac), GFP_KERNEL);
if (!tv_dac)
return NULL;
 
if (rdev->bios == NULL)
goto out;
return radeon_legacy_get_tv_dac_info_from_table(rdev);
 
/* first check TV table */
dac_info = combios_get_table_offset(dev, COMBIOS_TV_INFO_TABLE);
if (dac_info) {
tv_dac =
kzalloc(sizeof(struct radeon_encoder_tv_dac), GFP_KERNEL);
 
if (!tv_dac)
return NULL;
 
rev = RBIOS8(dac_info + 0x3);
if (rev > 4) {
bg = RBIOS8(dac_info + 0xc) & 0xf;
730,7 → 739,6
bg = RBIOS8(dac_info + 0x10) & 0xf;
dac = RBIOS8(dac_info + 0x11) & 0xf;
tv_dac->ntsc_tvdac_adj = (bg << 16) | (dac << 20);
found = 1;
} else if (rev > 1) {
bg = RBIOS8(dac_info + 0xc) & 0xf;
dac = (RBIOS8(dac_info + 0xc) >> 4) & 0xf;
743,16 → 751,22
bg = RBIOS8(dac_info + 0xe) & 0xf;
dac = (RBIOS8(dac_info + 0xe) >> 4) & 0xf;
tv_dac->ntsc_tvdac_adj = (bg << 16) | (dac << 20);
found = 1;
}
 
tv_dac->tv_std = radeon_combios_get_tv_info(encoder);
}
if (!found) {
 
} else {
/* then check CRT table */
dac_info =
combios_get_table_offset(dev, COMBIOS_CRT_INFO_TABLE);
if (dac_info) {
tv_dac =
kzalloc(sizeof(struct radeon_encoder_tv_dac),
GFP_KERNEL);
 
if (!tv_dac)
return NULL;
 
rev = RBIOS8(dac_info) & 0x3;
if (rev < 2) {
bg = RBIOS8(dac_info + 0x3) & 0xf;
761,7 → 775,6
(bg << 16) | (dac << 20);
tv_dac->pal_tvdac_adj = tv_dac->ps2_tvdac_adj;
tv_dac->ntsc_tvdac_adj = tv_dac->ps2_tvdac_adj;
found = 1;
} else {
bg = RBIOS8(dac_info + 0x4) & 0xf;
dac = RBIOS8(dac_info + 0x5) & 0xf;
769,15 → 782,12
(bg << 16) | (dac << 20);
tv_dac->pal_tvdac_adj = tv_dac->ps2_tvdac_adj;
tv_dac->ntsc_tvdac_adj = tv_dac->ps2_tvdac_adj;
found = 1;
}
} else {
DRM_INFO("No TV DAC info found in BIOS\n");
return radeon_legacy_get_tv_dac_info_from_table(rdev);
}
}
out:
if (!found) /* fallback to defaults */
radeon_legacy_get_tv_dac_info_from_table(rdev, tv_dac);
 
return tv_dac;
}
863,10 → 873,8
int tmp, i;
struct radeon_encoder_lvds *lvds = NULL;
 
if (rdev->bios == NULL) {
lvds = radeon_legacy_get_lvds_info_from_regs(rdev);
goto out;
}
if (rdev->bios == NULL)
return radeon_legacy_get_lvds_info_from_regs(rdev);
 
lcd_info = combios_get_table_offset(dev, COMBIOS_LCD_INFO_TABLE);
 
967,13 → 975,11
lvds->native_mode.flags = 0;
}
}
encoder->native_mode = lvds->native_mode;
} else {
DRM_INFO("No panel info found in BIOS\n");
lvds = radeon_legacy_get_lvds_info_from_regs(rdev);
return radeon_legacy_get_lvds_info_from_regs(rdev);
}
out:
if (lvds)
encoder->native_mode = lvds->native_mode;
return lvds;
}
 
998,13 → 1004,17
{{15000, 0xb0155}, {0xffffffff, 0xb01cb}, {0, 0}, {0, 0}}, /* CHIP_RS480 */
};
 
bool radeon_legacy_get_tmds_info_from_table(struct radeon_encoder *encoder,
struct radeon_encoder_int_tmds *tmds)
static struct radeon_encoder_int_tmds
*radeon_legacy_get_tmds_info_from_table(struct radeon_device *rdev)
{
struct drm_device *dev = encoder->base.dev;
struct radeon_device *rdev = dev->dev_private;
int i;
struct radeon_encoder_int_tmds *tmds = NULL;
 
tmds = kzalloc(sizeof(struct radeon_encoder_int_tmds), GFP_KERNEL);
 
if (!tmds)
return NULL;
 
for (i = 0; i < 4; i++) {
tmds->tmds_pll[i].value =
default_tmds_pll[rdev->family][i].value;
1011,11 → 1021,12
tmds->tmds_pll[i].freq = default_tmds_pll[rdev->family][i].freq;
}
 
return true;
return tmds;
}
 
bool radeon_legacy_get_tmds_info_from_combios(struct radeon_encoder *encoder,
struct radeon_encoder_int_tmds *tmds)
struct radeon_encoder_int_tmds *radeon_combios_get_tmds_info(struct
radeon_encoder
*encoder)
{
struct drm_device *dev = encoder->base.dev;
struct radeon_device *rdev = dev->dev_private;
1022,14 → 1033,20
uint16_t tmds_info;
int i, n;
uint8_t ver;
struct radeon_encoder_int_tmds *tmds = NULL;
 
if (rdev->bios == NULL)
return false;
return radeon_legacy_get_tmds_info_from_table(rdev);
 
tmds_info = combios_get_table_offset(dev, COMBIOS_DFP_INFO_TABLE);
 
if (tmds_info) {
tmds =
kzalloc(sizeof(struct radeon_encoder_int_tmds), GFP_KERNEL);
 
if (!tmds)
return NULL;
 
ver = RBIOS8(tmds_info);
DRM_INFO("DFP table revision: %d\n", ver);
if (ver == 3) {
1066,23 → 1083,6
}
} else
DRM_INFO("No TMDS info found in BIOS\n");
return true;
}
 
struct radeon_encoder_int_tmds *radeon_combios_get_tmds_info(struct radeon_encoder *encoder)
{
struct radeon_encoder_int_tmds *tmds = NULL;
bool ret;
 
tmds = kzalloc(sizeof(struct radeon_encoder_int_tmds), GFP_KERNEL);
 
if (!tmds)
return NULL;
 
ret = radeon_legacy_get_tmds_info_from_combios(encoder, tmds);
if (ret == false)
radeon_legacy_get_tmds_info_from_table(encoder, tmds);
 
return tmds;
}
 
/drivers/video/drm/radeon/radeon_legacy_crtc.c
23,178 → 23,12
* Authors: Dave Airlie
* Alex Deucher
*/
#include <drm/drmP.h>
#include <drm/drm_crtc_helper.h>
#include <drm/radeon_drm.h>
#include <drmP.h>
#include <drm_crtc_helper.h>
#include "radeon_drm.h"
#include "radeon_fixed.h"
#include "radeon.h"
#include "atom.h"
 
static void radeon_legacy_rmx_mode_set(struct drm_crtc *crtc,
struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode)
{
struct drm_device *dev = crtc->dev;
struct radeon_device *rdev = dev->dev_private;
struct radeon_crtc *radeon_crtc = to_radeon_crtc(crtc);
int xres = mode->hdisplay;
int yres = mode->vdisplay;
bool hscale = true, vscale = true;
int hsync_wid;
int vsync_wid;
int hsync_start;
int blank_width;
u32 scale, inc, crtc_more_cntl;
u32 fp_horz_stretch, fp_vert_stretch, fp_horz_vert_active;
u32 fp_h_sync_strt_wid, fp_crtc_h_total_disp;
u32 fp_v_sync_strt_wid, fp_crtc_v_total_disp;
struct radeon_native_mode *native_mode = &radeon_crtc->native_mode;
 
fp_vert_stretch = RREG32(RADEON_FP_VERT_STRETCH) &
(RADEON_VERT_STRETCH_RESERVED |
RADEON_VERT_AUTO_RATIO_INC);
fp_horz_stretch = RREG32(RADEON_FP_HORZ_STRETCH) &
(RADEON_HORZ_FP_LOOP_STRETCH |
RADEON_HORZ_AUTO_RATIO_INC);
 
crtc_more_cntl = 0;
if ((rdev->family == CHIP_RS100) ||
(rdev->family == CHIP_RS200)) {
/* This is to workaround the asic bug for RMX, some versions
of BIOS dosen't have this register initialized correctly. */
crtc_more_cntl |= RADEON_CRTC_H_CUTOFF_ACTIVE_EN;
}
 
 
fp_crtc_h_total_disp = ((((mode->crtc_htotal / 8) - 1) & 0x3ff)
| ((((mode->crtc_hdisplay / 8) - 1) & 0x1ff) << 16));
 
hsync_wid = (mode->crtc_hsync_end - mode->crtc_hsync_start) / 8;
if (!hsync_wid)
hsync_wid = 1;
hsync_start = mode->crtc_hsync_start - 8;
 
fp_h_sync_strt_wid = ((hsync_start & 0x1fff)
| ((hsync_wid & 0x3f) << 16)
| ((mode->flags & DRM_MODE_FLAG_NHSYNC)
? RADEON_CRTC_H_SYNC_POL
: 0));
 
fp_crtc_v_total_disp = (((mode->crtc_vtotal - 1) & 0xffff)
| ((mode->crtc_vdisplay - 1) << 16));
 
vsync_wid = mode->crtc_vsync_end - mode->crtc_vsync_start;
if (!vsync_wid)
vsync_wid = 1;
 
fp_v_sync_strt_wid = (((mode->crtc_vsync_start - 1) & 0xfff)
| ((vsync_wid & 0x1f) << 16)
| ((mode->flags & DRM_MODE_FLAG_NVSYNC)
? RADEON_CRTC_V_SYNC_POL
: 0));
 
fp_horz_vert_active = 0;
 
if (native_mode->panel_xres == 0 ||
native_mode->panel_yres == 0) {
hscale = false;
vscale = false;
} else {
if (xres > native_mode->panel_xres)
xres = native_mode->panel_xres;
if (yres > native_mode->panel_yres)
yres = native_mode->panel_yres;
 
if (xres == native_mode->panel_xres)
hscale = false;
if (yres == native_mode->panel_yres)
vscale = false;
}
 
switch (radeon_crtc->rmx_type) {
case RMX_FULL:
case RMX_ASPECT:
if (!hscale)
fp_horz_stretch |= ((xres/8-1) << 16);
else {
inc = (fp_horz_stretch & RADEON_HORZ_AUTO_RATIO_INC) ? 1 : 0;
scale = ((xres + inc) * RADEON_HORZ_STRETCH_RATIO_MAX)
/ native_mode->panel_xres + 1;
fp_horz_stretch |= (((scale) & RADEON_HORZ_STRETCH_RATIO_MASK) |
RADEON_HORZ_STRETCH_BLEND |
RADEON_HORZ_STRETCH_ENABLE |
((native_mode->panel_xres/8-1) << 16));
}
 
if (!vscale)
fp_vert_stretch |= ((yres-1) << 12);
else {
inc = (fp_vert_stretch & RADEON_VERT_AUTO_RATIO_INC) ? 1 : 0;
scale = ((yres + inc) * RADEON_VERT_STRETCH_RATIO_MAX)
/ native_mode->panel_yres + 1;
fp_vert_stretch |= (((scale) & RADEON_VERT_STRETCH_RATIO_MASK) |
RADEON_VERT_STRETCH_ENABLE |
RADEON_VERT_STRETCH_BLEND |
((native_mode->panel_yres-1) << 12));
}
break;
case RMX_CENTER:
fp_horz_stretch |= ((xres/8-1) << 16);
fp_vert_stretch |= ((yres-1) << 12);
 
crtc_more_cntl |= (RADEON_CRTC_AUTO_HORZ_CENTER_EN |
RADEON_CRTC_AUTO_VERT_CENTER_EN);
 
blank_width = (mode->crtc_hblank_end - mode->crtc_hblank_start) / 8;
if (blank_width > 110)
blank_width = 110;
 
fp_crtc_h_total_disp = (((blank_width) & 0x3ff)
| ((((mode->crtc_hdisplay / 8) - 1) & 0x1ff) << 16));
 
hsync_wid = (mode->crtc_hsync_end - mode->crtc_hsync_start) / 8;
if (!hsync_wid)
hsync_wid = 1;
 
fp_h_sync_strt_wid = ((((mode->crtc_hsync_start - mode->crtc_hblank_start) / 8) & 0x1fff)
| ((hsync_wid & 0x3f) << 16)
| ((mode->flags & DRM_MODE_FLAG_NHSYNC)
? RADEON_CRTC_H_SYNC_POL
: 0));
 
fp_crtc_v_total_disp = (((mode->crtc_vblank_end - mode->crtc_vblank_start) & 0xffff)
| ((mode->crtc_vdisplay - 1) << 16));
 
vsync_wid = mode->crtc_vsync_end - mode->crtc_vsync_start;
if (!vsync_wid)
vsync_wid = 1;
 
fp_v_sync_strt_wid = ((((mode->crtc_vsync_start - mode->crtc_vblank_start) & 0xfff)
| ((vsync_wid & 0x1f) << 16)
| ((mode->flags & DRM_MODE_FLAG_NVSYNC)
? RADEON_CRTC_V_SYNC_POL
: 0)));
 
fp_horz_vert_active = (((native_mode->panel_yres) & 0xfff) |
(((native_mode->panel_xres / 8) & 0x1ff) << 16));
break;
case RMX_OFF:
default:
fp_horz_stretch |= ((xres/8-1) << 16);
fp_vert_stretch |= ((yres-1) << 12);
break;
}
 
WREG32(RADEON_FP_HORZ_STRETCH, fp_horz_stretch);
WREG32(RADEON_FP_VERT_STRETCH, fp_vert_stretch);
WREG32(RADEON_CRTC_MORE_CNTL, crtc_more_cntl);
WREG32(RADEON_FP_HORZ_VERT_ACTIVE, fp_horz_vert_active);
WREG32(RADEON_FP_H_SYNC_STRT_WID, fp_h_sync_strt_wid);
WREG32(RADEON_FP_V_SYNC_STRT_WID, fp_v_sync_strt_wid);
WREG32(RADEON_FP_CRTC_H_TOTAL_DISP, fp_crtc_h_total_disp);
WREG32(RADEON_FP_CRTC_V_TOTAL_DISP, fp_crtc_v_total_disp);
}
 
void radeon_restore_common_regs(struct drm_device *dev)
{
/* don't need this yet */
311,13 → 145,10
RADEON_CRTC_DISP_REQ_EN_B));
WREG32_P(RADEON_CRTC_EXT_CNTL, 0, ~mask);
}
// drm_vblank_post_modeset(dev, radeon_crtc->crtc_id);
radeon_crtc_load_lut(crtc);
break;
case DRM_MODE_DPMS_STANDBY:
case DRM_MODE_DPMS_SUSPEND:
case DRM_MODE_DPMS_OFF:
// drm_vblank_pre_modeset(dev, radeon_crtc->crtc_id);
if (radeon_crtc->crtc_id)
WREG32_P(RADEON_CRTC2_GEN_CNTL, mask, ~mask);
else {
327,7 → 158,11
}
break;
}
 
if (mode != DRM_MODE_DPMS_OFF) {
radeon_crtc_load_lut(crtc);
}
}
 
/* properly set crtc bpp when using atombios */
void radeon_legacy_atom_set_surface(struct drm_crtc *crtc)
341,9 → 176,6
uint32_t crtc_pitch;
 
switch (crtc->fb->bits_per_pixel) {
case 8:
format = 2;
break;
case 15: /* 555 */
format = 3;
break;
403,44 → 235,16
uint64_t base;
uint32_t crtc_offset, crtc_offset_cntl, crtc_tile_x0_y0 = 0;
uint32_t crtc_pitch, pitch_pixels;
uint32_t tiling_flags;
int format;
uint32_t gen_cntl_reg, gen_cntl_val;
 
DRM_DEBUG("\n");
 
radeon_fb = to_radeon_framebuffer(crtc->fb);
 
switch (crtc->fb->bits_per_pixel) {
case 8:
format = 2;
break;
case 15: /* 555 */
format = 3;
break;
case 16: /* 565 */
format = 4;
break;
case 24: /* RGB */
format = 5;
break;
case 32: /* xRGB */
format = 6;
break;
default:
return false;
}
 
obj = radeon_fb->obj;
// if (radeon_gem_object_pin(obj, RADEON_GEM_DOMAIN_VRAM, &base)) {
// return -EINVAL;
// }
/* if scanout was in GTT this really wouldn't work */
/* crtc offset is from display base addr not FB location */
radeon_crtc->legacy_display_base_addr = rdev->mc.vram_location;
 
base -= radeon_crtc->legacy_display_base_addr;
 
crtc_offset = (u32)base;
crtc_offset_cntl = 0;
 
pitch_pixels = crtc->fb->pitch / (crtc->fb->bits_per_pixel / 8);
449,12 → 253,8
(crtc->fb->bits_per_pixel * 8));
crtc_pitch |= crtc_pitch << 16;
 
// radeon_object_get_tiling_flags(obj->driver_private,
// &tiling_flags, NULL);
if (tiling_flags & RADEON_TILING_MICRO)
DRM_ERROR("trying to scanout microtiled buffer\n");
 
if (tiling_flags & RADEON_TILING_MACRO) {
/* TODO tiling */
if (0) {
if (ASIC_IS_R300(rdev))
crtc_offset_cntl |= (R300_CRTC_X_Y_MODE_EN |
R300_CRTC_MICRO_TILE_BUFFER_DIS |
470,13 → 270,15
crtc_offset_cntl &= ~RADEON_CRTC_TILE_EN;
}
 
if (tiling_flags & RADEON_TILING_MACRO) {
 
/* TODO more tiling */
if (0) {
if (ASIC_IS_R300(rdev)) {
crtc_tile_x0_y0 = x | (y << 16);
base &= ~0x7ff;
} else {
int byteshift = crtc->fb->bits_per_pixel >> 4;
int tile_addr = (((y >> 3) * pitch_pixels + x) >> (8 - byteshift)) << 11;
int tile_addr = (((y >> 3) * crtc->fb->width + x) >> (8 - byteshift)) << 11;
base += tile_addr + ((x << byteshift) % 256) + ((y % 8) << 8);
crtc_offset_cntl |= (y % 16);
}
483,9 → 285,6
} else {
int offset = y * pitch_pixels + x;
switch (crtc->fb->bits_per_pixel) {
case 8:
offset *= 1;
break;
case 15:
case 16:
offset *= 2;
504,19 → 303,11
 
base &= ~7;
 
if (radeon_crtc->crtc_id == 1)
gen_cntl_reg = RADEON_CRTC2_GEN_CNTL;
else
gen_cntl_reg = RADEON_CRTC_GEN_CNTL;
/* update sarea TODO */
 
gen_cntl_val = RREG32(gen_cntl_reg);
gen_cntl_val &= ~(0xf << 8);
gen_cntl_val |= (format << 8);
WREG32(gen_cntl_reg, gen_cntl_val);
 
crtc_offset = (u32)base;
 
WREG32(RADEON_DISPLAY_BASE_ADDR + radeon_crtc->crtc_offset, radeon_crtc->legacy_display_base_addr);
WREG32(RADEON_DISPLAY_BASE_ADDR + radeon_crtc->crtc_offset, rdev->mc.vram_location);
 
if (ASIC_IS_R300(rdev)) {
if (radeon_crtc->crtc_id)
540,7 → 331,6
struct drm_device *dev = crtc->dev;
struct radeon_device *rdev = dev->dev_private;
struct radeon_crtc *radeon_crtc = to_radeon_crtc(crtc);
struct drm_encoder *encoder;
int format;
int hsync_start;
int hsync_wid;
549,24 → 339,10
uint32_t crtc_h_sync_strt_wid;
uint32_t crtc_v_total_disp;
uint32_t crtc_v_sync_strt_wid;
bool is_tv = false;
 
DRM_DEBUG("\n");
list_for_each_entry(encoder, &dev->mode_config.encoder_list, head) {
if (encoder->crtc == crtc) {
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
if (radeon_encoder->active_device & ATOM_DEVICE_TV_SUPPORT) {
is_tv = true;
DRM_INFO("crtc %d is connected to a TV\n", radeon_crtc->crtc_id);
break;
}
}
}
 
switch (crtc->fb->bits_per_pixel) {
case 8:
format = 2;
break;
case 15: /* 555 */
format = 3;
break;
696,11 → 472,6
WREG32(RADEON_CRTC_EXT_CNTL, crtc_ext_cntl);
}
 
if (is_tv)
radeon_legacy_tv_adjust_crtc_reg(encoder, &crtc_h_total_disp,
&crtc_h_sync_strt_wid, &crtc_v_total_disp,
&crtc_v_sync_strt_wid);
 
WREG32(RADEON_CRTC_H_TOTAL_DISP + radeon_crtc->crtc_offset, crtc_h_total_disp);
WREG32(RADEON_CRTC_H_SYNC_STRT_WID + radeon_crtc->crtc_offset, crtc_h_sync_strt_wid);
WREG32(RADEON_CRTC_V_TOTAL_DISP + radeon_crtc->crtc_offset, crtc_v_total_disp);
727,7 → 498,7
uint32_t pll_ref_div = 0;
uint32_t pll_fb_post_div = 0;
uint32_t htotal_cntl = 0;
bool is_tv = false;
 
struct radeon_pll *pll;
 
struct {
762,13 → 533,6
 
list_for_each_entry(encoder, &dev->mode_config.encoder_list, head) {
if (encoder->crtc == crtc) {
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
 
if (radeon_encoder->active_device & ATOM_DEVICE_TV_SUPPORT) {
is_tv = true;
break;
}
 
if (encoder->encoder_type != DRM_MODE_ENCODER_DAC)
pll_flags |= RADEON_PLL_NO_ODD_POST_DIV;
if (encoder->encoder_type == DRM_MODE_ENCODER_LVDS) {
832,12 → 596,6
~(RADEON_PIX2CLK_SRC_SEL_MASK)) |
RADEON_PIX2CLK_SRC_SEL_P2PLLCLK);
 
if (is_tv) {
radeon_legacy_tv_adjust_pll2(encoder, &htotal_cntl,
&pll_ref_div, &pll_fb_post_div,
&pixclks_cntl);
}
 
WREG32_PLL_P(RADEON_PIXCLKS_CNTL,
RADEON_PIX2CLK_SRC_SEL_CPUCLK,
~(RADEON_PIX2CLK_SRC_SEL_MASK));
892,15 → 650,6
 
WREG32_PLL(RADEON_PIXCLKS_CNTL, pixclks_cntl);
} else {
uint32_t pixclks_cntl;
 
 
if (is_tv) {
pixclks_cntl = RREG32_PLL(RADEON_PIXCLKS_CNTL);
radeon_legacy_tv_adjust_pll1(encoder, &htotal_cntl, &pll_ref_div,
&pll_fb_post_div, &pixclks_cntl);
}
 
if (rdev->flags & RADEON_IS_MOBILITY) {
/* A temporal workaround for the occational blanking on certain laptop panels.
This appears to related to the PLL divider registers (fail to lock?).
995,8 → 744,6
RADEON_VCLK_SRC_SEL_PPLLCLK,
~(RADEON_VCLK_SRC_SEL_MASK));
 
if (is_tv)
WREG32_PLL(RADEON_PIXCLKS_CNTL, pixclks_cntl);
}
}
 
1004,8 → 751,6
struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode)
{
if (!radeon_crtc_scaling_mode_fixup(crtc, mode, adjusted_mode))
return false;
return true;
}
 
1014,25 → 759,16
struct drm_display_mode *adjusted_mode,
int x, int y, struct drm_framebuffer *old_fb)
{
struct radeon_crtc *radeon_crtc = to_radeon_crtc(crtc);
struct drm_device *dev = crtc->dev;
struct radeon_device *rdev = dev->dev_private;
 
DRM_DEBUG("\n");
 
/* TODO TV */
 
radeon_crtc_set_base(crtc, x, y, old_fb);
radeon_set_crtc_timing(crtc, adjusted_mode);
radeon_set_pll(crtc, adjusted_mode);
radeon_bandwidth_update(rdev);
if (radeon_crtc->crtc_id == 0) {
radeon_legacy_rmx_mode_set(crtc, mode, adjusted_mode);
} else {
if (radeon_crtc->rmx_type != RMX_OFF) {
/* FIXME: only first crtc has rmx what should we
* do ?
*/
DRM_ERROR("Mode need scaling but only first crtc can do that.\n");
}
}
radeon_init_disp_bandwidth(crtc->dev);
 
return 0;
}
 
1063,3 → 799,478
radeon_crtc->crtc_offset = RADEON_CRTC2_H_TOTAL_DISP - RADEON_CRTC_H_TOTAL_DISP;
drm_crtc_helper_add(&radeon_crtc->base, &legacy_helper_funcs);
}
 
void radeon_init_disp_bw_legacy(struct drm_device *dev,
struct drm_display_mode *mode1,
uint32_t pixel_bytes1,
struct drm_display_mode *mode2,
uint32_t pixel_bytes2)
{
struct radeon_device *rdev = dev->dev_private;
fixed20_12 trcd_ff, trp_ff, tras_ff, trbs_ff, tcas_ff;
fixed20_12 sclk_ff, mclk_ff, sclk_eff_ff, sclk_delay_ff;
fixed20_12 peak_disp_bw, mem_bw, pix_clk, pix_clk2, temp_ff, crit_point_ff;
uint32_t temp, data, mem_trcd, mem_trp, mem_tras;
fixed20_12 memtcas_ff[8] = {
fixed_init(1),
fixed_init(2),
fixed_init(3),
fixed_init(0),
fixed_init_half(1),
fixed_init_half(2),
fixed_init(0),
};
fixed20_12 memtcas_rs480_ff[8] = {
fixed_init(0),
fixed_init(1),
fixed_init(2),
fixed_init(3),
fixed_init(0),
fixed_init_half(1),
fixed_init_half(2),
fixed_init_half(3),
};
fixed20_12 memtcas2_ff[8] = {
fixed_init(0),
fixed_init(1),
fixed_init(2),
fixed_init(3),
fixed_init(4),
fixed_init(5),
fixed_init(6),
fixed_init(7),
};
fixed20_12 memtrbs[8] = {
fixed_init(1),
fixed_init_half(1),
fixed_init(2),
fixed_init_half(2),
fixed_init(3),
fixed_init_half(3),
fixed_init(4),
fixed_init_half(4)
};
fixed20_12 memtrbs_r4xx[8] = {
fixed_init(4),
fixed_init(5),
fixed_init(6),
fixed_init(7),
fixed_init(8),
fixed_init(9),
fixed_init(10),
fixed_init(11)
};
fixed20_12 min_mem_eff;
fixed20_12 mc_latency_sclk, mc_latency_mclk, k1;
fixed20_12 cur_latency_mclk, cur_latency_sclk;
fixed20_12 disp_latency, disp_latency_overhead, disp_drain_rate,
disp_drain_rate2, read_return_rate;
fixed20_12 time_disp1_drop_priority;
int c;
int cur_size = 16; /* in octawords */
int critical_point = 0, critical_point2;
/* uint32_t read_return_rate, time_disp1_drop_priority; */
int stop_req, max_stop_req;
 
min_mem_eff.full = rfixed_const_8(0);
/* get modes */
if ((rdev->disp_priority == 2) && ASIC_IS_R300(rdev)) {
uint32_t mc_init_misc_lat_timer = RREG32(R300_MC_INIT_MISC_LAT_TIMER);
mc_init_misc_lat_timer &= ~(R300_MC_DISP1R_INIT_LAT_MASK << R300_MC_DISP1R_INIT_LAT_SHIFT);
mc_init_misc_lat_timer &= ~(R300_MC_DISP0R_INIT_LAT_MASK << R300_MC_DISP0R_INIT_LAT_SHIFT);
/* check crtc enables */
if (mode2)
mc_init_misc_lat_timer |= (1 << R300_MC_DISP1R_INIT_LAT_SHIFT);
if (mode1)
mc_init_misc_lat_timer |= (1 << R300_MC_DISP0R_INIT_LAT_SHIFT);
WREG32(R300_MC_INIT_MISC_LAT_TIMER, mc_init_misc_lat_timer);
}
 
/*
* determine is there is enough bw for current mode
*/
mclk_ff.full = rfixed_const(rdev->clock.default_mclk);
temp_ff.full = rfixed_const(100);
mclk_ff.full = rfixed_div(mclk_ff, temp_ff);
sclk_ff.full = rfixed_const(rdev->clock.default_sclk);
sclk_ff.full = rfixed_div(sclk_ff, temp_ff);
 
temp = (rdev->mc.vram_width / 8) * (rdev->mc.vram_is_ddr ? 2 : 1);
temp_ff.full = rfixed_const(temp);
mem_bw.full = rfixed_mul(mclk_ff, temp_ff);
 
pix_clk.full = 0;
pix_clk2.full = 0;
peak_disp_bw.full = 0;
if (mode1) {
temp_ff.full = rfixed_const(1000);
pix_clk.full = rfixed_const(mode1->clock); /* convert to fixed point */
pix_clk.full = rfixed_div(pix_clk, temp_ff);
temp_ff.full = rfixed_const(pixel_bytes1);
peak_disp_bw.full += rfixed_mul(pix_clk, temp_ff);
}
if (mode2) {
temp_ff.full = rfixed_const(1000);
pix_clk2.full = rfixed_const(mode2->clock); /* convert to fixed point */
pix_clk2.full = rfixed_div(pix_clk2, temp_ff);
temp_ff.full = rfixed_const(pixel_bytes2);
peak_disp_bw.full += rfixed_mul(pix_clk2, temp_ff);
}
 
mem_bw.full = rfixed_mul(mem_bw, min_mem_eff);
if (peak_disp_bw.full >= mem_bw.full) {
DRM_ERROR("You may not have enough display bandwidth for current mode\n"
"If you have flickering problem, try to lower resolution, refresh rate, or color depth\n");
}
 
/* Get values from the EXT_MEM_CNTL register...converting its contents. */
temp = RREG32(RADEON_MEM_TIMING_CNTL);
if ((rdev->family == CHIP_RV100) || (rdev->flags & RADEON_IS_IGP)) { /* RV100, M6, IGPs */
mem_trcd = ((temp >> 2) & 0x3) + 1;
mem_trp = ((temp & 0x3)) + 1;
mem_tras = ((temp & 0x70) >> 4) + 1;
} else if (rdev->family == CHIP_R300 ||
rdev->family == CHIP_R350) { /* r300, r350 */
mem_trcd = (temp & 0x7) + 1;
mem_trp = ((temp >> 8) & 0x7) + 1;
mem_tras = ((temp >> 11) & 0xf) + 4;
} else if (rdev->family == CHIP_RV350 ||
rdev->family <= CHIP_RV380) {
/* rv3x0 */
mem_trcd = (temp & 0x7) + 3;
mem_trp = ((temp >> 8) & 0x7) + 3;
mem_tras = ((temp >> 11) & 0xf) + 6;
} else if (rdev->family == CHIP_R420 ||
rdev->family == CHIP_R423 ||
rdev->family == CHIP_RV410) {
/* r4xx */
mem_trcd = (temp & 0xf) + 3;
if (mem_trcd > 15)
mem_trcd = 15;
mem_trp = ((temp >> 8) & 0xf) + 3;
if (mem_trp > 15)
mem_trp = 15;
mem_tras = ((temp >> 12) & 0x1f) + 6;
if (mem_tras > 31)
mem_tras = 31;
} else { /* RV200, R200 */
mem_trcd = (temp & 0x7) + 1;
mem_trp = ((temp >> 8) & 0x7) + 1;
mem_tras = ((temp >> 12) & 0xf) + 4;
}
/* convert to FF */
trcd_ff.full = rfixed_const(mem_trcd);
trp_ff.full = rfixed_const(mem_trp);
tras_ff.full = rfixed_const(mem_tras);
 
/* Get values from the MEM_SDRAM_MODE_REG register...converting its */
temp = RREG32(RADEON_MEM_SDRAM_MODE_REG);
data = (temp & (7 << 20)) >> 20;
if ((rdev->family == CHIP_RV100) || rdev->flags & RADEON_IS_IGP) {
if (rdev->family == CHIP_RS480) /* don't think rs400 */
tcas_ff = memtcas_rs480_ff[data];
else
tcas_ff = memtcas_ff[data];
} else
tcas_ff = memtcas2_ff[data];
 
if (rdev->family == CHIP_RS400 ||
rdev->family == CHIP_RS480) {
/* extra cas latency stored in bits 23-25 0-4 clocks */
data = (temp >> 23) & 0x7;
if (data < 5)
tcas_ff.full += rfixed_const(data);
}
 
if (ASIC_IS_R300(rdev) && !(rdev->flags & RADEON_IS_IGP)) {
/* on the R300, Tcas is included in Trbs.
*/
temp = RREG32(RADEON_MEM_CNTL);
data = (R300_MEM_NUM_CHANNELS_MASK & temp);
if (data == 1) {
if (R300_MEM_USE_CD_CH_ONLY & temp) {
temp = RREG32(R300_MC_IND_INDEX);
temp &= ~R300_MC_IND_ADDR_MASK;
temp |= R300_MC_READ_CNTL_CD_mcind;
WREG32(R300_MC_IND_INDEX, temp);
temp = RREG32(R300_MC_IND_DATA);
data = (R300_MEM_RBS_POSITION_C_MASK & temp);
} else {
temp = RREG32(R300_MC_READ_CNTL_AB);
data = (R300_MEM_RBS_POSITION_A_MASK & temp);
}
} else {
temp = RREG32(R300_MC_READ_CNTL_AB);
data = (R300_MEM_RBS_POSITION_A_MASK & temp);
}
if (rdev->family == CHIP_RV410 ||
rdev->family == CHIP_R420 ||
rdev->family == CHIP_R423)
trbs_ff = memtrbs_r4xx[data];
else
trbs_ff = memtrbs[data];
tcas_ff.full += trbs_ff.full;
}
 
sclk_eff_ff.full = sclk_ff.full;
 
// if (rdev->flags & RADEON_IS_AGP) {
// fixed20_12 agpmode_ff;
// agpmode_ff.full = rfixed_const(radeon_agpmode);
// temp_ff.full = rfixed_const_666(16);
// sclk_eff_ff.full -= rfixed_mul(agpmode_ff, temp_ff);
// }
/* TODO PCIE lanes may affect this - agpmode == 16?? */
 
if (ASIC_IS_R300(rdev)) {
sclk_delay_ff.full = rfixed_const(250);
} else {
if ((rdev->family == CHIP_RV100) ||
rdev->flags & RADEON_IS_IGP) {
if (rdev->mc.vram_is_ddr)
sclk_delay_ff.full = rfixed_const(41);
else
sclk_delay_ff.full = rfixed_const(33);
} else {
if (rdev->mc.vram_width == 128)
sclk_delay_ff.full = rfixed_const(57);
else
sclk_delay_ff.full = rfixed_const(41);
}
}
 
mc_latency_sclk.full = rfixed_div(sclk_delay_ff, sclk_eff_ff);
 
if (rdev->mc.vram_is_ddr) {
if (rdev->mc.vram_width == 32) {
k1.full = rfixed_const(40);
c = 3;
} else {
k1.full = rfixed_const(20);
c = 1;
}
} else {
k1.full = rfixed_const(40);
c = 3;
}
 
temp_ff.full = rfixed_const(2);
mc_latency_mclk.full = rfixed_mul(trcd_ff, temp_ff);
temp_ff.full = rfixed_const(c);
mc_latency_mclk.full += rfixed_mul(tcas_ff, temp_ff);
temp_ff.full = rfixed_const(4);
mc_latency_mclk.full += rfixed_mul(tras_ff, temp_ff);
mc_latency_mclk.full += rfixed_mul(trp_ff, temp_ff);
mc_latency_mclk.full += k1.full;
 
mc_latency_mclk.full = rfixed_div(mc_latency_mclk, mclk_ff);
mc_latency_mclk.full += rfixed_div(temp_ff, sclk_eff_ff);
 
/*
HW cursor time assuming worst case of full size colour cursor.
*/
temp_ff.full = rfixed_const((2 * (cur_size - (rdev->mc.vram_is_ddr + 1))));
temp_ff.full += trcd_ff.full;
if (temp_ff.full < tras_ff.full)
temp_ff.full = tras_ff.full;
cur_latency_mclk.full = rfixed_div(temp_ff, mclk_ff);
 
temp_ff.full = rfixed_const(cur_size);
cur_latency_sclk.full = rfixed_div(temp_ff, sclk_eff_ff);
/*
Find the total latency for the display data.
*/
disp_latency_overhead.full = rfixed_const(80);
disp_latency_overhead.full = rfixed_div(disp_latency_overhead, sclk_ff);
mc_latency_mclk.full += disp_latency_overhead.full + cur_latency_mclk.full;
mc_latency_sclk.full += disp_latency_overhead.full + cur_latency_sclk.full;
 
if (mc_latency_mclk.full > mc_latency_sclk.full)
disp_latency.full = mc_latency_mclk.full;
else
disp_latency.full = mc_latency_sclk.full;
 
/* setup Max GRPH_STOP_REQ default value */
if (ASIC_IS_RV100(rdev))
max_stop_req = 0x5c;
else
max_stop_req = 0x7c;
 
if (mode1) {
/* CRTC1
Set GRPH_BUFFER_CNTL register using h/w defined optimal values.
GRPH_STOP_REQ <= MIN[ 0x7C, (CRTC_H_DISP + 1) * (bit depth) / 0x10 ]
*/
stop_req = mode1->hdisplay * pixel_bytes1 / 16;
 
if (stop_req > max_stop_req)
stop_req = max_stop_req;
 
/*
Find the drain rate of the display buffer.
*/
temp_ff.full = rfixed_const((16/pixel_bytes1));
disp_drain_rate.full = rfixed_div(pix_clk, temp_ff);
 
/*
Find the critical point of the display buffer.
*/
crit_point_ff.full = rfixed_mul(disp_drain_rate, disp_latency);
crit_point_ff.full += rfixed_const_half(0);
 
critical_point = rfixed_trunc(crit_point_ff);
 
if (rdev->disp_priority == 2) {
critical_point = 0;
}
 
/*
The critical point should never be above max_stop_req-4. Setting
GRPH_CRITICAL_CNTL = 0 will thus force high priority all the time.
*/
if (max_stop_req - critical_point < 4)
critical_point = 0;
 
if (critical_point == 0 && mode2 && rdev->family == CHIP_R300) {
/* some R300 cards have problem with this set to 0, when CRTC2 is enabled.*/
critical_point = 0x10;
}
 
temp = RREG32(RADEON_GRPH_BUFFER_CNTL);
temp &= ~(RADEON_GRPH_STOP_REQ_MASK);
temp |= (stop_req << RADEON_GRPH_STOP_REQ_SHIFT);
temp &= ~(RADEON_GRPH_START_REQ_MASK);
if ((rdev->family == CHIP_R350) &&
(stop_req > 0x15)) {
stop_req -= 0x10;
}
temp |= (stop_req << RADEON_GRPH_START_REQ_SHIFT);
temp |= RADEON_GRPH_BUFFER_SIZE;
temp &= ~(RADEON_GRPH_CRITICAL_CNTL |
RADEON_GRPH_CRITICAL_AT_SOF |
RADEON_GRPH_STOP_CNTL);
/*
Write the result into the register.
*/
WREG32(RADEON_GRPH_BUFFER_CNTL, ((temp & ~RADEON_GRPH_CRITICAL_POINT_MASK) |
(critical_point << RADEON_GRPH_CRITICAL_POINT_SHIFT)));
 
#if 0
if ((rdev->family == CHIP_RS400) ||
(rdev->family == CHIP_RS480)) {
/* attempt to program RS400 disp regs correctly ??? */
temp = RREG32(RS400_DISP1_REG_CNTL);
temp &= ~(RS400_DISP1_START_REQ_LEVEL_MASK |
RS400_DISP1_STOP_REQ_LEVEL_MASK);
WREG32(RS400_DISP1_REQ_CNTL1, (temp |
(critical_point << RS400_DISP1_START_REQ_LEVEL_SHIFT) |
(critical_point << RS400_DISP1_STOP_REQ_LEVEL_SHIFT)));
temp = RREG32(RS400_DMIF_MEM_CNTL1);
temp &= ~(RS400_DISP1_CRITICAL_POINT_START_MASK |
RS400_DISP1_CRITICAL_POINT_STOP_MASK);
WREG32(RS400_DMIF_MEM_CNTL1, (temp |
(critical_point << RS400_DISP1_CRITICAL_POINT_START_SHIFT) |
(critical_point << RS400_DISP1_CRITICAL_POINT_STOP_SHIFT)));
}
#endif
 
DRM_DEBUG("GRPH_BUFFER_CNTL from to %x\n",
/* (unsigned int)info->SavedReg->grph_buffer_cntl, */
(unsigned int)RREG32(RADEON_GRPH_BUFFER_CNTL));
}
 
if (mode2) {
u32 grph2_cntl;
stop_req = mode2->hdisplay * pixel_bytes2 / 16;
 
if (stop_req > max_stop_req)
stop_req = max_stop_req;
 
/*
Find the drain rate of the display buffer.
*/
temp_ff.full = rfixed_const((16/pixel_bytes2));
disp_drain_rate2.full = rfixed_div(pix_clk2, temp_ff);
 
grph2_cntl = RREG32(RADEON_GRPH2_BUFFER_CNTL);
grph2_cntl &= ~(RADEON_GRPH_STOP_REQ_MASK);
grph2_cntl |= (stop_req << RADEON_GRPH_STOP_REQ_SHIFT);
grph2_cntl &= ~(RADEON_GRPH_START_REQ_MASK);
if ((rdev->family == CHIP_R350) &&
(stop_req > 0x15)) {
stop_req -= 0x10;
}
grph2_cntl |= (stop_req << RADEON_GRPH_START_REQ_SHIFT);
grph2_cntl |= RADEON_GRPH_BUFFER_SIZE;
grph2_cntl &= ~(RADEON_GRPH_CRITICAL_CNTL |
RADEON_GRPH_CRITICAL_AT_SOF |
RADEON_GRPH_STOP_CNTL);
 
if ((rdev->family == CHIP_RS100) ||
(rdev->family == CHIP_RS200))
critical_point2 = 0;
else {
temp = (rdev->mc.vram_width * rdev->mc.vram_is_ddr + 1)/128;
temp_ff.full = rfixed_const(temp);
temp_ff.full = rfixed_mul(mclk_ff, temp_ff);
if (sclk_ff.full < temp_ff.full)
temp_ff.full = sclk_ff.full;
 
read_return_rate.full = temp_ff.full;
 
if (mode1) {
temp_ff.full = read_return_rate.full - disp_drain_rate.full;
time_disp1_drop_priority.full = rfixed_div(crit_point_ff, temp_ff);
} else {
time_disp1_drop_priority.full = 0;
}
crit_point_ff.full = disp_latency.full + time_disp1_drop_priority.full + disp_latency.full;
crit_point_ff.full = rfixed_mul(crit_point_ff, disp_drain_rate2);
crit_point_ff.full += rfixed_const_half(0);
 
critical_point2 = rfixed_trunc(crit_point_ff);
 
if (rdev->disp_priority == 2) {
critical_point2 = 0;
}
 
if (max_stop_req - critical_point2 < 4)
critical_point2 = 0;
 
}
 
if (critical_point2 == 0 && rdev->family == CHIP_R300) {
/* some R300 cards have problem with this set to 0 */
critical_point2 = 0x10;
}
 
WREG32(RADEON_GRPH2_BUFFER_CNTL, ((grph2_cntl & ~RADEON_GRPH_CRITICAL_POINT_MASK) |
(critical_point2 << RADEON_GRPH_CRITICAL_POINT_SHIFT)));
 
if ((rdev->family == CHIP_RS400) ||
(rdev->family == CHIP_RS480)) {
#if 0
/* attempt to program RS400 disp2 regs correctly ??? */
temp = RREG32(RS400_DISP2_REQ_CNTL1);
temp &= ~(RS400_DISP2_START_REQ_LEVEL_MASK |
RS400_DISP2_STOP_REQ_LEVEL_MASK);
WREG32(RS400_DISP2_REQ_CNTL1, (temp |
(critical_point2 << RS400_DISP1_START_REQ_LEVEL_SHIFT) |
(critical_point2 << RS400_DISP1_STOP_REQ_LEVEL_SHIFT)));
temp = RREG32(RS400_DISP2_REQ_CNTL2);
temp &= ~(RS400_DISP2_CRITICAL_POINT_START_MASK |
RS400_DISP2_CRITICAL_POINT_STOP_MASK);
WREG32(RS400_DISP2_REQ_CNTL2, (temp |
(critical_point2 << RS400_DISP2_CRITICAL_POINT_START_SHIFT) |
(critical_point2 << RS400_DISP2_CRITICAL_POINT_STOP_SHIFT)));
#endif
WREG32(RS400_DISP2_REQ_CNTL1, 0x105DC1CC);
WREG32(RS400_DISP2_REQ_CNTL2, 0x2749D000);
WREG32(RS400_DMIF_MEM_CNTL1, 0x29CA71DC);
WREG32(RS400_DISP1_REQ_CNTL1, 0x28FBC3AC);
}
 
DRM_DEBUG("GRPH2_BUFFER_CNTL from to %x\n",
(unsigned int)RREG32(RADEON_GRPH2_BUFFER_CNTL));
}
}
/drivers/video/drm/radeon/radeon_legacy_encoders.c
29,16 → 29,171
#include "radeon.h"
#include "atom.h"
 
static void radeon_legacy_encoder_disable(struct drm_encoder *encoder)
 
static void radeon_legacy_rmx_mode_set(struct drm_encoder *encoder,
struct drm_display_mode *mode,
struct drm_display_mode *adjusted_mode)
{
struct drm_device *dev = encoder->dev;
struct radeon_device *rdev = dev->dev_private;
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
struct drm_encoder_helper_funcs *encoder_funcs;
int xres = mode->hdisplay;
int yres = mode->vdisplay;
bool hscale = true, vscale = true;
int hsync_wid;
int vsync_wid;
int hsync_start;
uint32_t scale, inc;
uint32_t fp_horz_stretch, fp_vert_stretch, crtc_more_cntl, fp_horz_vert_active;
uint32_t fp_h_sync_strt_wid, fp_v_sync_strt_wid, fp_crtc_h_total_disp, fp_crtc_v_total_disp;
struct radeon_native_mode *native_mode = &radeon_encoder->native_mode;
 
encoder_funcs = encoder->helper_private;
encoder_funcs->dpms(encoder, DRM_MODE_DPMS_OFF);
radeon_encoder->active_device = 0;
DRM_DEBUG("\n");
 
fp_vert_stretch = RREG32(RADEON_FP_VERT_STRETCH) &
(RADEON_VERT_STRETCH_RESERVED |
RADEON_VERT_AUTO_RATIO_INC);
fp_horz_stretch = RREG32(RADEON_FP_HORZ_STRETCH) &
(RADEON_HORZ_FP_LOOP_STRETCH |
RADEON_HORZ_AUTO_RATIO_INC);
 
crtc_more_cntl = 0;
if ((rdev->family == CHIP_RS100) ||
(rdev->family == CHIP_RS200)) {
/* This is to workaround the asic bug for RMX, some versions
of BIOS dosen't have this register initialized correctly. */
crtc_more_cntl |= RADEON_CRTC_H_CUTOFF_ACTIVE_EN;
}
 
 
fp_crtc_h_total_disp = ((((mode->crtc_htotal / 8) - 1) & 0x3ff)
| ((((mode->crtc_hdisplay / 8) - 1) & 0x1ff) << 16));
 
hsync_wid = (mode->crtc_hsync_end - mode->crtc_hsync_start) / 8;
if (!hsync_wid)
hsync_wid = 1;
hsync_start = mode->crtc_hsync_start - 8;
 
fp_h_sync_strt_wid = ((hsync_start & 0x1fff)
| ((hsync_wid & 0x3f) << 16)
| ((mode->flags & DRM_MODE_FLAG_NHSYNC)
? RADEON_CRTC_H_SYNC_POL
: 0));
 
fp_crtc_v_total_disp = (((mode->crtc_vtotal - 1) & 0xffff)
| ((mode->crtc_vdisplay - 1) << 16));
 
vsync_wid = mode->crtc_vsync_end - mode->crtc_vsync_start;
if (!vsync_wid)
vsync_wid = 1;
 
fp_v_sync_strt_wid = (((mode->crtc_vsync_start - 1) & 0xfff)
| ((vsync_wid & 0x1f) << 16)
| ((mode->flags & DRM_MODE_FLAG_NVSYNC)
? RADEON_CRTC_V_SYNC_POL
: 0));
 
fp_horz_vert_active = 0;
 
if (native_mode->panel_xres == 0 ||
native_mode->panel_yres == 0) {
hscale = false;
vscale = false;
} else {
if (xres > native_mode->panel_xres)
xres = native_mode->panel_xres;
if (yres > native_mode->panel_yres)
yres = native_mode->panel_yres;
 
if (xres == native_mode->panel_xres)
hscale = false;
if (yres == native_mode->panel_yres)
vscale = false;
}
 
if (radeon_encoder->flags & RADEON_USE_RMX) {
if (radeon_encoder->rmx_type != RMX_CENTER) {
if (!hscale)
fp_horz_stretch |= ((xres/8-1) << 16);
else {
inc = (fp_horz_stretch & RADEON_HORZ_AUTO_RATIO_INC) ? 1 : 0;
scale = ((xres + inc) * RADEON_HORZ_STRETCH_RATIO_MAX)
/ native_mode->panel_xres + 1;
fp_horz_stretch |= (((scale) & RADEON_HORZ_STRETCH_RATIO_MASK) |
RADEON_HORZ_STRETCH_BLEND |
RADEON_HORZ_STRETCH_ENABLE |
((native_mode->panel_xres/8-1) << 16));
}
 
if (!vscale)
fp_vert_stretch |= ((yres-1) << 12);
else {
inc = (fp_vert_stretch & RADEON_VERT_AUTO_RATIO_INC) ? 1 : 0;
scale = ((yres + inc) * RADEON_VERT_STRETCH_RATIO_MAX)
/ native_mode->panel_yres + 1;
fp_vert_stretch |= (((scale) & RADEON_VERT_STRETCH_RATIO_MASK) |
RADEON_VERT_STRETCH_ENABLE |
RADEON_VERT_STRETCH_BLEND |
((native_mode->panel_yres-1) << 12));
}
} else if (radeon_encoder->rmx_type == RMX_CENTER) {
int blank_width;
 
fp_horz_stretch |= ((xres/8-1) << 16);
fp_vert_stretch |= ((yres-1) << 12);
 
crtc_more_cntl |= (RADEON_CRTC_AUTO_HORZ_CENTER_EN |
RADEON_CRTC_AUTO_VERT_CENTER_EN);
 
blank_width = (mode->crtc_hblank_end - mode->crtc_hblank_start) / 8;
if (blank_width > 110)
blank_width = 110;
 
fp_crtc_h_total_disp = (((blank_width) & 0x3ff)
| ((((mode->crtc_hdisplay / 8) - 1) & 0x1ff) << 16));
 
hsync_wid = (mode->crtc_hsync_end - mode->crtc_hsync_start) / 8;
if (!hsync_wid)
hsync_wid = 1;
 
fp_h_sync_strt_wid = ((((mode->crtc_hsync_start - mode->crtc_hblank_start) / 8) & 0x1fff)
| ((hsync_wid & 0x3f) << 16)
| ((mode->flags & DRM_MODE_FLAG_NHSYNC)
? RADEON_CRTC_H_SYNC_POL
: 0));
 
fp_crtc_v_total_disp = (((mode->crtc_vblank_end - mode->crtc_vblank_start) & 0xffff)
| ((mode->crtc_vdisplay - 1) << 16));
 
vsync_wid = mode->crtc_vsync_end - mode->crtc_vsync_start;
if (!vsync_wid)
vsync_wid = 1;
 
fp_v_sync_strt_wid = ((((mode->crtc_vsync_start - mode->crtc_vblank_start) & 0xfff)
| ((vsync_wid & 0x1f) << 16)
| ((mode->flags & DRM_MODE_FLAG_NVSYNC)
? RADEON_CRTC_V_SYNC_POL
: 0)));
 
fp_horz_vert_active = (((native_mode->panel_yres) & 0xfff) |
(((native_mode->panel_xres / 8) & 0x1ff) << 16));
}
} else {
fp_horz_stretch |= ((xres/8-1) << 16);
fp_vert_stretch |= ((yres-1) << 12);
}
 
WREG32(RADEON_FP_HORZ_STRETCH, fp_horz_stretch);
WREG32(RADEON_FP_VERT_STRETCH, fp_vert_stretch);
WREG32(RADEON_CRTC_MORE_CNTL, crtc_more_cntl);
WREG32(RADEON_FP_HORZ_VERT_ACTIVE, fp_horz_vert_active);
WREG32(RADEON_FP_H_SYNC_STRT_WID, fp_h_sync_strt_wid);
WREG32(RADEON_FP_V_SYNC_STRT_WID, fp_v_sync_strt_wid);
WREG32(RADEON_FP_CRTC_H_TOTAL_DISP, fp_crtc_h_total_disp);
WREG32(RADEON_FP_CRTC_V_TOTAL_DISP, fp_crtc_v_total_disp);
 
}
 
static void radeon_legacy_lvds_dpms(struct drm_encoder *encoder, int mode)
{
struct drm_device *dev = encoder->dev;
107,8 → 262,6
else
radeon_combios_output_lock(encoder, true);
radeon_legacy_lvds_dpms(encoder, DRM_MODE_DPMS_OFF);
 
radeon_encoder_set_active_device(encoder);
}
 
static void radeon_legacy_lvds_commit(struct drm_encoder *encoder)
134,6 → 287,9
 
DRM_DEBUG("\n");
 
if (radeon_crtc->crtc_id == 0)
radeon_legacy_rmx_mode_set(encoder, mode, adjusted_mode);
 
lvds_pll_cntl = RREG32(RADEON_LVDS_PLL_CNTL);
lvds_pll_cntl &= ~RADEON_LVDS_PLL_EN;
 
162,7 → 318,7
 
if (radeon_crtc->crtc_id == 0) {
if (ASIC_IS_R300(rdev)) {
if (radeon_encoder->rmx_type != RMX_OFF)
if (radeon_encoder->flags & RADEON_USE_RMX)
lvds_pll_cntl |= R300_LVDS_SRC_SEL_RMX;
} else
lvds_gen_cntl &= ~RADEON_LVDS_SEL_CRTC2;
194,6 → 350,8
 
drm_mode_set_crtcinfo(adjusted_mode, 0);
 
radeon_encoder->flags &= ~RADEON_USE_RMX;
 
if (radeon_encoder->rmx_type != RMX_OFF)
radeon_rmx_mode_fixup(encoder, mode, adjusted_mode);
 
206,7 → 364,6
.prepare = radeon_legacy_lvds_prepare,
.mode_set = radeon_legacy_lvds_mode_set,
.commit = radeon_legacy_lvds_commit,
.disable = radeon_legacy_encoder_disable,
};
 
 
272,7 → 429,6
else
radeon_combios_output_lock(encoder, true);
radeon_legacy_primary_dac_dpms(encoder, DRM_MODE_DPMS_OFF);
radeon_encoder_set_active_device(encoder);
}
 
static void radeon_legacy_primary_dac_commit(struct drm_encoder *encoder)
299,6 → 455,9
 
DRM_DEBUG("\n");
 
if (radeon_crtc->crtc_id == 0)
radeon_legacy_rmx_mode_set(encoder, mode, adjusted_mode);
 
if (radeon_crtc->crtc_id == 0) {
if (rdev->family == CHIP_R200 || ASIC_IS_R300(rdev)) {
disp_output_cntl = RREG32(RADEON_DISP_OUTPUT_CNTL) &
415,7 → 574,6
.mode_set = radeon_legacy_primary_dac_mode_set,
.commit = radeon_legacy_primary_dac_commit,
.detect = radeon_legacy_primary_dac_detect,
.disable = radeon_legacy_encoder_disable,
};
 
 
468,7 → 626,6
else
radeon_combios_output_lock(encoder, true);
radeon_legacy_tmds_int_dpms(encoder, DRM_MODE_DPMS_OFF);
radeon_encoder_set_active_device(encoder);
}
 
static void radeon_legacy_tmds_int_commit(struct drm_encoder *encoder)
496,6 → 653,9
 
DRM_DEBUG("\n");
 
if (radeon_crtc->crtc_id == 0)
radeon_legacy_rmx_mode_set(encoder, mode, adjusted_mode);
 
tmp = tmds_pll_cntl = RREG32(RADEON_TMDS_PLL_CNTL);
tmp &= 0xfffff;
if (rdev->family == CHIP_RV280) {
551,7 → 711,7
if (radeon_crtc->crtc_id == 0) {
if (ASIC_IS_R300(rdev) || rdev->family == CHIP_R200) {
fp_gen_cntl &= ~R200_FP_SOURCE_SEL_MASK;
if (radeon_encoder->rmx_type != RMX_OFF)
if (radeon_encoder->flags & RADEON_USE_RMX)
fp_gen_cntl |= R200_FP_SOURCE_SEL_RMX;
else
fp_gen_cntl |= R200_FP_SOURCE_SEL_CRTC1;
581,7 → 741,6
.prepare = radeon_legacy_tmds_int_prepare,
.mode_set = radeon_legacy_tmds_int_mode_set,
.commit = radeon_legacy_tmds_int_commit,
.disable = radeon_legacy_encoder_disable,
};
 
 
636,7 → 795,6
else
radeon_combios_output_lock(encoder, true);
radeon_legacy_tmds_ext_dpms(encoder, DRM_MODE_DPMS_OFF);
radeon_encoder_set_active_device(encoder);
}
 
static void radeon_legacy_tmds_ext_commit(struct drm_encoder *encoder)
662,6 → 820,9
 
DRM_DEBUG("\n");
 
if (radeon_crtc->crtc_id == 0)
radeon_legacy_rmx_mode_set(encoder, mode, adjusted_mode);
 
if (rdev->is_atom_bios) {
radeon_encoder->pixel_clock = adjusted_mode->clock;
atombios_external_tmds_setup(encoder, ATOM_ENABLE);
695,7 → 856,7
if (radeon_crtc->crtc_id == 0) {
if ((rdev->family == CHIP_R200) || ASIC_IS_R300(rdev)) {
fp2_gen_cntl &= ~R200_FP2_SOURCE_SEL_MASK;
if (radeon_encoder->rmx_type != RMX_OFF)
if (radeon_encoder->flags & RADEON_USE_RMX)
fp2_gen_cntl |= R200_FP2_SOURCE_SEL_RMX;
else
fp2_gen_cntl |= R200_FP2_SOURCE_SEL_CRTC1;
723,7 → 884,6
.prepare = radeon_legacy_tmds_ext_prepare,
.mode_set = radeon_legacy_tmds_ext_mode_set,
.commit = radeon_legacy_tmds_ext_commit,
.disable = radeon_legacy_encoder_disable,
};
 
 
745,21 → 905,17
{
struct drm_device *dev = encoder->dev;
struct radeon_device *rdev = dev->dev_private;
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
uint32_t fp2_gen_cntl = 0, crtc2_gen_cntl = 0, tv_dac_cntl = 0;
uint32_t tv_master_cntl = 0;
bool is_tv;
/* uint32_t tv_master_cntl = 0; */
 
DRM_DEBUG("\n");
 
is_tv = radeon_encoder->active_device & ATOM_DEVICE_TV_SUPPORT ? true : false;
 
if (rdev->family == CHIP_R200)
fp2_gen_cntl = RREG32(RADEON_FP2_GEN_CNTL);
else {
if (is_tv)
tv_master_cntl = RREG32(RADEON_TV_MASTER_CNTL);
else
crtc2_gen_cntl = RREG32(RADEON_CRTC2_GEN_CNTL);
/* FIXME TV */
/* tv_master_cntl = RREG32(RADEON_TV_MASTER_CNTL); */
tv_dac_cntl = RREG32(RADEON_TV_DAC_CNTL);
}
 
768,11 → 924,8
if (rdev->family == CHIP_R200) {
fp2_gen_cntl |= (RADEON_FP2_ON | RADEON_FP2_DVO_EN);
} else {
if (is_tv)
tv_master_cntl |= RADEON_TV_ON;
else
crtc2_gen_cntl |= RADEON_CRTC2_CRT2_ON;
 
/* tv_master_cntl |= RADEON_TV_ON; */
if (rdev->family == CHIP_R420 ||
rdev->family == CHIP_R423 ||
rdev->family == CHIP_RV410)
793,11 → 946,8
if (rdev->family == CHIP_R200)
fp2_gen_cntl &= ~(RADEON_FP2_ON | RADEON_FP2_DVO_EN);
else {
if (is_tv)
tv_master_cntl &= ~RADEON_TV_ON;
else
crtc2_gen_cntl &= ~RADEON_CRTC2_CRT2_ON;
 
/* tv_master_cntl &= ~RADEON_TV_ON; */
if (rdev->family == CHIP_R420 ||
rdev->family == CHIP_R423 ||
rdev->family == CHIP_RV410)
817,10 → 967,8
if (rdev->family == CHIP_R200) {
WREG32(RADEON_FP2_GEN_CNTL, fp2_gen_cntl);
} else {
if (is_tv)
WREG32(RADEON_TV_MASTER_CNTL, tv_master_cntl);
else
WREG32(RADEON_CRTC2_GEN_CNTL, crtc2_gen_cntl);
/* WREG32(RADEON_TV_MASTER_CNTL, tv_master_cntl); */
WREG32(RADEON_TV_DAC_CNTL, tv_dac_cntl);
}
 
839,7 → 987,6
else
radeon_combios_output_lock(encoder, true);
radeon_legacy_tv_dac_dpms(encoder, DRM_MODE_DPMS_OFF);
radeon_encoder_set_active_device(encoder);
}
 
static void radeon_legacy_tv_dac_commit(struct drm_encoder *encoder)
862,14 → 1009,13
struct radeon_device *rdev = dev->dev_private;
struct radeon_crtc *radeon_crtc = to_radeon_crtc(encoder->crtc);
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
struct radeon_encoder_tv_dac *tv_dac = radeon_encoder->enc_priv;
uint32_t tv_dac_cntl, gpiopad_a = 0, dac2_cntl, disp_output_cntl = 0;
uint32_t disp_hw_debug = 0, fp2_gen_cntl = 0, disp_tv_out_cntl = 0;
bool is_tv = false;
uint32_t disp_hw_debug = 0, fp2_gen_cntl = 0;
 
DRM_DEBUG("\n");
 
is_tv = radeon_encoder->active_device & ATOM_DEVICE_TV_SUPPORT ? true : false;
if (radeon_crtc->crtc_id == 0)
radeon_legacy_rmx_mode_set(encoder, mode, adjusted_mode);
 
if (rdev->family != CHIP_R200) {
tv_dac_cntl = RREG32(RADEON_TV_DAC_CNTL);
893,7 → 1039,7
}
 
/* FIXME TV */
if (tv_dac) {
if (radeon_encoder->enc_priv) {
struct radeon_encoder_tv_dac *tv_dac = radeon_encoder->enc_priv;
tv_dac_cntl |= (RADEON_TV_DAC_NBLANK |
RADEON_TV_DAC_NHOLD |
910,52 → 1056,11
if (ASIC_IS_R300(rdev)) {
gpiopad_a = RREG32(RADEON_GPIOPAD_A) | 1;
disp_output_cntl = RREG32(RADEON_DISP_OUTPUT_CNTL);
}
 
if (rdev->family == CHIP_R200 || ASIC_IS_R300(rdev))
disp_tv_out_cntl = RREG32(RADEON_DISP_TV_OUT_CNTL);
} else if (rdev->family == CHIP_R200)
fp2_gen_cntl = RREG32(RADEON_FP2_GEN_CNTL);
else
disp_hw_debug = RREG32(RADEON_DISP_HW_DEBUG);
 
if (rdev->family == CHIP_R200)
fp2_gen_cntl = RREG32(RADEON_FP2_GEN_CNTL);
 
if (is_tv) {
uint32_t dac_cntl;
 
dac_cntl = RREG32(RADEON_DAC_CNTL);
dac_cntl &= ~RADEON_DAC_TVO_EN;
WREG32(RADEON_DAC_CNTL, dac_cntl);
 
if (ASIC_IS_R300(rdev))
gpiopad_a = RREG32(RADEON_GPIOPAD_A) & ~1;
 
dac2_cntl = RREG32(RADEON_DAC_CNTL2) & ~RADEON_DAC2_DAC2_CLK_SEL;
if (radeon_crtc->crtc_id == 0) {
if (ASIC_IS_R300(rdev)) {
disp_output_cntl &= ~RADEON_DISP_TVDAC_SOURCE_MASK;
disp_output_cntl |= (RADEON_DISP_TVDAC_SOURCE_CRTC |
RADEON_DISP_TV_SOURCE_CRTC);
}
if (rdev->family >= CHIP_R200) {
disp_tv_out_cntl &= ~RADEON_DISP_TV_PATH_SRC_CRTC2;
} else {
disp_hw_debug |= RADEON_CRT2_DISP1_SEL;
}
} else {
if (ASIC_IS_R300(rdev)) {
disp_output_cntl &= ~RADEON_DISP_TVDAC_SOURCE_MASK;
disp_output_cntl |= RADEON_DISP_TV_SOURCE_CRTC;
}
if (rdev->family >= CHIP_R200) {
disp_tv_out_cntl |= RADEON_DISP_TV_PATH_SRC_CRTC2;
} else {
disp_hw_debug &= ~RADEON_CRT2_DISP1_SEL;
}
}
WREG32(RADEON_DAC_CNTL2, dac2_cntl);
} else {
 
dac2_cntl = RREG32(RADEON_DAC_CNTL2) | RADEON_DAC2_DAC2_CLK_SEL;
 
if (radeon_crtc->crtc_id == 0) {
978,25 → 1083,17
} else
disp_hw_debug &= ~RADEON_CRT2_DISP1_SEL;
}
 
WREG32(RADEON_DAC_CNTL2, dac2_cntl);
}
 
if (ASIC_IS_R300(rdev)) {
WREG32_P(RADEON_GPIOPAD_A, gpiopad_a, ~1);
WREG32(RADEON_DISP_OUTPUT_CNTL, disp_output_cntl);
}
 
if (rdev->family >= CHIP_R200)
WREG32(RADEON_DISP_TV_OUT_CNTL, disp_tv_out_cntl);
WREG32(RADEON_DISP_TV_OUT_CNTL, disp_output_cntl);
} else if (rdev->family == CHIP_R200)
WREG32(RADEON_FP2_GEN_CNTL, fp2_gen_cntl);
else
WREG32(RADEON_DISP_HW_DEBUG, disp_hw_debug);
 
if (rdev->family == CHIP_R200)
WREG32(RADEON_FP2_GEN_CNTL, fp2_gen_cntl);
 
if (is_tv)
radeon_legacy_tv_mode_set(encoder, mode, adjusted_mode);
 
if (rdev->is_atom_bios)
radeon_atombios_encoder_crtc_scratch_regs(encoder, radeon_crtc->crtc_id);
else
1004,141 → 1101,6
 
}
 
static bool r300_legacy_tv_detect(struct drm_encoder *encoder,
struct drm_connector *connector)
{
struct drm_device *dev = encoder->dev;
struct radeon_device *rdev = dev->dev_private;
uint32_t crtc2_gen_cntl, tv_dac_cntl, dac_cntl2, dac_ext_cntl;
uint32_t disp_output_cntl, gpiopad_a, tmp;
bool found = false;
 
/* save regs needed */
gpiopad_a = RREG32(RADEON_GPIOPAD_A);
dac_cntl2 = RREG32(RADEON_DAC_CNTL2);
crtc2_gen_cntl = RREG32(RADEON_CRTC2_GEN_CNTL);
dac_ext_cntl = RREG32(RADEON_DAC_EXT_CNTL);
tv_dac_cntl = RREG32(RADEON_TV_DAC_CNTL);
disp_output_cntl = RREG32(RADEON_DISP_OUTPUT_CNTL);
 
WREG32_P(RADEON_GPIOPAD_A, 0, ~1);
 
WREG32(RADEON_DAC_CNTL2, RADEON_DAC2_DAC2_CLK_SEL);
 
WREG32(RADEON_CRTC2_GEN_CNTL,
RADEON_CRTC2_CRT2_ON | RADEON_CRTC2_VSYNC_TRISTAT);
 
tmp = disp_output_cntl & ~RADEON_DISP_TVDAC_SOURCE_MASK;
tmp |= RADEON_DISP_TVDAC_SOURCE_CRTC2;
WREG32(RADEON_DISP_OUTPUT_CNTL, tmp);
 
WREG32(RADEON_DAC_EXT_CNTL,
RADEON_DAC2_FORCE_BLANK_OFF_EN |
RADEON_DAC2_FORCE_DATA_EN |
RADEON_DAC_FORCE_DATA_SEL_RGB |
(0xec << RADEON_DAC_FORCE_DATA_SHIFT));
 
WREG32(RADEON_TV_DAC_CNTL,
RADEON_TV_DAC_STD_NTSC |
(8 << RADEON_TV_DAC_BGADJ_SHIFT) |
(6 << RADEON_TV_DAC_DACADJ_SHIFT));
 
RREG32(RADEON_TV_DAC_CNTL);
mdelay(4);
 
WREG32(RADEON_TV_DAC_CNTL,
RADEON_TV_DAC_NBLANK |
RADEON_TV_DAC_NHOLD |
RADEON_TV_MONITOR_DETECT_EN |
RADEON_TV_DAC_STD_NTSC |
(8 << RADEON_TV_DAC_BGADJ_SHIFT) |
(6 << RADEON_TV_DAC_DACADJ_SHIFT));
 
RREG32(RADEON_TV_DAC_CNTL);
mdelay(6);
 
tmp = RREG32(RADEON_TV_DAC_CNTL);
if ((tmp & RADEON_TV_DAC_GDACDET) != 0) {
found = true;
DRM_DEBUG("S-video TV connection detected\n");
} else if ((tmp & RADEON_TV_DAC_BDACDET) != 0) {
found = true;
DRM_DEBUG("Composite TV connection detected\n");
}
 
WREG32(RADEON_TV_DAC_CNTL, tv_dac_cntl);
WREG32(RADEON_DAC_EXT_CNTL, dac_ext_cntl);
WREG32(RADEON_CRTC2_GEN_CNTL, crtc2_gen_cntl);
WREG32(RADEON_DISP_OUTPUT_CNTL, disp_output_cntl);
WREG32(RADEON_DAC_CNTL2, dac_cntl2);
WREG32_P(RADEON_GPIOPAD_A, gpiopad_a, ~1);
return found;
}
 
static bool radeon_legacy_tv_detect(struct drm_encoder *encoder,
struct drm_connector *connector)
{
struct drm_device *dev = encoder->dev;
struct radeon_device *rdev = dev->dev_private;
uint32_t tv_dac_cntl, dac_cntl2;
uint32_t config_cntl, tv_pre_dac_mux_cntl, tv_master_cntl, tmp;
bool found = false;
 
if (ASIC_IS_R300(rdev))
return r300_legacy_tv_detect(encoder, connector);
 
dac_cntl2 = RREG32(RADEON_DAC_CNTL2);
tv_master_cntl = RREG32(RADEON_TV_MASTER_CNTL);
tv_dac_cntl = RREG32(RADEON_TV_DAC_CNTL);
config_cntl = RREG32(RADEON_CONFIG_CNTL);
tv_pre_dac_mux_cntl = RREG32(RADEON_TV_PRE_DAC_MUX_CNTL);
 
tmp = dac_cntl2 & ~RADEON_DAC2_DAC2_CLK_SEL;
WREG32(RADEON_DAC_CNTL2, tmp);
 
tmp = tv_master_cntl | RADEON_TV_ON;
tmp &= ~(RADEON_TV_ASYNC_RST |
RADEON_RESTART_PHASE_FIX |
RADEON_CRT_FIFO_CE_EN |
RADEON_TV_FIFO_CE_EN |
RADEON_RE_SYNC_NOW_SEL_MASK);
tmp |= RADEON_TV_FIFO_ASYNC_RST | RADEON_CRT_ASYNC_RST;
WREG32(RADEON_TV_MASTER_CNTL, tmp);
 
tmp = RADEON_TV_DAC_NBLANK | RADEON_TV_DAC_NHOLD |
RADEON_TV_MONITOR_DETECT_EN | RADEON_TV_DAC_STD_NTSC |
(8 << RADEON_TV_DAC_BGADJ_SHIFT);
 
if (config_cntl & RADEON_CFG_ATI_REV_ID_MASK)
tmp |= (4 << RADEON_TV_DAC_DACADJ_SHIFT);
else
tmp |= (8 << RADEON_TV_DAC_DACADJ_SHIFT);
WREG32(RADEON_TV_DAC_CNTL, tmp);
 
tmp = RADEON_C_GRN_EN | RADEON_CMP_BLU_EN |
RADEON_RED_MX_FORCE_DAC_DATA |
RADEON_GRN_MX_FORCE_DAC_DATA |
RADEON_BLU_MX_FORCE_DAC_DATA |
(0x109 << RADEON_TV_FORCE_DAC_DATA_SHIFT);
WREG32(RADEON_TV_PRE_DAC_MUX_CNTL, tmp);
 
mdelay(3);
tmp = RREG32(RADEON_TV_DAC_CNTL);
if (tmp & RADEON_TV_DAC_GDACDET) {
found = true;
DRM_DEBUG("S-video TV connection detected\n");
} else if ((tmp & RADEON_TV_DAC_BDACDET) != 0) {
found = true;
DRM_DEBUG("Composite TV connection detected\n");
}
 
WREG32(RADEON_TV_PRE_DAC_MUX_CNTL, tv_pre_dac_mux_cntl);
WREG32(RADEON_TV_DAC_CNTL, tv_dac_cntl);
WREG32(RADEON_TV_MASTER_CNTL, tv_master_cntl);
WREG32(RADEON_DAC_CNTL2, dac_cntl2);
return found;
}
 
static enum drm_connector_status radeon_legacy_tv_dac_detect(struct drm_encoder *encoder,
struct drm_connector *connector)
{
1147,30 → 1109,10
uint32_t crtc2_gen_cntl, tv_dac_cntl, dac_cntl2, dac_ext_cntl;
uint32_t disp_hw_debug, disp_output_cntl, gpiopad_a, pixclks_cntl, tmp;
enum drm_connector_status found = connector_status_disconnected;
struct radeon_encoder *radeon_encoder = to_radeon_encoder(encoder);
struct radeon_encoder_tv_dac *tv_dac = radeon_encoder->enc_priv;
bool color = true;
 
if (connector->connector_type == DRM_MODE_CONNECTOR_SVIDEO ||
connector->connector_type == DRM_MODE_CONNECTOR_Composite ||
connector->connector_type == DRM_MODE_CONNECTOR_9PinDIN) {
bool tv_detect;
/* FIXME tv */
 
if (radeon_encoder->active_device && !(radeon_encoder->active_device & ATOM_DEVICE_TV_SUPPORT))
return connector_status_disconnected;
 
tv_detect = radeon_legacy_tv_detect(encoder, connector);
if (tv_detect && tv_dac)
found = connector_status_connected;
return found;
}
 
/* don't probe if the encoder is being used for something else not CRT related */
if (radeon_encoder->active_device && !(radeon_encoder->active_device & ATOM_DEVICE_CRT_SUPPORT)) {
DRM_INFO("not detecting due to %08x\n", radeon_encoder->active_device);
return connector_status_disconnected;
}
 
/* save the regs we need */
pixclks_cntl = RREG32_PLL(RADEON_PIXCLKS_CNTL);
gpiopad_a = ASIC_IS_R300(rdev) ? RREG32(RADEON_GPIOPAD_A) : 0;
1252,7 → 1194,8
}
WREG32_PLL(RADEON_PIXCLKS_CNTL, pixclks_cntl);
 
return found;
/* return found; */
return connector_status_disconnected;
 
}
 
1263,7 → 1206,6
.mode_set = radeon_legacy_tv_dac_mode_set,
.commit = radeon_legacy_tv_dac_commit,
.detect = radeon_legacy_tv_dac_detect,
.disable = radeon_legacy_encoder_disable,
};
 
 
1271,30 → 1213,6
.destroy = radeon_enc_destroy,
};
 
 
static struct radeon_encoder_int_tmds *radeon_legacy_get_tmds_info(struct radeon_encoder *encoder)
{
struct drm_device *dev = encoder->base.dev;
struct radeon_device *rdev = dev->dev_private;
struct radeon_encoder_int_tmds *tmds = NULL;
bool ret;
 
tmds = kzalloc(sizeof(struct radeon_encoder_int_tmds), GFP_KERNEL);
 
if (!tmds)
return NULL;
 
if (rdev->is_atom_bios)
ret = radeon_atombios_get_tmds_info(encoder, tmds);
else
ret = radeon_legacy_get_tmds_info_from_combios(encoder, tmds);
 
if (ret == false)
radeon_legacy_get_tmds_info_from_table(encoder, tmds);
 
return tmds;
}
 
void
radeon_add_legacy_encoder(struct drm_device *dev, uint32_t encoder_id, uint32_t supported_device)
{
1325,11 → 1243,9
 
radeon_encoder->encoder_id = encoder_id;
radeon_encoder->devices = supported_device;
radeon_encoder->rmx_type = RMX_OFF;
 
switch (radeon_encoder->encoder_id) {
case ENCODER_OBJECT_ID_INTERNAL_LVDS:
encoder->possible_crtcs = 0x1;
drm_encoder_init(dev, encoder, &radeon_legacy_lvds_enc_funcs, DRM_MODE_ENCODER_LVDS);
drm_encoder_helper_add(encoder, &radeon_legacy_lvds_helper_funcs);
if (rdev->is_atom_bios)
1341,7 → 1257,10
case ENCODER_OBJECT_ID_INTERNAL_TMDS1:
drm_encoder_init(dev, encoder, &radeon_legacy_tmds_int_enc_funcs, DRM_MODE_ENCODER_TMDS);
drm_encoder_helper_add(encoder, &radeon_legacy_tmds_int_helper_funcs);
radeon_encoder->enc_priv = radeon_legacy_get_tmds_info(radeon_encoder);
if (rdev->is_atom_bios)
radeon_encoder->enc_priv = radeon_atombios_get_tmds_info(radeon_encoder);
else
radeon_encoder->enc_priv = radeon_combios_get_tmds_info(radeon_encoder);
break;
case ENCODER_OBJECT_ID_INTERNAL_DAC1:
drm_encoder_init(dev, encoder, &radeon_legacy_primary_dac_enc_funcs, DRM_MODE_ENCODER_DAC);
/drivers/video/drm/radeon/atom.c
22,9 → 22,12
* Author: Stanislaw Skowronek
*/
 
#include <linux/module.h>
#include <linux/sched.h>
//#include <linux/module.h>
//#include <linux/sched.h>
 
#include <types.h>
#include <syscall.h>
 
#define ATOM_DEBUG
 
#include "atom.h"
1161,6 → 1164,9
 
int atom_asic_init(struct atom_context *ctx)
{
 
dbgprintf("%s\n",__FUNCTION__);
 
int hwi = CU16(ctx->data_table + ATOM_DATA_FWI_PTR);
uint32_t ps[16];
memset(ps, 0, 64);
/drivers/video/drm/radeon/atombios.h
2374,17 → 2374,6
ATOM_MODE_TIMING aModeTimings[MAX_SUPPORTED_TV_TIMING];
} ATOM_ANALOG_TV_INFO;
 
#define MAX_SUPPORTED_TV_TIMING_V1_2 3
 
typedef struct _ATOM_ANALOG_TV_INFO_V1_2 {
ATOM_COMMON_TABLE_HEADER sHeader;
UCHAR ucTV_SupportedStandard;
UCHAR ucTV_BootUpDefaultStandard;
UCHAR ucExt_TV_ASIC_ID;
UCHAR ucExt_TV_ASIC_SlaveAddr;
ATOM_DTD_FORMAT aModeTimings[MAX_SUPPORTED_TV_TIMING];
} ATOM_ANALOG_TV_INFO_V1_2;
 
/**************************************************************************/
/* VRAM usage and their defintions */
 
/drivers/video/drm/radeon/r300_reg.h
27,11 → 27,9
#ifndef _R300_REG_H_
#define _R300_REG_H_
 
#define R300_SURF_TILE_MACRO (1<<16)
#define R300_SURF_TILE_MICRO (2<<16)
#define R300_SURF_TILE_BOTH (3<<16)
 
 
 
#define R300_MC_INIT_MISC_LAT_TIMER 0x180
# define R300_MC_MISC__MC_CPR_INIT_LAT_SHIFT 0
# define R300_MC_MISC__MC_VF_INIT_LAT_SHIFT 4
/drivers/video/drm/radeon/r500_reg.h
350,7 → 350,6
#define AVIVO_D1CRTC_BLANK_CONTROL 0x6084
#define AVIVO_D1CRTC_INTERLACE_CONTROL 0x6088
#define AVIVO_D1CRTC_INTERLACE_STATUS 0x608c
#define AVIVO_D1CRTC_FRAME_COUNT 0x60a4
#define AVIVO_D1CRTC_STEREO_CONTROL 0x60c4
 
/* master controls */
439,15 → 438,13
# define AVIVO_DC_LB_DISP1_END_ADR_SHIFT 4
# define AVIVO_DC_LB_DISP1_END_ADR_MASK 0x7ff
 
#define R500_DxMODE_INT_MASK 0x6540
#define R500_D1MODE_INT_MASK (1<<0)
#define R500_D2MODE_INT_MASK (1<<8)
 
#define AVIVO_D1MODE_DATA_FORMAT 0x6528
# define AVIVO_D1MODE_INTERLEAVE_EN (1 << 0)
#define AVIVO_D1MODE_DESKTOP_HEIGHT 0x652C
#define AVIVO_D1MODE_VBLANK_STATUS 0x6534
# define AVIVO_VBLANK_ACK (1 << 4)
#define AVIVO_D1MODE_VLINE_START_END 0x6538
#define AVIVO_DxMODE_INT_MASK 0x6540
# define AVIVO_D1MODE_INT_MASK (1 << 0)
# define AVIVO_D2MODE_INT_MASK (1 << 8)
#define AVIVO_D1MODE_VIEWPORT_START 0x6580
#define AVIVO_D1MODE_VIEWPORT_SIZE 0x6584
#define AVIVO_D1MODE_EXT_OVERSCAN_LEFT_RIGHT 0x6588
477,7 → 474,6
#define AVIVO_D2CRTC_BLANK_CONTROL 0x6884
#define AVIVO_D2CRTC_INTERLACE_CONTROL 0x6888
#define AVIVO_D2CRTC_INTERLACE_STATUS 0x688c
#define AVIVO_D2CRTC_FRAME_COUNT 0x68a4
#define AVIVO_D2CRTC_STEREO_CONTROL 0x68c4
 
#define AVIVO_D2GRPH_ENABLE 0x6900
500,8 → 496,6
#define AVIVO_D2CUR_SIZE 0x6c10
#define AVIVO_D2CUR_POSITION 0x6c14
 
#define AVIVO_D2MODE_VBLANK_STATUS 0x6d34
#define AVIVO_D2MODE_VLINE_START_END 0x6d38
#define AVIVO_D2MODE_VIEWPORT_START 0x6d80
#define AVIVO_D2MODE_VIEWPORT_SIZE 0x6d84
#define AVIVO_D2MODE_EXT_OVERSCAN_LEFT_RIGHT 0x6d88
752,8 → 746,4
# define AVIVO_I2C_EN (1 << 0)
# define AVIVO_I2C_RESET (1 << 8)
 
#define AVIVO_DISP_INTERRUPT_STATUS 0x7edc
# define AVIVO_D1_VBLANK_INTERRUPT (1 << 4)
# define AVIVO_D2_VBLANK_INTERRUPT (1 << 5)
 
#endif
/drivers/video/drm/radeon/radeon_drm.h
0,0 → 1,884
/* radeon_drm.h -- Public header for the radeon driver -*- linux-c -*-
*
* Copyright 2000 Precision Insight, Inc., Cedar Park, Texas.
* Copyright 2000 VA Linux Systems, Inc., Fremont, California.
* Copyright 2002 Tungsten Graphics, Inc., Cedar Park, Texas.
* All rights reserved.
*
* Permission is hereby granted, free of charge, to any person obtaining a
* copy of this software and associated documentation files (the "Software"),
* to deal in the Software without restriction, including without limitation
* the rights to use, copy, modify, merge, publish, distribute, sublicense,
* and/or sell copies of the Software, and to permit persons to whom the
* Software is furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice (including the next
* paragraph) shall be included in all copies or substantial portions of the
* Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL
* PRECISION INSIGHT AND/OR ITS SUPPLIERS BE LIABLE FOR ANY CLAIM, DAMAGES OR
* OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE,
* ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER
* DEALINGS IN THE SOFTWARE.
*
* Authors:
* Kevin E. Martin <martin@valinux.com>
* Gareth Hughes <gareth@valinux.com>
* Keith Whitwell <keith@tungstengraphics.com>
*/
 
#ifndef __RADEON_DRM_H__
#define __RADEON_DRM_H__
 
#include "types.h"
 
/* WARNING: If you change any of these defines, make sure to change the
* defines in the X server file (radeon_sarea.h)
*/
#ifndef __RADEON_SAREA_DEFINES__
#define __RADEON_SAREA_DEFINES__
 
/* Old style state flags, required for sarea interface (1.1 and 1.2
* clears) and 1.2 drm_vertex2 ioctl.
*/
#define RADEON_UPLOAD_CONTEXT 0x00000001
#define RADEON_UPLOAD_VERTFMT 0x00000002
#define RADEON_UPLOAD_LINE 0x00000004
#define RADEON_UPLOAD_BUMPMAP 0x00000008
#define RADEON_UPLOAD_MASKS 0x00000010
#define RADEON_UPLOAD_VIEWPORT 0x00000020
#define RADEON_UPLOAD_SETUP 0x00000040
#define RADEON_UPLOAD_TCL 0x00000080
#define RADEON_UPLOAD_MISC 0x00000100
#define RADEON_UPLOAD_TEX0 0x00000200
#define RADEON_UPLOAD_TEX1 0x00000400
#define RADEON_UPLOAD_TEX2 0x00000800
#define RADEON_UPLOAD_TEX0IMAGES 0x00001000
#define RADEON_UPLOAD_TEX1IMAGES 0x00002000
#define RADEON_UPLOAD_TEX2IMAGES 0x00004000
#define RADEON_UPLOAD_CLIPRECTS 0x00008000 /* handled client-side */
#define RADEON_REQUIRE_QUIESCENCE 0x00010000
#define RADEON_UPLOAD_ZBIAS 0x00020000 /* version 1.2 and newer */
#define RADEON_UPLOAD_ALL 0x003effff
#define RADEON_UPLOAD_CONTEXT_ALL 0x003e01ff
 
/* New style per-packet identifiers for use in cmd_buffer ioctl with
* the RADEON_EMIT_PACKET command. Comments relate new packets to old
* state bits and the packet size:
*/
#define RADEON_EMIT_PP_MISC 0 /* context/7 */
#define RADEON_EMIT_PP_CNTL 1 /* context/3 */
#define RADEON_EMIT_RB3D_COLORPITCH 2 /* context/1 */
#define RADEON_EMIT_RE_LINE_PATTERN 3 /* line/2 */
#define RADEON_EMIT_SE_LINE_WIDTH 4 /* line/1 */
#define RADEON_EMIT_PP_LUM_MATRIX 5 /* bumpmap/1 */
#define RADEON_EMIT_PP_ROT_MATRIX_0 6 /* bumpmap/2 */
#define RADEON_EMIT_RB3D_STENCILREFMASK 7 /* masks/3 */
#define RADEON_EMIT_SE_VPORT_XSCALE 8 /* viewport/6 */
#define RADEON_EMIT_SE_CNTL 9 /* setup/2 */
#define RADEON_EMIT_SE_CNTL_STATUS 10 /* setup/1 */
#define RADEON_EMIT_RE_MISC 11 /* misc/1 */
#define RADEON_EMIT_PP_TXFILTER_0 12 /* tex0/6 */
#define RADEON_EMIT_PP_BORDER_COLOR_0 13 /* tex0/1 */
#define RADEON_EMIT_PP_TXFILTER_1 14 /* tex1/6 */
#define RADEON_EMIT_PP_BORDER_COLOR_1 15 /* tex1/1 */
#define RADEON_EMIT_PP_TXFILTER_2 16 /* tex2/6 */
#define RADEON_EMIT_PP_BORDER_COLOR_2 17 /* tex2/1 */
#define RADEON_EMIT_SE_ZBIAS_FACTOR 18 /* zbias/2 */
#define RADEON_EMIT_SE_TCL_OUTPUT_VTX_FMT 19 /* tcl/11 */
#define RADEON_EMIT_SE_TCL_MATERIAL_EMMISSIVE_RED 20 /* material/17 */
#define R200_EMIT_PP_TXCBLEND_0 21 /* tex0/4 */
#define R200_EMIT_PP_TXCBLEND_1 22 /* tex1/4 */
#define R200_EMIT_PP_TXCBLEND_2 23 /* tex2/4 */
#define R200_EMIT_PP_TXCBLEND_3 24 /* tex3/4 */
#define R200_EMIT_PP_TXCBLEND_4 25 /* tex4/4 */
#define R200_EMIT_PP_TXCBLEND_5 26 /* tex5/4 */
#define R200_EMIT_PP_TXCBLEND_6 27 /* /4 */
#define R200_EMIT_PP_TXCBLEND_7 28 /* /4 */
#define R200_EMIT_TCL_LIGHT_MODEL_CTL_0 29 /* tcl/7 */
#define R200_EMIT_TFACTOR_0 30 /* tf/7 */
#define R200_EMIT_VTX_FMT_0 31 /* vtx/5 */
#define R200_EMIT_VAP_CTL 32 /* vap/1 */
#define R200_EMIT_MATRIX_SELECT_0 33 /* msl/5 */
#define R200_EMIT_TEX_PROC_CTL_2 34 /* tcg/5 */
#define R200_EMIT_TCL_UCP_VERT_BLEND_CTL 35 /* tcl/1 */
#define R200_EMIT_PP_TXFILTER_0 36 /* tex0/6 */
#define R200_EMIT_PP_TXFILTER_1 37 /* tex1/6 */
#define R200_EMIT_PP_TXFILTER_2 38 /* tex2/6 */
#define R200_EMIT_PP_TXFILTER_3 39 /* tex3/6 */
#define R200_EMIT_PP_TXFILTER_4 40 /* tex4/6 */
#define R200_EMIT_PP_TXFILTER_5 41 /* tex5/6 */
#define R200_EMIT_PP_TXOFFSET_0 42 /* tex0/1 */
#define R200_EMIT_PP_TXOFFSET_1 43 /* tex1/1 */
#define R200_EMIT_PP_TXOFFSET_2 44 /* tex2/1 */
#define R200_EMIT_PP_TXOFFSET_3 45 /* tex3/1 */
#define R200_EMIT_PP_TXOFFSET_4 46 /* tex4/1 */
#define R200_EMIT_PP_TXOFFSET_5 47 /* tex5/1 */
#define R200_EMIT_VTE_CNTL 48 /* vte/1 */
#define R200_EMIT_OUTPUT_VTX_COMP_SEL 49 /* vtx/1 */
#define R200_EMIT_PP_TAM_DEBUG3 50 /* tam/1 */
#define R200_EMIT_PP_CNTL_X 51 /* cst/1 */
#define R200_EMIT_RB3D_DEPTHXY_OFFSET 52 /* cst/1 */
#define R200_EMIT_RE_AUX_SCISSOR_CNTL 53 /* cst/1 */
#define R200_EMIT_RE_SCISSOR_TL_0 54 /* cst/2 */
#define R200_EMIT_RE_SCISSOR_TL_1 55 /* cst/2 */
#define R200_EMIT_RE_SCISSOR_TL_2 56 /* cst/2 */
#define R200_EMIT_SE_VAP_CNTL_STATUS 57 /* cst/1 */
#define R200_EMIT_SE_VTX_STATE_CNTL 58 /* cst/1 */
#define R200_EMIT_RE_POINTSIZE 59 /* cst/1 */
#define R200_EMIT_TCL_INPUT_VTX_VECTOR_ADDR_0 60 /* cst/4 */
#define R200_EMIT_PP_CUBIC_FACES_0 61
#define R200_EMIT_PP_CUBIC_OFFSETS_0 62
#define R200_EMIT_PP_CUBIC_FACES_1 63
#define R200_EMIT_PP_CUBIC_OFFSETS_1 64
#define R200_EMIT_PP_CUBIC_FACES_2 65
#define R200_EMIT_PP_CUBIC_OFFSETS_2 66
#define R200_EMIT_PP_CUBIC_FACES_3 67
#define R200_EMIT_PP_CUBIC_OFFSETS_3 68
#define R200_EMIT_PP_CUBIC_FACES_4 69
#define R200_EMIT_PP_CUBIC_OFFSETS_4 70
#define R200_EMIT_PP_CUBIC_FACES_5 71
#define R200_EMIT_PP_CUBIC_OFFSETS_5 72
#define RADEON_EMIT_PP_TEX_SIZE_0 73
#define RADEON_EMIT_PP_TEX_SIZE_1 74
#define RADEON_EMIT_PP_TEX_SIZE_2 75
#define R200_EMIT_RB3D_BLENDCOLOR 76
#define R200_EMIT_TCL_POINT_SPRITE_CNTL 77
#define RADEON_EMIT_PP_CUBIC_FACES_0 78
#define RADEON_EMIT_PP_CUBIC_OFFSETS_T0 79
#define RADEON_EMIT_PP_CUBIC_FACES_1 80
#define RADEON_EMIT_PP_CUBIC_OFFSETS_T1 81
#define RADEON_EMIT_PP_CUBIC_FACES_2 82
#define RADEON_EMIT_PP_CUBIC_OFFSETS_T2 83
#define R200_EMIT_PP_TRI_PERF_CNTL 84
#define R200_EMIT_PP_AFS_0 85
#define R200_EMIT_PP_AFS_1 86
#define R200_EMIT_ATF_TFACTOR 87
#define R200_EMIT_PP_TXCTLALL_0 88
#define R200_EMIT_PP_TXCTLALL_1 89
#define R200_EMIT_PP_TXCTLALL_2 90
#define R200_EMIT_PP_TXCTLALL_3 91
#define R200_EMIT_PP_TXCTLALL_4 92
#define R200_EMIT_PP_TXCTLALL_5 93
#define R200_EMIT_VAP_PVS_CNTL 94
#define RADEON_MAX_STATE_PACKETS 95
 
/* Commands understood by cmd_buffer ioctl. More can be added but
* obviously these can't be removed or changed:
*/
#define RADEON_CMD_PACKET 1 /* emit one of the register packets above */
#define RADEON_CMD_SCALARS 2 /* emit scalar data */
#define RADEON_CMD_VECTORS 3 /* emit vector data */
#define RADEON_CMD_DMA_DISCARD 4 /* discard current dma buf */
#define RADEON_CMD_PACKET3 5 /* emit hw packet */
#define RADEON_CMD_PACKET3_CLIP 6 /* emit hw packet wrapped in cliprects */
#define RADEON_CMD_SCALARS2 7 /* r200 stopgap */
#define RADEON_CMD_WAIT 8 /* emit hw wait commands -- note:
* doesn't make the cpu wait, just
* the graphics hardware */
#define RADEON_CMD_VECLINEAR 9 /* another r200 stopgap */
 
typedef union {
int i;
struct {
unsigned char cmd_type, pad0, pad1, pad2;
} header;
struct {
unsigned char cmd_type, packet_id, pad0, pad1;
} packet;
struct {
unsigned char cmd_type, offset, stride, count;
} scalars;
struct {
unsigned char cmd_type, offset, stride, count;
} vectors;
struct {
unsigned char cmd_type, addr_lo, addr_hi, count;
} veclinear;
struct {
unsigned char cmd_type, buf_idx, pad0, pad1;
} dma;
struct {
unsigned char cmd_type, flags, pad0, pad1;
} wait;
} drm_radeon_cmd_header_t;
 
#define RADEON_WAIT_2D 0x1
#define RADEON_WAIT_3D 0x2
 
/* Allowed parameters for R300_CMD_PACKET3
*/
#define R300_CMD_PACKET3_CLEAR 0
#define R300_CMD_PACKET3_RAW 1
 
/* Commands understood by cmd_buffer ioctl for R300.
* The interface has not been stabilized, so some of these may be removed
* and eventually reordered before stabilization.
*/
#define R300_CMD_PACKET0 1
#define R300_CMD_VPU 2 /* emit vertex program upload */
#define R300_CMD_PACKET3 3 /* emit a packet3 */
#define R300_CMD_END3D 4 /* emit sequence ending 3d rendering */
#define R300_CMD_CP_DELAY 5
#define R300_CMD_DMA_DISCARD 6
#define R300_CMD_WAIT 7
# define R300_WAIT_2D 0x1
# define R300_WAIT_3D 0x2
/* these two defines are DOING IT WRONG - however
* we have userspace which relies on using these.
* The wait interface is backwards compat new
* code should use the NEW_WAIT defines below
* THESE ARE NOT BIT FIELDS
*/
# define R300_WAIT_2D_CLEAN 0x3
# define R300_WAIT_3D_CLEAN 0x4
 
# define R300_NEW_WAIT_2D_3D 0x3
# define R300_NEW_WAIT_2D_2D_CLEAN 0x4
# define R300_NEW_WAIT_3D_3D_CLEAN 0x6
# define R300_NEW_WAIT_2D_2D_CLEAN_3D_3D_CLEAN 0x8
 
#define R300_CMD_SCRATCH 8
#define R300_CMD_R500FP 9
 
typedef union {
unsigned int u;
struct {
unsigned char cmd_type, pad0, pad1, pad2;
} header;
struct {
unsigned char cmd_type, count, reglo, reghi;
} packet0;
struct {
unsigned char cmd_type, count, adrlo, adrhi;
} vpu;
struct {
unsigned char cmd_type, packet, pad0, pad1;
} packet3;
struct {
unsigned char cmd_type, packet;
unsigned short count; /* amount of packet2 to emit */
} delay;
struct {
unsigned char cmd_type, buf_idx, pad0, pad1;
} dma;
struct {
unsigned char cmd_type, flags, pad0, pad1;
} wait;
struct {
unsigned char cmd_type, reg, n_bufs, flags;
} scratch;
struct {
unsigned char cmd_type, count, adrlo, adrhi_flags;
} r500fp;
} drm_r300_cmd_header_t;
 
#define RADEON_FRONT 0x1
#define RADEON_BACK 0x2
#define RADEON_DEPTH 0x4
#define RADEON_STENCIL 0x8
#define RADEON_CLEAR_FASTZ 0x80000000
#define RADEON_USE_HIERZ 0x40000000
#define RADEON_USE_COMP_ZBUF 0x20000000
 
#define R500FP_CONSTANT_TYPE (1 << 1)
#define R500FP_CONSTANT_CLAMP (1 << 2)
 
/* Primitive types
*/
#define RADEON_POINTS 0x1
#define RADEON_LINES 0x2
#define RADEON_LINE_STRIP 0x3
#define RADEON_TRIANGLES 0x4
#define RADEON_TRIANGLE_FAN 0x5
#define RADEON_TRIANGLE_STRIP 0x6
 
/* Vertex/indirect buffer size
*/
#define RADEON_BUFFER_SIZE 65536
 
/* Byte offsets for indirect buffer data
*/
#define RADEON_INDEX_PRIM_OFFSET 20
 
#define RADEON_SCRATCH_REG_OFFSET 32
 
#define R600_SCRATCH_REG_OFFSET 256
 
#define RADEON_NR_SAREA_CLIPRECTS 12
 
/* There are 2 heaps (local/GART). Each region within a heap is a
* minimum of 64k, and there are at most 64 of them per heap.
*/
#define RADEON_LOCAL_TEX_HEAP 0
#define RADEON_GART_TEX_HEAP 1
#define RADEON_NR_TEX_HEAPS 2
#define RADEON_NR_TEX_REGIONS 64
#define RADEON_LOG_TEX_GRANULARITY 16
 
#define RADEON_MAX_TEXTURE_LEVELS 12
#define RADEON_MAX_TEXTURE_UNITS 3
 
#define RADEON_MAX_SURFACES 8
 
/* Blits have strict offset rules. All blit offset must be aligned on
* a 1K-byte boundary.
*/
#define RADEON_OFFSET_SHIFT 10
#define RADEON_OFFSET_ALIGN (1 << RADEON_OFFSET_SHIFT)
#define RADEON_OFFSET_MASK (RADEON_OFFSET_ALIGN - 1)
 
#endif /* __RADEON_SAREA_DEFINES__ */
 
typedef struct {
unsigned int red;
unsigned int green;
unsigned int blue;
unsigned int alpha;
} radeon_color_regs_t;
 
typedef struct {
/* Context state */
unsigned int pp_misc; /* 0x1c14 */
unsigned int pp_fog_color;
unsigned int re_solid_color;
unsigned int rb3d_blendcntl;
unsigned int rb3d_depthoffset;
unsigned int rb3d_depthpitch;
unsigned int rb3d_zstencilcntl;
 
unsigned int pp_cntl; /* 0x1c38 */
unsigned int rb3d_cntl;
unsigned int rb3d_coloroffset;
unsigned int re_width_height;
unsigned int rb3d_colorpitch;
unsigned int se_cntl;
 
/* Vertex format state */
unsigned int se_coord_fmt; /* 0x1c50 */
 
/* Line state */
unsigned int re_line_pattern; /* 0x1cd0 */
unsigned int re_line_state;
 
unsigned int se_line_width; /* 0x1db8 */
 
/* Bumpmap state */
unsigned int pp_lum_matrix; /* 0x1d00 */
 
unsigned int pp_rot_matrix_0; /* 0x1d58 */
unsigned int pp_rot_matrix_1;
 
/* Mask state */
unsigned int rb3d_stencilrefmask; /* 0x1d7c */
unsigned int rb3d_ropcntl;
unsigned int rb3d_planemask;
 
/* Viewport state */
unsigned int se_vport_xscale; /* 0x1d98 */
unsigned int se_vport_xoffset;
unsigned int se_vport_yscale;
unsigned int se_vport_yoffset;
unsigned int se_vport_zscale;
unsigned int se_vport_zoffset;
 
/* Setup state */
unsigned int se_cntl_status; /* 0x2140 */
 
/* Misc state */
unsigned int re_top_left; /* 0x26c0 */
unsigned int re_misc;
} drm_radeon_context_regs_t;
 
typedef struct {
/* Zbias state */
unsigned int se_zbias_factor; /* 0x1dac */
unsigned int se_zbias_constant;
} drm_radeon_context2_regs_t;
 
/* Setup registers for each texture unit
*/
typedef struct {
unsigned int pp_txfilter;
unsigned int pp_txformat;
unsigned int pp_txoffset;
unsigned int pp_txcblend;
unsigned int pp_txablend;
unsigned int pp_tfactor;
unsigned int pp_border_color;
} drm_radeon_texture_regs_t;
 
typedef struct {
unsigned int start;
unsigned int finish;
unsigned int prim:8;
unsigned int stateidx:8;
unsigned int numverts:16; /* overloaded as offset/64 for elt prims */
unsigned int vc_format; /* vertex format */
} drm_radeon_prim_t;
 
typedef struct {
drm_radeon_context_regs_t context;
drm_radeon_texture_regs_t tex[RADEON_MAX_TEXTURE_UNITS];
drm_radeon_context2_regs_t context2;
unsigned int dirty;
} drm_radeon_state_t;
 
typedef struct {
/* The channel for communication of state information to the
* kernel on firing a vertex buffer with either of the
* obsoleted vertex/index ioctls.
*/
drm_radeon_context_regs_t context_state;
drm_radeon_texture_regs_t tex_state[RADEON_MAX_TEXTURE_UNITS];
unsigned int dirty;
unsigned int vertsize;
unsigned int vc_format;
 
/* The current cliprects, or a subset thereof.
*/
// struct drm_clip_rect boxes[RADEON_NR_SAREA_CLIPRECTS];
unsigned int nbox;
 
/* Counters for client-side throttling of rendering clients.
*/
unsigned int last_frame;
unsigned int last_dispatch;
unsigned int last_clear;
 
// struct drm_tex_region tex_list[RADEON_NR_TEX_HEAPS][RADEON_NR_TEX_REGIONS +
// 1];
unsigned int tex_age[RADEON_NR_TEX_HEAPS];
int ctx_owner;
int pfState; /* number of 3d windows (0,1,2ormore) */
int pfCurrentPage; /* which buffer is being displayed? */
int crtc2_base; /* CRTC2 frame offset */
int tiling_enabled; /* set by drm, read by 2d + 3d clients */
} drm_radeon_sarea_t;
 
/* WARNING: If you change any of these defines, make sure to change the
* defines in the Xserver file (xf86drmRadeon.h)
*
* KW: actually it's illegal to change any of this (backwards compatibility).
*/
 
/* Radeon specific ioctls
* The device specific ioctl range is 0x40 to 0x79.
*/
#define DRM_RADEON_CP_INIT 0x00
#define DRM_RADEON_CP_START 0x01
#define DRM_RADEON_CP_STOP 0x02
#define DRM_RADEON_CP_RESET 0x03
#define DRM_RADEON_CP_IDLE 0x04
#define DRM_RADEON_RESET 0x05
#define DRM_RADEON_FULLSCREEN 0x06
#define DRM_RADEON_SWAP 0x07
#define DRM_RADEON_CLEAR 0x08
#define DRM_RADEON_VERTEX 0x09
#define DRM_RADEON_INDICES 0x0A
#define DRM_RADEON_NOT_USED
#define DRM_RADEON_STIPPLE 0x0C
#define DRM_RADEON_INDIRECT 0x0D
#define DRM_RADEON_TEXTURE 0x0E
#define DRM_RADEON_VERTEX2 0x0F
#define DRM_RADEON_CMDBUF 0x10
#define DRM_RADEON_GETPARAM 0x11
#define DRM_RADEON_FLIP 0x12
#define DRM_RADEON_ALLOC 0x13
#define DRM_RADEON_FREE 0x14
#define DRM_RADEON_INIT_HEAP 0x15
#define DRM_RADEON_IRQ_EMIT 0x16
#define DRM_RADEON_IRQ_WAIT 0x17
#define DRM_RADEON_CP_RESUME 0x18
#define DRM_RADEON_SETPARAM 0x19
#define DRM_RADEON_SURF_ALLOC 0x1a
#define DRM_RADEON_SURF_FREE 0x1b
/* KMS ioctl */
#define DRM_RADEON_GEM_INFO 0x1c
#define DRM_RADEON_GEM_CREATE 0x1d
#define DRM_RADEON_GEM_MMAP 0x1e
#define DRM_RADEON_GEM_PREAD 0x21
#define DRM_RADEON_GEM_PWRITE 0x22
#define DRM_RADEON_GEM_SET_DOMAIN 0x23
#define DRM_RADEON_GEM_WAIT_IDLE 0x24
#define DRM_RADEON_CS 0x26
#define DRM_RADEON_INFO 0x27
 
#define DRM_IOCTL_RADEON_CP_INIT DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_CP_INIT, drm_radeon_init_t)
#define DRM_IOCTL_RADEON_CP_START DRM_IO( DRM_COMMAND_BASE + DRM_RADEON_CP_START)
#define DRM_IOCTL_RADEON_CP_STOP DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_CP_STOP, drm_radeon_cp_stop_t)
#define DRM_IOCTL_RADEON_CP_RESET DRM_IO( DRM_COMMAND_BASE + DRM_RADEON_CP_RESET)
#define DRM_IOCTL_RADEON_CP_IDLE DRM_IO( DRM_COMMAND_BASE + DRM_RADEON_CP_IDLE)
#define DRM_IOCTL_RADEON_RESET DRM_IO( DRM_COMMAND_BASE + DRM_RADEON_RESET)
#define DRM_IOCTL_RADEON_FULLSCREEN DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_FULLSCREEN, drm_radeon_fullscreen_t)
#define DRM_IOCTL_RADEON_SWAP DRM_IO( DRM_COMMAND_BASE + DRM_RADEON_SWAP)
#define DRM_IOCTL_RADEON_CLEAR DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_CLEAR, drm_radeon_clear_t)
#define DRM_IOCTL_RADEON_VERTEX DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_VERTEX, drm_radeon_vertex_t)
#define DRM_IOCTL_RADEON_INDICES DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_INDICES, drm_radeon_indices_t)
#define DRM_IOCTL_RADEON_STIPPLE DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_STIPPLE, drm_radeon_stipple_t)
#define DRM_IOCTL_RADEON_INDIRECT DRM_IOWR(DRM_COMMAND_BASE + DRM_RADEON_INDIRECT, drm_radeon_indirect_t)
#define DRM_IOCTL_RADEON_TEXTURE DRM_IOWR(DRM_COMMAND_BASE + DRM_RADEON_TEXTURE, drm_radeon_texture_t)
#define DRM_IOCTL_RADEON_VERTEX2 DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_VERTEX2, drm_radeon_vertex2_t)
#define DRM_IOCTL_RADEON_CMDBUF DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_CMDBUF, drm_radeon_cmd_buffer_t)
#define DRM_IOCTL_RADEON_GETPARAM DRM_IOWR(DRM_COMMAND_BASE + DRM_RADEON_GETPARAM, drm_radeon_getparam_t)
#define DRM_IOCTL_RADEON_FLIP DRM_IO( DRM_COMMAND_BASE + DRM_RADEON_FLIP)
#define DRM_IOCTL_RADEON_ALLOC DRM_IOWR(DRM_COMMAND_BASE + DRM_RADEON_ALLOC, drm_radeon_mem_alloc_t)
#define DRM_IOCTL_RADEON_FREE DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_FREE, drm_radeon_mem_free_t)
#define DRM_IOCTL_RADEON_INIT_HEAP DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_INIT_HEAP, drm_radeon_mem_init_heap_t)
#define DRM_IOCTL_RADEON_IRQ_EMIT DRM_IOWR(DRM_COMMAND_BASE + DRM_RADEON_IRQ_EMIT, drm_radeon_irq_emit_t)
#define DRM_IOCTL_RADEON_IRQ_WAIT DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_IRQ_WAIT, drm_radeon_irq_wait_t)
#define DRM_IOCTL_RADEON_CP_RESUME DRM_IO( DRM_COMMAND_BASE + DRM_RADEON_CP_RESUME)
#define DRM_IOCTL_RADEON_SETPARAM DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_SETPARAM, drm_radeon_setparam_t)
#define DRM_IOCTL_RADEON_SURF_ALLOC DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_SURF_ALLOC, drm_radeon_surface_alloc_t)
#define DRM_IOCTL_RADEON_SURF_FREE DRM_IOW( DRM_COMMAND_BASE + DRM_RADEON_SURF_FREE, drm_radeon_surface_free_t)
/* KMS */
#define DRM_IOCTL_RADEON_GEM_INFO DRM_IOWR(DRM_COMMAND_BASE + DRM_RADEON_GEM_INFO, struct drm_radeon_gem_info)
#define DRM_IOCTL_RADEON_GEM_CREATE DRM_IOWR(DRM_COMMAND_BASE + DRM_RADEON_GEM_CREATE, struct drm_radeon_gem_create)
#define DRM_IOCTL_RADEON_GEM_MMAP DRM_IOWR(DRM_COMMAND_BASE + DRM_RADEON_GEM_MMAP, struct drm_radeon_gem_mmap)
#define DRM_IOCTL_RADEON_GEM_PREAD DRM_IOWR(DRM_COMMAND_BASE + DRM_RADEON_GEM_PREAD, struct drm_radeon_gem_pread)
#define DRM_IOCTL_RADEON_GEM_PWRITE DRM_IOWR(DRM_COMMAND_BASE + DRM_RADEON_GEM_PWRITE, struct drm_radeon_gem_pwrite)
#define DRM_IOCTL_RADEON_GEM_SET_DOMAIN DRM_IOWR(DRM_COMMAND_BASE + DRM_RADEON_GEM_SET_DOMAIN, struct drm_radeon_gem_set_domain)
#define DRM_IOCTL_RADEON_GEM_WAIT_IDLE DRM_IOW(DRM_COMMAND_BASE + DRM_RADEON_GEM_WAIT_IDLE, struct drm_radeon_gem_wait_idle)
#define DRM_IOCTL_RADEON_CS DRM_IOWR(DRM_COMMAND_BASE + DRM_RADEON_CS, struct drm_radeon_cs)
#define DRM_IOCTL_RADEON_INFO DRM_IOWR(DRM_COMMAND_BASE + DRM_RADEON_INFO, struct drm_radeon_info)
 
 
typedef struct drm_radeon_init {
enum {
RADEON_INIT_CP = 0x01,
RADEON_CLEANUP_CP = 0x02,
RADEON_INIT_R200_CP = 0x03,
RADEON_INIT_R300_CP = 0x04,
RADEON_INIT_R600_CP = 0x05
} func;
unsigned long sarea_priv_offset;
int is_pci;
int cp_mode;
int gart_size;
int ring_size;
int usec_timeout;
 
unsigned int fb_bpp;
unsigned int front_offset, front_pitch;
unsigned int back_offset, back_pitch;
unsigned int depth_bpp;
unsigned int depth_offset, depth_pitch;
 
unsigned long fb_offset;
unsigned long mmio_offset;
unsigned long ring_offset;
unsigned long ring_rptr_offset;
unsigned long buffers_offset;
unsigned long gart_textures_offset;
} drm_radeon_init_t;
 
typedef struct drm_radeon_cp_stop {
int flush;
int idle;
} drm_radeon_cp_stop_t;
 
typedef struct drm_radeon_fullscreen {
enum {
RADEON_INIT_FULLSCREEN = 0x01,
RADEON_CLEANUP_FULLSCREEN = 0x02
} func;
} drm_radeon_fullscreen_t;
 
#define CLEAR_X1 0
#define CLEAR_Y1 1
#define CLEAR_X2 2
#define CLEAR_Y2 3
#define CLEAR_DEPTH 4
 
typedef union drm_radeon_clear_rect {
float f[5];
unsigned int ui[5];
} drm_radeon_clear_rect_t;
 
typedef struct drm_radeon_clear {
unsigned int flags;
unsigned int clear_color;
unsigned int clear_depth;
unsigned int color_mask;
unsigned int depth_mask; /* misnamed field: should be stencil */
// drm_radeon_clear_rect_t __user *depth_boxes;
} drm_radeon_clear_t;
 
typedef struct drm_radeon_vertex {
int prim;
int idx; /* Index of vertex buffer */
int count; /* Number of vertices in buffer */
int discard; /* Client finished with buffer? */
} drm_radeon_vertex_t;
 
typedef struct drm_radeon_indices {
int prim;
int idx;
int start;
int end;
int discard; /* Client finished with buffer? */
} drm_radeon_indices_t;
 
/* v1.2 - obsoletes drm_radeon_vertex and drm_radeon_indices
* - allows multiple primitives and state changes in a single ioctl
* - supports driver change to emit native primitives
*/
typedef struct drm_radeon_vertex2 {
int idx; /* Index of vertex buffer */
int discard; /* Client finished with buffer? */
int nr_states;
// drm_radeon_state_t __user *state;
int nr_prims;
// drm_radeon_prim_t __user *prim;
} drm_radeon_vertex2_t;
 
/* v1.3 - obsoletes drm_radeon_vertex2
* - allows arbitarily large cliprect list
* - allows updating of tcl packet, vector and scalar state
* - allows memory-efficient description of state updates
* - allows state to be emitted without a primitive
* (for clears, ctx switches)
* - allows more than one dma buffer to be referenced per ioctl
* - supports tcl driver
* - may be extended in future versions with new cmd types, packets
*/
typedef struct drm_radeon_cmd_buffer {
int bufsz;
char __user *buf;
int nbox;
struct drm_clip_rect __user *boxes;
} drm_radeon_cmd_buffer_t;
 
typedef struct drm_radeon_tex_image {
unsigned int x, y; /* Blit coordinates */
unsigned int width, height;
const void __user *data;
} drm_radeon_tex_image_t;
 
typedef struct drm_radeon_texture {
unsigned int offset;
int pitch;
int format;
int width; /* Texture image coordinates */
int height;
drm_radeon_tex_image_t __user *image;
} drm_radeon_texture_t;
 
typedef struct drm_radeon_stipple {
unsigned int __user *mask;
} drm_radeon_stipple_t;
 
typedef struct drm_radeon_indirect {
int idx;
int start;
int end;
int discard;
} drm_radeon_indirect_t;
 
/* enum for card type parameters */
#define RADEON_CARD_PCI 0
#define RADEON_CARD_AGP 1
#define RADEON_CARD_PCIE 2
 
/* 1.3: An ioctl to get parameters that aren't available to the 3d
* client any other way.
*/
#define RADEON_PARAM_GART_BUFFER_OFFSET 1 /* card offset of 1st GART buffer */
#define RADEON_PARAM_LAST_FRAME 2
#define RADEON_PARAM_LAST_DISPATCH 3
#define RADEON_PARAM_LAST_CLEAR 4
/* Added with DRM version 1.6. */
#define RADEON_PARAM_IRQ_NR 5
#define RADEON_PARAM_GART_BASE 6 /* card offset of GART base */
/* Added with DRM version 1.8. */
#define RADEON_PARAM_REGISTER_HANDLE 7 /* for drmMap() */
#define RADEON_PARAM_STATUS_HANDLE 8
#define RADEON_PARAM_SAREA_HANDLE 9
#define RADEON_PARAM_GART_TEX_HANDLE 10
#define RADEON_PARAM_SCRATCH_OFFSET 11
#define RADEON_PARAM_CARD_TYPE 12
#define RADEON_PARAM_VBLANK_CRTC 13 /* VBLANK CRTC */
#define RADEON_PARAM_FB_LOCATION 14 /* FB location */
#define RADEON_PARAM_NUM_GB_PIPES 15 /* num GB pipes */
#define RADEON_PARAM_DEVICE_ID 16
 
typedef struct drm_radeon_getparam {
int param;
void __user *value;
} drm_radeon_getparam_t;
 
/* 1.6: Set up a memory manager for regions of shared memory:
*/
#define RADEON_MEM_REGION_GART 1
#define RADEON_MEM_REGION_FB 2
 
typedef struct drm_radeon_mem_alloc {
int region;
int alignment;
int size;
int __user *region_offset; /* offset from start of fb or GART */
} drm_radeon_mem_alloc_t;
 
typedef struct drm_radeon_mem_free {
int region;
int region_offset;
} drm_radeon_mem_free_t;
 
typedef struct drm_radeon_mem_init_heap {
int region;
int size;
int start;
} drm_radeon_mem_init_heap_t;
 
/* 1.6: Userspace can request & wait on irq's:
*/
typedef struct drm_radeon_irq_emit {
int __user *irq_seq;
} drm_radeon_irq_emit_t;
 
typedef struct drm_radeon_irq_wait {
int irq_seq;
} drm_radeon_irq_wait_t;
 
/* 1.10: Clients tell the DRM where they think the framebuffer is located in
* the card's address space, via a new generic ioctl to set parameters
*/
 
typedef struct drm_radeon_setparam {
unsigned int param;
__s64 value;
} drm_radeon_setparam_t;
 
#define RADEON_SETPARAM_FB_LOCATION 1 /* determined framebuffer location */
#define RADEON_SETPARAM_SWITCH_TILING 2 /* enable/disable color tiling */
#define RADEON_SETPARAM_PCIGART_LOCATION 3 /* PCI Gart Location */
#define RADEON_SETPARAM_NEW_MEMMAP 4 /* Use new memory map */
#define RADEON_SETPARAM_PCIGART_TABLE_SIZE 5 /* PCI GART Table Size */
#define RADEON_SETPARAM_VBLANK_CRTC 6 /* VBLANK CRTC */
/* 1.14: Clients can allocate/free a surface
*/
typedef struct drm_radeon_surface_alloc {
unsigned int address;
unsigned int size;
unsigned int flags;
} drm_radeon_surface_alloc_t;
 
typedef struct drm_radeon_surface_free {
unsigned int address;
} drm_radeon_surface_free_t;
 
#define DRM_RADEON_VBLANK_CRTC1 1
#define DRM_RADEON_VBLANK_CRTC2 2
 
/*
* Kernel modesetting world below.
*/
#define RADEON_GEM_DOMAIN_CPU 0x1
#define RADEON_GEM_DOMAIN_GTT 0x2
#define RADEON_GEM_DOMAIN_VRAM 0x4
 
struct drm_radeon_gem_info {
uint64_t gart_size;
uint64_t vram_size;
uint64_t vram_visible;
};
 
#define RADEON_GEM_NO_BACKING_STORE 1
 
struct drm_radeon_gem_create {
uint64_t size;
uint64_t alignment;
uint32_t handle;
uint32_t initial_domain;
uint32_t flags;
};
 
struct drm_radeon_gem_mmap {
uint32_t handle;
uint32_t pad;
uint64_t offset;
uint64_t size;
uint64_t addr_ptr;
};
 
struct drm_radeon_gem_set_domain {
uint32_t handle;
uint32_t read_domains;
uint32_t write_domain;
};
 
struct drm_radeon_gem_wait_idle {
uint32_t handle;
uint32_t pad;
};
 
struct drm_radeon_gem_busy {
uint32_t handle;
uint32_t busy;
};
 
struct drm_radeon_gem_pread {
/** Handle for the object being read. */
uint32_t handle;
uint32_t pad;
/** Offset into the object to read from */
uint64_t offset;
/** Length of data to read */
uint64_t size;
/** Pointer to write the data into. */
/* void *, but pointers are not 32/64 compatible */
uint64_t data_ptr;
};
 
struct drm_radeon_gem_pwrite {
/** Handle for the object being written to. */
uint32_t handle;
uint32_t pad;
/** Offset into the object to write to */
uint64_t offset;
/** Length of data to write */
uint64_t size;
/** Pointer to read the data from. */
/* void *, but pointers are not 32/64 compatible */
uint64_t data_ptr;
};
 
#define RADEON_CHUNK_ID_RELOCS 0x01
#define RADEON_CHUNK_ID_IB 0x02
 
struct drm_radeon_cs_chunk {
uint32_t chunk_id;
uint32_t length_dw;
uint64_t chunk_data;
};
 
struct drm_radeon_cs_reloc {
uint32_t handle;
uint32_t read_domains;
uint32_t write_domain;
uint32_t flags;
};
 
struct drm_radeon_cs {
uint32_t num_chunks;
uint32_t cs_id;
/* this points to uint64_t * which point to cs chunks */
uint64_t chunks;
/* updates to the limits after this CS ioctl */
uint64_t gart_limit;
uint64_t vram_limit;
};
 
#define RADEON_INFO_DEVICE_ID 0x00
#define RADEON_INFO_NUM_GB_PIPES 0x01
 
struct drm_radeon_info {
uint32_t request;
uint32_t pad;
uint64_t value;
};
 
#endif
/drivers/video/drm/radeon/radeon_reg.h
982,15 → 982,12
# define RS400_TMDS2_PLLRST (1 << 1)
 
#define RADEON_GEN_INT_CNTL 0x0040
# define RADEON_CRTC_VBLANK_MASK (1 << 0)
# define RADEON_CRTC2_VBLANK_MASK (1 << 9)
# define RADEON_SW_INT_ENABLE (1 << 25)
#define RADEON_GEN_INT_STATUS 0x0044
# define AVIVO_DISPLAY_INT_STATUS (1 << 0)
# define RADEON_CRTC_VBLANK_STAT (1 << 0)
# define RADEON_CRTC_VBLANK_STAT_ACK (1 << 0)
# define RADEON_CRTC2_VBLANK_STAT (1 << 9)
# define RADEON_CRTC2_VBLANK_STAT_ACK (1 << 9)
# define RADEON_VSYNC_INT_AK (1 << 2)
# define RADEON_VSYNC_INT (1 << 2)
# define RADEON_VSYNC2_INT_AK (1 << 6)
# define RADEON_VSYNC2_INT (1 << 6)
# define RADEON_SW_INT_FIRE (1 << 26)
# define RADEON_SW_INT_TEST (1 << 25)
# define RADEON_SW_INT_TEST_ACK (1 << 25)
1945,11 → 1942,6
# define RADEON_TXFORMAT_DXT1 (12 << 0)
# define RADEON_TXFORMAT_DXT23 (14 << 0)
# define RADEON_TXFORMAT_DXT45 (15 << 0)
# define RADEON_TXFORMAT_SHADOW16 (16 << 0)
# define RADEON_TXFORMAT_SHADOW32 (17 << 0)
# define RADEON_TXFORMAT_DUDV88 (18 << 0)
# define RADEON_TXFORMAT_LDUDV655 (19 << 0)
# define RADEON_TXFORMAT_LDUDUV8888 (20 << 0)
# define RADEON_TXFORMAT_FORMAT_MASK (31 << 0)
# define RADEON_TXFORMAT_FORMAT_SHIFT 0
# define RADEON_TXFORMAT_APPLE_YUV_MODE (1 << 5)
2208,7 → 2200,7
# define RADEON_ROP_ENABLE (1 << 6)
# define RADEON_STENCIL_ENABLE (1 << 7)
# define RADEON_Z_ENABLE (1 << 8)
# define RADEON_DEPTHXY_OFFSET_ENABLE (1 << 9)
# define RADEON_DEPTH_XZ_OFFEST_ENABLE (1 << 9)
# define RADEON_RB3D_COLOR_FORMAT_SHIFT 10
 
# define RADEON_COLOR_FORMAT_ARGB1555 3
2342,9 → 2334,6
# define RADEON_RE_WIDTH_SHIFT 0
# define RADEON_RE_HEIGHT_SHIFT 16
 
#define RADEON_RB3D_ZPASS_DATA 0x3290
#define RADEON_RB3D_ZPASS_ADDR 0x3294
 
#define RADEON_SE_CNTL 0x1c4c
# define RADEON_FFACE_CULL_CW (0 << 0)
# define RADEON_FFACE_CULL_CCW (1 << 0)
2778,12 → 2767,7
# define R200_TXFORMAT_DXT1 (12 << 0)
# define R200_TXFORMAT_DXT23 (14 << 0)
# define R200_TXFORMAT_DXT45 (15 << 0)
# define R200_TXFORMAT_DVDU88 (18 << 0)
# define R200_TXFORMAT_LDVDU655 (19 << 0)
# define R200_TXFORMAT_LDVDU8888 (20 << 0)
# define R200_TXFORMAT_GR1616 (21 << 0)
# define R200_TXFORMAT_ABGR8888 (22 << 0)
# define R200_TXFORMAT_BGR111110 (23 << 0)
# define R200_TXFORMAT_FORMAT_MASK (31 << 0)
# define R200_TXFORMAT_FORMAT_SHIFT 0
# define R200_TXFORMAT_ALPHA_IN_MAP (1 << 6)
2828,13 → 2812,6
#define R200_PP_TXPITCH_4 0x2c90 /* NPOT only */
#define R200_PP_TXPITCH_5 0x2cb0 /* NPOT only */
 
#define R200_PP_CUBIC_FACES_0 0x2c18
#define R200_PP_CUBIC_FACES_1 0x2c38
#define R200_PP_CUBIC_FACES_2 0x2c58
#define R200_PP_CUBIC_FACES_3 0x2c78
#define R200_PP_CUBIC_FACES_4 0x2c98
#define R200_PP_CUBIC_FACES_5 0x2cb8
 
#define R200_PP_TXOFFSET_0 0x2d00
# define R200_TXO_ENDIAN_NO_SWAP (0 << 0)
# define R200_TXO_ENDIAN_BYTE_SWAP (1 << 0)
2846,44 → 2823,11
# define R200_TXO_MICRO_TILE (1 << 3)
# define R200_TXO_OFFSET_MASK 0xffffffe0
# define R200_TXO_OFFSET_SHIFT 5
#define R200_PP_CUBIC_OFFSET_F1_0 0x2d04
#define R200_PP_CUBIC_OFFSET_F2_0 0x2d08
#define R200_PP_CUBIC_OFFSET_F3_0 0x2d0c
#define R200_PP_CUBIC_OFFSET_F4_0 0x2d10
#define R200_PP_CUBIC_OFFSET_F5_0 0x2d14
 
#define R200_PP_TXOFFSET_1 0x2d18
#define R200_PP_CUBIC_OFFSET_F1_1 0x2d1c
#define R200_PP_CUBIC_OFFSET_F2_1 0x2d20
#define R200_PP_CUBIC_OFFSET_F3_1 0x2d24
#define R200_PP_CUBIC_OFFSET_F4_1 0x2d28
#define R200_PP_CUBIC_OFFSET_F5_1 0x2d2c
 
#define R200_PP_TXOFFSET_2 0x2d30
#define R200_PP_CUBIC_OFFSET_F1_2 0x2d34
#define R200_PP_CUBIC_OFFSET_F2_2 0x2d38
#define R200_PP_CUBIC_OFFSET_F3_2 0x2d3c
#define R200_PP_CUBIC_OFFSET_F4_2 0x2d40
#define R200_PP_CUBIC_OFFSET_F5_2 0x2d44
 
#define R200_PP_TXOFFSET_3 0x2d48
#define R200_PP_CUBIC_OFFSET_F1_3 0x2d4c
#define R200_PP_CUBIC_OFFSET_F2_3 0x2d50
#define R200_PP_CUBIC_OFFSET_F3_3 0x2d54
#define R200_PP_CUBIC_OFFSET_F4_3 0x2d58
#define R200_PP_CUBIC_OFFSET_F5_3 0x2d5c
#define R200_PP_TXOFFSET_4 0x2d60
#define R200_PP_CUBIC_OFFSET_F1_4 0x2d64
#define R200_PP_CUBIC_OFFSET_F2_4 0x2d68
#define R200_PP_CUBIC_OFFSET_F3_4 0x2d6c
#define R200_PP_CUBIC_OFFSET_F4_4 0x2d70
#define R200_PP_CUBIC_OFFSET_F5_4 0x2d74
#define R200_PP_TXOFFSET_5 0x2d78
#define R200_PP_CUBIC_OFFSET_F1_5 0x2d7c
#define R200_PP_CUBIC_OFFSET_F2_5 0x2d80
#define R200_PP_CUBIC_OFFSET_F3_5 0x2d84
#define R200_PP_CUBIC_OFFSET_F4_5 0x2d88
#define R200_PP_CUBIC_OFFSET_F5_5 0x2d8c
 
#define R200_PP_TFACTOR_0 0x2ee0
#define R200_PP_TFACTOR_1 0x2ee4
3225,11 → 3169,6
# define R200_FORCE_INORDER_PROC (1<<31)
#define R200_PP_CNTL_X 0x2cc4
#define R200_PP_TXMULTI_CTL_0 0x2c1c
#define R200_PP_TXMULTI_CTL_1 0x2c3c
#define R200_PP_TXMULTI_CTL_2 0x2c5c
#define R200_PP_TXMULTI_CTL_3 0x2c7c
#define R200_PP_TXMULTI_CTL_4 0x2c9c
#define R200_PP_TXMULTI_CTL_5 0x2cbc
#define R200_SE_VTX_STATE_CNTL 0x2180
# define R200_UPDATE_USER_COLOR_0_ENA_MASK (1<<16)
 
3255,24 → 3194,6
#define RADEON_CP_RB_WPTR 0x0714
#define RADEON_CP_RB_RPTR_WR 0x071c
 
#define RADEON_SCRATCH_UMSK 0x0770
#define RADEON_SCRATCH_ADDR 0x0774
 
#define R600_CP_RB_BASE 0xc100
#define R600_CP_RB_CNTL 0xc104
# define R600_RB_BUFSZ(x) ((x) << 0)
# define R600_RB_BLKSZ(x) ((x) << 8)
# define R600_RB_NO_UPDATE (1 << 27)
# define R600_RB_RPTR_WR_ENA (1 << 31)
#define R600_CP_RB_RPTR_WR 0xc108
#define R600_CP_RB_RPTR_ADDR 0xc10c
#define R600_CP_RB_RPTR_ADDR_HI 0xc110
#define R600_CP_RB_WPTR 0xc114
#define R600_CP_RB_WPTR_ADDR 0xc118
#define R600_CP_RB_WPTR_ADDR_HI 0xc11c
#define R600_CP_RB_RPTR 0x8700
#define R600_CP_RB_WPTR_DELAY 0x8704
 
#define RADEON_CP_IB_BASE 0x0738
#define RADEON_CP_IB_BUFSZ 0x073c
 
3480,9 → 3401,7
# define RADEON_RGB_CONVERT_BY_PASS (1 << 10)
# define RADEON_UVRAM_READ_MARGIN_SHIFT 16
# define RADEON_FIFORAM_FFMACRO_READ_MARGIN_SHIFT 20
# define RADEON_RGB_ATTEN_SEL(x) ((x) << 24)
# define RADEON_TVOUT_SCALE_EN (1 << 26)
# define RADEON_RGB_ATTEN_VAL(x) ((x) << 28)
#define RADEON_TV_SYNC_CNTL 0x0808
# define RADEON_SYNC_OE (1 << 0)
# define RADEON_SYNC_OUT (1 << 1)
3649,6 → 3568,4
#define RADEON_SCRATCH_REG4 0x15f0
#define RADEON_SCRATCH_REG5 0x15f4
 
#define RV530_GB_PIPE_SELECT2 0x4124
 
#endif
/drivers/video/drm/drm_crtc.c
29,7 → 29,7
* Dave Airlie <airlied@linux.ie>
* Jesse Barnes <jesse.barnes@intel.com>
*/
#include <linux/list.h>
#include <list.h>
#include "drm.h"
#include "drmP.h"
#include "drm_crtc.h"
68,10 → 68,10
*/
static struct drm_prop_enum_list drm_scaling_mode_enum_list[] =
{
{ DRM_MODE_SCALE_NONE, "None" },
{ DRM_MODE_SCALE_FULLSCREEN, "Full" },
{ DRM_MODE_SCALE_CENTER, "Center" },
{ DRM_MODE_SCALE_ASPECT, "Full aspect" },
{ DRM_MODE_SCALE_NON_GPU, "Non-GPU" },
{ DRM_MODE_SCALE_FULLSCREEN, "Fullscreen" },
{ DRM_MODE_SCALE_NO_SCALE, "No scale" },
{ DRM_MODE_SCALE_ASPECT, "Aspect" },
};
 
static struct drm_prop_enum_list drm_dithering_mode_enum_list[] =
108,7 → 108,6
{ DRM_MODE_SUBCONNECTOR_Composite, "Composite" }, /* TV-out */
{ DRM_MODE_SUBCONNECTOR_SVIDEO, "SVIDEO" }, /* TV-out */
{ DRM_MODE_SUBCONNECTOR_Component, "Component" }, /* TV-out */
{ DRM_MODE_SUBCONNECTOR_SCART, "SCART" }, /* TV-out */
};
 
DRM_ENUM_NAME_FN(drm_get_tv_select_name, drm_tv_select_enum_list)
119,7 → 118,6
{ DRM_MODE_SUBCONNECTOR_Composite, "Composite" }, /* TV-out */
{ DRM_MODE_SUBCONNECTOR_SVIDEO, "SVIDEO" }, /* TV-out */
{ DRM_MODE_SUBCONNECTOR_Component, "Component" }, /* TV-out */
{ DRM_MODE_SUBCONNECTOR_SCART, "SCART" }, /* TV-out */
};
 
DRM_ENUM_NAME_FN(drm_get_tv_subconnector_name,
148,7 → 146,6
{ DRM_MODE_CONNECTOR_DisplayPort, "DisplayPort", 0 },
{ DRM_MODE_CONNECTOR_HDMIA, "HDMI Type A", 0 },
{ DRM_MODE_CONNECTOR_HDMIB, "HDMI Type B", 0 },
{ DRM_MODE_CONNECTOR_TV, "TV", 0 },
};
 
static struct drm_prop_enum_list drm_encoder_enum_list[] =
168,7 → 165,6
encoder->base.id);
return buf;
}
EXPORT_SYMBOL(drm_get_encoder_name);
 
char *drm_get_connector_name(struct drm_connector *connector)
{
218,14 → 214,15
return -EINVAL;
}
 
mutex_lock(&dev->mode_config.idr_mutex);
// mutex_lock(&dev->mode_config.idr_mutex);
ret = idr_get_new_above(&dev->mode_config.crtc_idr, obj, 1, &new_id);
mutex_unlock(&dev->mode_config.idr_mutex);
// mutex_unlock(&dev->mode_config.idr_mutex);
if (ret == -EAGAIN)
goto again;
 
obj->id = new_id;
obj->type = obj_type;
 
return 0;
}
 
242,9 → 239,9
static void drm_mode_object_put(struct drm_device *dev,
struct drm_mode_object *object)
{
mutex_lock(&dev->mode_config.idr_mutex);
// mutex_lock(&dev->mode_config.idr_mutex);
idr_remove(&dev->mode_config.crtc_idr, object->id);
mutex_unlock(&dev->mode_config.idr_mutex);
// mutex_unlock(&dev->mode_config.idr_mutex);
}
 
void *drm_mode_object_find(struct drm_device *dev, uint32_t id, uint32_t type)
251,17 → 248,43
{
struct drm_mode_object *obj = NULL;
 
mutex_lock(&dev->mode_config.idr_mutex);
// mutex_lock(&dev->mode_config.idr_mutex);
obj = idr_find(&dev->mode_config.crtc_idr, id);
if (!obj || (obj->type != type) || (obj->id != id))
obj = NULL;
mutex_unlock(&dev->mode_config.idr_mutex);
// mutex_unlock(&dev->mode_config.idr_mutex);
 
return obj;
}
EXPORT_SYMBOL(drm_mode_object_find);
 
 
/**
* drm_crtc_from_fb - find the CRTC structure associated with an fb
* @dev: DRM device
* @fb: framebuffer in question
*
* LOCKING:
* Caller must hold mode_config lock.
*
* Find CRTC in the mode_config structure that matches @fb.
*
* RETURNS:
* Pointer to the CRTC or NULL if it wasn't found.
*/
struct drm_crtc *drm_crtc_from_fb(struct drm_device *dev,
struct drm_framebuffer *fb)
{
struct drm_crtc *crtc;
 
list_for_each_entry(crtc, &dev->mode_config.crtc_list, head) {
if (crtc->fb == fb)
return crtc;
}
return NULL;
}
 
/**
* drm_framebuffer_init - initialize a framebuffer
* @dev: DRM device
*
307,21 → 330,12
{
struct drm_device *dev = fb->dev;
struct drm_crtc *crtc;
struct drm_mode_set set;
int ret;
 
/* remove from any CRTC */
list_for_each_entry(crtc, &dev->mode_config.crtc_list, head) {
if (crtc->fb == fb) {
/* should turn off the crtc */
memset(&set, 0, sizeof(struct drm_mode_set));
set.crtc = crtc;
set.fb = NULL;
ret = crtc->funcs->set_config(&set);
if (ret)
DRM_ERROR("failed to reset crtc %p when fb was deleted\n", crtc);
if (crtc->fb == fb)
crtc->fb = NULL;
}
}
 
drm_mode_object_put(dev, &fb->base);
list_del(&fb->head);
329,6 → 343,7
}
EXPORT_SYMBOL(drm_framebuffer_cleanup);
 
 
/**
* drm_crtc_init - Initialise a new CRTC object
* @dev: DRM device
343,15 → 358,20
void drm_crtc_init(struct drm_device *dev, struct drm_crtc *crtc,
const struct drm_crtc_funcs *funcs)
{
ENTRY();
 
crtc->dev = dev;
crtc->funcs = funcs;
 
mutex_lock(&dev->mode_config.mutex);
// mutex_lock(&dev->mode_config.mutex);
drm_mode_object_get(dev, &crtc->base, DRM_MODE_OBJECT_CRTC);
 
list_add_tail(&crtc->head, &dev->mode_config.crtc_list);
dev->mode_config.num_crtc++;
mutex_unlock(&dev->mode_config.mutex);
 
// mutex_unlock(&dev->mode_config.mutex);
 
LEAVE();
}
EXPORT_SYMBOL(drm_crtc_init);
 
433,7 → 453,7
const struct drm_connector_funcs *funcs,
int connector_type)
{
mutex_lock(&dev->mode_config.mutex);
// mutex_lock(&dev->mode_config.mutex);
 
connector->dev = dev;
connector->funcs = funcs;
455,7 → 475,7
drm_connector_attach_property(connector,
dev->mode_config.dpms_property, 0);
 
mutex_unlock(&dev->mode_config.mutex);
// mutex_unlock(&dev->mode_config.mutex);
}
EXPORT_SYMBOL(drm_connector_init);
 
482,10 → 502,10
list_for_each_entry_safe(mode, t, &connector->user_modes, head)
drm_mode_remove(connector, mode);
 
mutex_lock(&dev->mode_config.mutex);
// mutex_lock(&dev->mode_config.mutex);
drm_mode_object_put(dev, &connector->base);
list_del(&connector->head);
mutex_unlock(&dev->mode_config.mutex);
// mutex_unlock(&dev->mode_config.mutex);
}
EXPORT_SYMBOL(drm_connector_cleanup);
 
494,7 → 514,7
const struct drm_encoder_funcs *funcs,
int encoder_type)
{
mutex_lock(&dev->mode_config.mutex);
// mutex_lock(&dev->mode_config.mutex);
 
encoder->dev = dev;
 
505,7 → 525,7
list_add_tail(&encoder->head, &dev->mode_config.encoder_list);
dev->mode_config.num_encoder++;
 
mutex_unlock(&dev->mode_config.mutex);
// mutex_unlock(&dev->mode_config.mutex);
}
EXPORT_SYMBOL(drm_encoder_init);
 
512,10 → 532,10
void drm_encoder_cleanup(struct drm_encoder *encoder)
{
struct drm_device *dev = encoder->dev;
mutex_lock(&dev->mode_config.mutex);
// mutex_lock(&dev->mode_config.mutex);
drm_mode_object_put(dev, &encoder->base);
list_del(&encoder->head);
mutex_unlock(&dev->mode_config.mutex);
// mutex_unlock(&dev->mode_config.mutex);
}
EXPORT_SYMBOL(drm_encoder_cleanup);
 
568,6 → 588,7
struct drm_property *dpms;
int i;
 
ENTRY();
/*
* Standard properties (apply to all connectors)
*/
583,6 → 604,7
drm_dpms_enum_list[i].name);
dev->mode_config.dpms_property = dpms;
 
LEAVE();
return 0;
}
 
703,42 → 725,6
drm_property_add_enum(dev->mode_config.tv_mode_property, i,
i, modes[i]);
 
dev->mode_config.tv_brightness_property =
drm_property_create(dev, DRM_MODE_PROP_RANGE,
"brightness", 2);
dev->mode_config.tv_brightness_property->values[0] = 0;
dev->mode_config.tv_brightness_property->values[1] = 100;
 
dev->mode_config.tv_contrast_property =
drm_property_create(dev, DRM_MODE_PROP_RANGE,
"contrast", 2);
dev->mode_config.tv_contrast_property->values[0] = 0;
dev->mode_config.tv_contrast_property->values[1] = 100;
 
dev->mode_config.tv_flicker_reduction_property =
drm_property_create(dev, DRM_MODE_PROP_RANGE,
"flicker reduction", 2);
dev->mode_config.tv_flicker_reduction_property->values[0] = 0;
dev->mode_config.tv_flicker_reduction_property->values[1] = 100;
 
dev->mode_config.tv_overscan_property =
drm_property_create(dev, DRM_MODE_PROP_RANGE,
"overscan", 2);
dev->mode_config.tv_overscan_property->values[0] = 0;
dev->mode_config.tv_overscan_property->values[1] = 100;
 
dev->mode_config.tv_saturation_property =
drm_property_create(dev, DRM_MODE_PROP_RANGE,
"saturation", 2);
dev->mode_config.tv_saturation_property->values[0] = 0;
dev->mode_config.tv_saturation_property->values[1] = 100;
 
dev->mode_config.tv_hue_property =
drm_property_create(dev, DRM_MODE_PROP_RANGE,
"hue", 2);
dev->mode_config.tv_hue_property->values[0] = 0;
dev->mode_config.tv_hue_property->values[1] = 100;
 
return 0;
}
EXPORT_SYMBOL(drm_mode_create_tv_properties);
812,6 → 798,8
*/
void drm_mode_config_init(struct drm_device *dev)
{
ENTRY();
 
// mutex_init(&dev->mode_config.mutex);
// mutex_init(&dev->mode_config.idr_mutex);
INIT_LIST_HEAD(&dev->mode_config.fb_list);
821,11 → 809,12
INIT_LIST_HEAD(&dev->mode_config.encoder_list);
INIT_LIST_HEAD(&dev->mode_config.property_list);
INIT_LIST_HEAD(&dev->mode_config.property_blob_list);
 
idr_init(&dev->mode_config.crtc_idr);
 
mutex_lock(&dev->mode_config.mutex);
// mutex_lock(&dev->mode_config.mutex);
drm_mode_create_standard_connector_properties(dev);
mutex_unlock(&dev->mode_config.mutex);
// mutex_unlock(&dev->mode_config.mutex);
 
/* Just to be sure */
dev->mode_config.num_fb = 0;
832,6 → 821,9
dev->mode_config.num_connector = 0;
dev->mode_config.num_crtc = 0;
dev->mode_config.num_encoder = 0;
 
LEAVE();
 
}
EXPORT_SYMBOL(drm_mode_config_init);
 
1086,7 → 1078,7
if (file_priv->master->minor->type == DRM_MINOR_CONTROL) {
list_for_each_entry(crtc, &dev->mode_config.crtc_list,
head) {
DRM_DEBUG_KMS("CRTC ID is %d\n", crtc->base.id);
DRM_DEBUG("CRTC ID is %d\n", crtc->base.id);
if (put_user(crtc->base.id, crtc_id + copied)) {
ret = -EFAULT;
goto out;
1114,7 → 1106,7
list_for_each_entry(encoder,
&dev->mode_config.encoder_list,
head) {
DRM_DEBUG_KMS("ENCODER ID is %d\n",
DRM_DEBUG("ENCODER ID is %d\n",
encoder->base.id);
if (put_user(encoder->base.id, encoder_id +
copied)) {
1145,7 → 1137,7
list_for_each_entry(connector,
&dev->mode_config.connector_list,
head) {
DRM_DEBUG_KMS("CONNECTOR ID is %d\n",
DRM_DEBUG("CONNECTOR ID is %d\n",
connector->base.id);
if (put_user(connector->base.id,
connector_id + copied)) {
1169,7 → 1161,7
}
card_res->count_connectors = connector_count;
 
DRM_DEBUG_KMS("Counted %d %d %d\n", card_res->count_crtcs,
DRM_DEBUG("Counted %d %d %d\n", card_res->count_crtcs,
card_res->count_connectors, card_res->count_encoders);
 
out:
1273,7 → 1265,7
 
memset(&u_mode, 0, sizeof(struct drm_mode_modeinfo));
 
DRM_DEBUG_KMS("connector id %d:\n", out_resp->connector_id);
DRM_DEBUG("connector id %d:\n", out_resp->connector_id);
 
mutex_lock(&dev->mode_config.mutex);
 
1449,7 → 1441,7
obj = drm_mode_object_find(dev, crtc_req->crtc_id,
DRM_MODE_OBJECT_CRTC);
if (!obj) {
DRM_DEBUG_KMS("Unknown CRTC ID %d\n", crtc_req->crtc_id);
DRM_DEBUG("Unknown CRTC ID %d\n", crtc_req->crtc_id);
ret = -EINVAL;
goto out;
}
1462,8 → 1454,7
list_for_each_entry(crtcfb,
&dev->mode_config.crtc_list, head) {
if (crtcfb == crtc) {
DRM_DEBUG_KMS("Using current fb for "
"setmode\n");
DRM_DEBUG("Using current fb for setmode\n");
fb = crtc->fb;
}
}
1471,8 → 1462,7
obj = drm_mode_object_find(dev, crtc_req->fb_id,
DRM_MODE_OBJECT_FB);
if (!obj) {
DRM_DEBUG_KMS("Unknown FB ID%d\n",
crtc_req->fb_id);
DRM_DEBUG("Unknown FB ID%d\n", crtc_req->fb_id);
ret = -EINVAL;
goto out;
}
1485,13 → 1475,13
}
 
if (crtc_req->count_connectors == 0 && mode) {
DRM_DEBUG_KMS("Count connectors is 0 but mode set\n");
DRM_DEBUG("Count connectors is 0 but mode set\n");
ret = -EINVAL;
goto out;
}
 
if (crtc_req->count_connectors > 0 && (!mode || !fb)) {
DRM_DEBUG_KMS("Count connectors is %d but no mode or fb set\n",
if (crtc_req->count_connectors > 0 && !mode && !fb) {
DRM_DEBUG("Count connectors is %d but no mode or fb set\n",
crtc_req->count_connectors);
ret = -EINVAL;
goto out;
1524,8 → 1514,7
obj = drm_mode_object_find(dev, out_id,
DRM_MODE_OBJECT_CONNECTOR);
if (!obj) {
DRM_DEBUG_KMS("Connector id %d unknown\n",
out_id);
DRM_DEBUG("Connector id %d unknown\n", out_id);
ret = -EINVAL;
goto out;
}
1558,7 → 1547,7
struct drm_crtc *crtc;
int ret = 0;
 
DRM_DEBUG_KMS("\n");
DRM_DEBUG("\n");
 
if (!req->flags) {
DRM_ERROR("no operation set\n");
1568,7 → 1557,7
mutex_lock(&dev->mode_config.mutex);
obj = drm_mode_object_find(dev, req->crtc_id, DRM_MODE_OBJECT_CRTC);
if (!obj) {
DRM_DEBUG_KMS("Unknown CRTC ID %d\n", req->crtc_id);
DRM_DEBUG("Unknown CRTC ID %d\n", req->crtc_id);
ret = -EINVAL;
goto out;
}
1785,6 → 1774,7
}
#endif
 
 
/**
* drm_mode_attachmode - add a mode to the user mode list
* @dev: DRM device
1966,6 → 1956,7
}
 
drm_mode_object_get(dev, &property->base, DRM_MODE_OBJECT_PROPERTY);
 
property->flags = flags;
property->num_values = num_values;
INIT_LIST_HEAD(&property->enum_blob_list);
1973,6 → 1964,7
if (name)
strncpy(property->name, name, DRM_PROP_NAME_LEN);
 
 
list_add_tail(&property->head, &dev->mode_config.property_list);
 
dbgprintf("%s %x name %s\n", __FUNCTION__, property, name);
2107,7 → 2099,7
uint64_t __user *values_ptr;
uint32_t __user *blob_length_ptr;
 
mutex_lock(&dev->mode_config.mutex);
// mutex_lock(&dev->mode_config.mutex);
obj = drm_mode_object_find(dev, out_resp->prop_id, DRM_MODE_OBJECT_PROPERTY);
if (!obj) {
ret = -EINVAL;
2185,7 → 2177,7
out_resp->count_enum_blobs = blob_count;
}
done:
mutex_unlock(&dev->mode_config.mutex);
// mutex_unlock(&dev->mode_config.mutex);
return ret;
}
#endif
2291,7 → 2283,7
int ret = -EINVAL;
int i;
 
mutex_lock(&dev->mode_config.mutex);
// mutex_lock(&dev->mode_config.mutex);
 
obj = drm_mode_object_find(dev, out_resp->connector_id, DRM_MODE_OBJECT_CONNECTOR);
if (!obj) {
2348,7 → 2340,7
if (!ret)
drm_connector_property_set_value(connector, property, out_resp->value);
out:
mutex_unlock(&dev->mode_config.mutex);
// mutex_unlock(&dev->mode_config.mutex);
return ret;
}
#endif
2409,7 → 2401,7
int size;
int ret = 0;
 
mutex_lock(&dev->mode_config.mutex);
// mutex_lock(&dev->mode_config.mutex);
obj = drm_mode_object_find(dev, crtc_lut->crtc_id, DRM_MODE_OBJECT_CRTC);
if (!obj) {
ret = -EINVAL;
2445,7 → 2437,7
crtc->funcs->gamma_set(crtc, r_base, g_base, b_base, crtc->gamma_size);
 
out:
mutex_unlock(&dev->mode_config.mutex);
// mutex_unlock(&dev->mode_config.mutex);
return ret;
 
}
2460,7 → 2452,7
int size;
int ret = 0;
 
mutex_lock(&dev->mode_config.mutex);
// mutex_lock(&dev->mode_config.mutex);
obj = drm_mode_object_find(dev, crtc_lut->crtc_id, DRM_MODE_OBJECT_CRTC);
if (!obj) {
ret = -EINVAL;
2493,10 → 2485,8
goto out;
}
out:
mutex_unlock(&dev->mode_config.mutex);
// mutex_unlock(&dev->mode_config.mutex);
return ret;
}
 
#endif
 
 
/drivers/video/drm/drm_crtc_helper.c
33,6 → 33,15
#include "drm_crtc.h"
#include "drm_crtc_helper.h"
 
/*
* Detailed mode info for 800x600@60Hz
*/
static struct drm_display_mode std_modes[] = {
{ DRM_MODE("800x600", DRM_MODE_TYPE_DEFAULT, 40000, 800, 840,
968, 1056, 0, 600, 601, 605, 628, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
};
 
static void drm_mode_validate_flag(struct drm_connector *connector,
int flags)
{
85,7 → 94,7
int count = 0;
int mode_flags = 0;
 
DRM_DEBUG_KMS("%s\n", drm_get_connector_name(connector));
DRM_DEBUG("%s\n", drm_get_connector_name(connector));
/* set all modes to the unverified state */
list_for_each_entry_safe(mode, t, &connector->modes, head)
mode->status = MODE_UNVERIFIED;
93,17 → 102,15
connector->status = connector->funcs->detect(connector);
 
if (connector->status == connector_status_disconnected) {
DRM_DEBUG_KMS("%s is disconnected\n",
DRM_DEBUG("%s is disconnected\n",
drm_get_connector_name(connector));
goto prune;
/* TODO set EDID to NULL */
return 0;
}
 
count = (*connector_funcs->get_modes)(connector);
if (!count) {
count = drm_add_modes_noedid(connector, 800, 600);
if (!count)
return 0;
}
 
drm_mode_connector_list_update(connector);
 
123,7 → 130,7
mode);
}
 
prune:
 
drm_mode_prune_invalid(dev, &connector->modes, true);
 
if (list_empty(&connector->modes))
131,8 → 138,7
 
drm_mode_sort(&connector->modes);
 
DRM_DEBUG_KMS("Probed modes for %s\n",
drm_get_connector_name(connector));
DRM_DEBUG("Probed modes for %s\n", drm_get_connector_name(connector));
list_for_each_entry_safe(mode, t, &connector->modes, head) {
mode->vrefresh = drm_mode_vrefresh(mode);
 
159,6 → 165,39
}
EXPORT_SYMBOL(drm_helper_probe_connector_modes);
 
static void drm_helper_add_std_modes(struct drm_device *dev,
struct drm_connector *connector)
{
struct drm_display_mode *mode, *t;
int i;
 
for (i = 0; i < ARRAY_SIZE(std_modes); i++) {
struct drm_display_mode *stdmode;
 
/*
* When no valid EDID modes are available we end up
* here and bailed in the past, now we add some standard
* modes and move on.
*/
stdmode = drm_mode_duplicate(dev, &std_modes[i]);
drm_mode_probed_add(connector, stdmode);
drm_mode_list_concat(&connector->probed_modes,
&connector->modes);
 
DRM_DEBUG("Adding mode %s to %s\n", stdmode->name,
drm_get_connector_name(connector));
}
drm_mode_sort(&connector->modes);
 
DRM_DEBUG("Added std modes on %s\n", drm_get_connector_name(connector));
list_for_each_entry_safe(mode, t, &connector->modes, head) {
mode->vrefresh = drm_mode_vrefresh(mode);
 
drm_mode_set_crtcinfo(mode, CRTC_INTERLACE_HALVE_V);
drm_mode_debug_printmodeline(mode);
}
}
 
/**
* drm_helper_encoder_in_use - check if a given encoder is in use
* @encoder: encoder to check
219,28 → 258,14
void drm_helper_disable_unused_functions(struct drm_device *dev)
{
struct drm_encoder *encoder;
struct drm_connector *connector;
struct drm_encoder_helper_funcs *encoder_funcs;
struct drm_crtc *crtc;
 
list_for_each_entry(connector, &dev->mode_config.connector_list, head) {
if (!connector->encoder)
continue;
if (connector->status == connector_status_disconnected)
connector->encoder = NULL;
}
 
list_for_each_entry(encoder, &dev->mode_config.encoder_list, head) {
encoder_funcs = encoder->helper_private;
if (!drm_helper_encoder_in_use(encoder)) {
if (encoder_funcs->disable)
(*encoder_funcs->disable)(encoder);
else
if (!drm_helper_encoder_in_use(encoder))
(*encoder_funcs->dpms)(encoder, DRM_MODE_DPMS_OFF);
/* disconnector encoder from any connector */
encoder->crtc = NULL;
}
}
 
list_for_each_entry(crtc, &dev->mode_config.crtc_list, head) {
struct drm_crtc_helper_funcs *crtc_funcs = crtc->helper_private;
257,6 → 282,8
{
struct drm_display_mode *mode;
 
ENTRY();
 
list_for_each_entry(mode, &connector->modes, head) {
if (drm_mode_width(mode) > width ||
drm_mode_height(mode) > height)
287,7 → 314,7
 
list_for_each_entry(connector, &dev->mode_config.connector_list, head) {
enabled[i] = drm_connector_enabled(connector, true);
DRM_DEBUG_KMS("connector %d enabled? %s\n", connector->base.id,
DRM_DEBUG("connector %d enabled ? %s\n", connector->base.id,
enabled[i] ? "yes" : "no");
any_enabled |= enabled[i];
i++;
317,7 → 344,7
continue;
}
 
DRM_DEBUG_KMS("looking for preferred mode on connector %d\n",
DRM_DEBUG("looking for preferred mode on connector %d\n",
connector->base.id);
 
modes[i] = drm_has_preferred_mode(connector, width, height);
326,7 → 353,7
list_for_each_entry(modes[i], &connector->modes, head)
break;
}
DRM_DEBUG_KMS("found mode %s\n", modes[i] ? modes[i]->name :
DRM_DEBUG("found mode %s\n", modes[i] ? modes[i]->name :
"none");
i++;
}
355,6 → 382,8
c++;
}
 
dbgprintf("n= %d\n", n);
 
best_crtcs[n] = NULL;
best_crtc = NULL;
best_score = drm_pick_crtcs(dev, best_crtcs, modes, n+1, width, height);
366,6 → 395,8
if (!crtcs)
return best_score;
 
dbgprintf("crtcs = %x\n", crtcs);
 
my_score = 1;
if (connector->status == connector_status_connected)
my_score++;
374,6 → 405,9
 
connector_funcs = connector->helper_private;
encoder = connector_funcs->best_encoder(connector);
 
dbgprintf("encoder = %x\n", encoder);
 
if (!encoder)
goto out;
 
384,7 → 418,7
c = 0;
list_for_each_entry(crtc, &dev->mode_config.crtc_list, head) {
 
if ((encoder->possible_crtcs & (1 << c)) == 0) {
if ((connector->encoder->possible_crtcs & (1 << c)) == 0) {
c++;
continue;
}
414,6 → 448,11
}
out:
kfree(crtcs);
 
dbgprintf("best_score= %x\n", best_score);
 
LEAVE();
 
return best_score;
}
 
427,7 → 466,7
int width, height;
int i, ret;
 
DRM_DEBUG_KMS("\n");
DRM_DEBUG("\n");
 
width = 1280; //dev->mode_config.max_width;
height = 1024; //dev->mode_config.max_height;
450,7 → 489,7
if (!ret)
DRM_ERROR("Unable to find initial modes\n");
 
DRM_DEBUG_KMS("picking CRTCs for %dx%d config\n", width, height);
DRM_DEBUG("picking CRTCs for %dx%d config\n", width, height);
 
drm_pick_crtcs(dev, crtcs, modes, 0, width, height);
 
465,15 → 504,14
}
 
if (mode && crtc) {
DRM_DEBUG_KMS("desired mode %s set on crtc %d\n",
DRM_DEBUG("desired mode %s set on crtc %d\n",
mode->name, crtc->base.id);
crtc->desired_mode = mode;
// crtc->mode = *mode;
crtc->enabled = true;
connector->encoder->crtc = crtc;
} else {
} else
connector->encoder->crtc = NULL;
connector->encoder = NULL;
}
i++;
}
 
480,6 → 518,8
kfree(crtcs);
kfree(modes);
kfree(enabled);
 
LEAVE();
}
 
/**
563,6 → 603,8
struct drm_encoder *encoder;
bool ret = true;
 
ENTRY();
 
adjusted_mode = drm_mode_duplicate(dev, mode);
 
crtc->enabled = drm_helper_crtc_in_use(crtc);
654,7 → 696,7
crtc->x = saved_x;
crtc->y = saved_y;
}
 
LEAVE();
return ret;
}
EXPORT_SYMBOL(drm_crtc_helper_set_mode);
680,17 → 722,18
int drm_crtc_helper_set_config(struct drm_mode_set *set)
{
struct drm_device *dev;
struct drm_crtc *save_crtcs, *new_crtc, *crtc;
struct drm_encoder *save_encoders, *new_encoder, *encoder;
struct drm_crtc **save_crtcs, *new_crtc;
struct drm_encoder **save_encoders, *new_encoder;
struct drm_framebuffer *old_fb = NULL;
bool mode_changed = false; /* if true do a full mode set */
bool fb_changed = false; /* if true and !mode_changed just do a flip */
struct drm_connector *save_connectors, *connector;
bool save_enabled;
bool mode_changed = false;
bool fb_changed = false;
struct drm_connector *connector;
int count = 0, ro, fail = 0;
struct drm_crtc_helper_funcs *crtc_funcs;
int ret = 0;
 
DRM_DEBUG_KMS("\n");
DRM_DEBUG("\n");
 
if (!set)
return -EINVAL;
703,63 → 746,38
 
crtc_funcs = set->crtc->helper_private;
 
DRM_DEBUG_KMS("crtc: %p %d fb: %p connectors: %p num_connectors:"
" %d (x, y) (%i, %i)\n",
DRM_DEBUG("crtc: %p %d fb: %p connectors: %p num_connectors: %d (x, y) (%i, %i)\n",
set->crtc, set->crtc->base.id, set->fb, set->connectors,
(int)set->num_connectors, set->x, set->y);
 
dev = set->crtc->dev;
 
/* Allocate space for the backup of all (non-pointer) crtc, encoder and
* connector data. */
save_crtcs = kzalloc(dev->mode_config.num_crtc *
sizeof(struct drm_crtc), GFP_KERNEL);
/* save previous config */
save_enabled = set->crtc->enabled;
 
/*
* We do mode_config.num_connectors here since we'll look at the
* CRTC and encoder associated with each connector later.
*/
save_crtcs = kzalloc(dev->mode_config.num_connector *
sizeof(struct drm_crtc *), GFP_KERNEL);
if (!save_crtcs)
return -ENOMEM;
 
save_encoders = kzalloc(dev->mode_config.num_encoder *
sizeof(struct drm_encoder), GFP_KERNEL);
save_encoders = kzalloc(dev->mode_config.num_connector *
sizeof(struct drm_encoders *), GFP_KERNEL);
if (!save_encoders) {
kfree(save_crtcs);
return -ENOMEM;
}
 
save_connectors = kzalloc(dev->mode_config.num_connector *
sizeof(struct drm_connector), GFP_KERNEL);
if (!save_connectors) {
kfree(save_crtcs);
kfree(save_encoders);
return -ENOMEM;
}
 
/* Copy data. Note that driver private data is not affected.
* Should anything bad happen only the expected state is
* restored, not the drivers personal bookkeeping.
*/
count = 0;
list_for_each_entry(crtc, &dev->mode_config.crtc_list, head) {
save_crtcs[count++] = *crtc;
}
 
count = 0;
list_for_each_entry(encoder, &dev->mode_config.encoder_list, head) {
save_encoders[count++] = *encoder;
}
 
count = 0;
list_for_each_entry(connector, &dev->mode_config.connector_list, head) {
save_connectors[count++] = *connector;
}
 
/* We should be able to check here if the fb has the same properties
* and then just flip_or_move it */
if (set->crtc->fb != set->fb) {
/* If we have no fb then treat it as a full mode set */
if (set->crtc->fb == NULL) {
DRM_DEBUG_KMS("crtc has no fb, full mode set\n");
DRM_DEBUG("crtc has no fb, full mode set\n");
mode_changed = true;
} else if (set->fb == NULL) {
mode_changed = true;
} else if ((set->fb->bits_per_pixel !=
set->crtc->fb->bits_per_pixel) ||
set->fb->depth != set->crtc->fb->depth)
772,7 → 790,7
fb_changed = true;
 
if (set->mode && !drm_mode_equal(set->mode, &set->crtc->mode)) {
DRM_DEBUG_KMS("modes are different, full mode set\n");
DRM_DEBUG("modes are different, full mode set\n");
drm_mode_debug_printmodeline(&set->crtc->mode);
drm_mode_debug_printmodeline(set->mode);
mode_changed = true;
783,6 → 801,7
list_for_each_entry(connector, &dev->mode_config.connector_list, head) {
struct drm_connector_helper_funcs *connector_funcs =
connector->helper_private;
save_encoders[count++] = connector->encoder;
new_encoder = connector->encoder;
for (ro = 0; ro < set->num_connectors; ro++) {
if (set->connectors[ro] == connector) {
797,13 → 816,8
}
 
if (new_encoder != connector->encoder) {
DRM_DEBUG_KMS("encoder changed, full mode switch\n");
DRM_DEBUG("encoder changed, full mode switch\n");
mode_changed = true;
/* If the encoder is reused for another connector, then
* the appropriate crtc will be set later.
*/
if (connector->encoder)
connector->encoder->crtc = NULL;
connector->encoder = new_encoder;
}
}
810,7 → 824,7
 
if (fail) {
ret = -EINVAL;
goto fail;
goto fail_no_encoder;
}
 
count = 0;
818,6 → 832,8
if (!connector->encoder)
continue;
 
save_crtcs[count++] = connector->encoder->crtc;
 
if (connector->encoder->crtc == set->crtc)
new_crtc = NULL;
else
832,14 → 848,14
if (new_crtc &&
!drm_encoder_crtc_ok(connector->encoder, new_crtc)) {
ret = -EINVAL;
goto fail;
goto fail_set_mode;
}
if (new_crtc != connector->encoder->crtc) {
DRM_DEBUG_KMS("crtc changed, full mode switch\n");
DRM_DEBUG("crtc changed, full mode switch\n");
mode_changed = true;
connector->encoder->crtc = new_crtc;
}
DRM_DEBUG_KMS("setting connector %d crtc to %p\n",
DRM_DEBUG("setting connector %d crtc to %p\n",
connector->base.id, new_crtc);
}
 
852,8 → 868,7
set->crtc->fb = set->fb;
set->crtc->enabled = (set->mode != NULL);
if (set->mode != NULL) {
DRM_DEBUG_KMS("attempting to set mode from"
" userspace\n");
DRM_DEBUG("attempting to set mode from userspace\n");
drm_mode_debug_printmodeline(set->mode);
if (!drm_crtc_helper_set_mode(set->crtc, set->mode,
set->x, set->y,
861,7 → 876,7
DRM_ERROR("failed to set mode on crtc %p\n",
set->crtc);
ret = -EINVAL;
goto fail;
goto fail_set_mode;
}
/* TODO are these needed? */
set->crtc->desired_x = set->x;
870,9 → 885,6
}
drm_helper_disable_unused_functions(dev);
} else if (fb_changed) {
set->crtc->x = set->x;
set->crtc->y = set->y;
 
old_fb = set->crtc->fb;
if (set->crtc->fb != set->fb)
set->crtc->fb = set->fb;
879,34 → 891,30
ret = crtc_funcs->mode_set_base(set->crtc,
set->x, set->y, old_fb);
if (ret != 0)
goto fail;
goto fail_set_mode;
}
 
kfree(save_connectors);
kfree(save_encoders);
kfree(save_crtcs);
return 0;
 
fail:
/* Restore all previous data. */
fail_set_mode:
set->crtc->enabled = save_enabled;
set->crtc->fb = old_fb;
count = 0;
list_for_each_entry(crtc, &dev->mode_config.crtc_list, head) {
*crtc = save_crtcs[count++];
}
list_for_each_entry(connector, &dev->mode_config.connector_list, head) {
if (!connector->encoder)
continue;
 
count = 0;
list_for_each_entry(encoder, &dev->mode_config.encoder_list, head) {
*encoder = save_encoders[count++];
connector->encoder->crtc = save_crtcs[count++];
}
 
fail_no_encoder:
kfree(save_crtcs);
count = 0;
list_for_each_entry(connector, &dev->mode_config.connector_list, head) {
*connector = save_connectors[count++];
connector->encoder = save_encoders[count++];
}
 
kfree(save_connectors);
kfree(save_encoders);
kfree(save_crtcs);
return ret;
}
EXPORT_SYMBOL(drm_crtc_helper_set_config);
913,7 → 921,7
 
bool drm_helper_plugged_event(struct drm_device *dev)
{
DRM_DEBUG_KMS("\n");
DRM_DEBUG("\n");
 
drm_helper_probe_connector_modes(dev, dev->mode_config.max_width,
dev->mode_config.max_height);
942,22 → 950,36
*/
bool drm_helper_initial_config(struct drm_device *dev)
{
struct drm_connector *connector;
int count = 0;
 
ENTRY();
 
count = drm_helper_probe_connector_modes(dev,
dev->mode_config.max_width,
dev->mode_config.max_height);
 
/*
* we shouldn't end up with no modes here.
* None of the available connectors had any modes, so add some
* and try to light them up anyway
*/
// WARN(!count, "Connected connector with 0 modes\n");
if (!count) {
DRM_ERROR("connectors have no modes, using standard modes\n");
list_for_each_entry(connector,
&dev->mode_config.connector_list,
head)
drm_helper_add_std_modes(dev, connector);
}
 
drm_setup_crtcs(dev);
 
/* alert the driver fb layer */
radeonfb_create(dev->dev_private, 1280, 1024, 1280, 1024, NULL);
 
// /* alert the driver fb layer */
dev->mode_config.funcs->fb_changed(dev);
 
LEAVE();
 
return 0;
}
EXPORT_SYMBOL(drm_helper_initial_config);
1078,13 → 1100,15
}
EXPORT_SYMBOL(drm_helper_mode_fill_fb_struct);
 
void sysSetScreen(int width, int height, int pitch)
void sysSetScreen(int width, int height)
{
asm __volatile__
(
"decl %%eax \n\t"
"dec %%edx \n\t"
"call *__imp__SetScreen"
:
:"a" (width-1),"d"(height-1), "c"(pitch)
:"a" (width),"d"(height)
:"memory","cc"
);
}
1093,21 → 1117,33
int drm_helper_resume_force_mode(struct drm_device *dev)
{
struct drm_crtc *crtc;
struct drm_framebuffer *fb;
 
int ret;
 
ENTRY();
 
list_for_each_entry(crtc, &dev->mode_config.crtc_list, head) {
 
if (!crtc->enabled)
continue;
dbgprintf("mode %x x %x y %x fb %x\n",
crtc->x, crtc->y, crtc->fb, crtc->mode);
 
ret = drm_crtc_helper_set_mode(crtc, &crtc->mode,
fb = list_first_entry(&dev->mode_config.fb_kernel_list, struct drm_framebuffer, filp_head);
 
crtc->fb = fb;
 
ret = drm_crtc_helper_set_mode(crtc, crtc->desired_mode,
crtc->x, crtc->y, crtc->fb);
 
if (ret == false)
DRM_ERROR("failed to set mode on crtc %p\n", crtc);
 
sysSetScreen(1280,1024);
 
}
/* disable the unused connectors while restoring the modesetting */
drm_helper_disable_unused_functions(dev);
LEAVE();
return 0;
}
EXPORT_SYMBOL(drm_helper_resume_force_mode);
/drivers/video/drm/drm_mm.c
44,7 → 44,6
#include "drmP.h"
#include "drm_mm.h"
//#include <linux/slab.h>
#include <linux/seq_file.h>
 
#define MM_UNUSED_TARGET 4
 
/drivers/video/drm/idr.c
27,10 → 27,6
*/
 
#include <linux/idr.h>
#include <stdlib.h>
#include "drm.h"
#include "drmP.h"
#include "drm_crtc.h"
 
#define ADDR "=m" (*(volatile long *) addr)
 
422,6 → 418,7
int idr_get_new_above(struct idr *idp, void *ptr, int starting_id, int *id)
{
int rv;
 
rv = idr_get_new_above_int(idp, ptr, starting_id);
/*
* This is a cheap hack until the IDR code can be fixed to
428,10 → 425,7
* return proper error values.
*/
if (rv < 0)
{
dbgprintf("fail\n");
return _idr_rc_to_errno(rv);
};
*id = rv;
return 0;
}
/drivers/video/drm/drm_edid.c
30,11 → 30,15
#include <types.h>
#include <list.h>
 
#include <linux/idr.h>
#include <linux/i2c.h>
#include <linux/i2c-algo-bit.h>
#include "drmP.h"
#include "drm_edid.h"
 
 
 
 
/*
* TODO:
* - support EDID 1.4 (incl. CE blocks)
63,13 → 67,7
#define EDID_QUIRK_FIRST_DETAILED_PREFERRED (1 << 5)
/* use +hsync +vsync for detailed mode */
#define EDID_QUIRK_DETAILED_SYNC_PP (1 << 6)
/* define the number of Extension EDID block */
#define MAX_EDID_EXT_NUM 4
 
#define LEVEL_DMT 0
#define LEVEL_GTF 1
#define LEVEL_CVT 2
 
static struct edid_quirk {
char *vendor;
int product_id;
246,263 → 244,6
preferred_mode->type |= DRM_MODE_TYPE_PREFERRED;
}
 
/*
* Add the Autogenerated from the DMT spec.
* This table is copied from xfree86/modes/xf86EdidModes.c.
* But the mode with Reduced blank feature is deleted.
*/
static struct drm_display_mode drm_dmt_modes[] = {
/* 640x350@85Hz */
{ DRM_MODE("640x350", DRM_MODE_TYPE_DRIVER, 31500, 640, 672,
736, 832, 0, 350, 382, 385, 445, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_NVSYNC) },
/* 640x400@85Hz */
{ DRM_MODE("640x400", DRM_MODE_TYPE_DRIVER, 31500, 640, 672,
736, 832, 0, 400, 401, 404, 445, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 720x400@85Hz */
{ DRM_MODE("720x400", DRM_MODE_TYPE_DRIVER, 35500, 720, 756,
828, 936, 0, 400, 401, 404, 446, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 640x480@60Hz */
{ DRM_MODE("640x480", DRM_MODE_TYPE_DRIVER, 25175, 640, 656,
752, 800, 0, 480, 489, 492, 525, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_NVSYNC) },
/* 640x480@72Hz */
{ DRM_MODE("640x480", DRM_MODE_TYPE_DRIVER, 31500, 640, 664,
704, 832, 0, 480, 489, 492, 520, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_NVSYNC) },
/* 640x480@75Hz */
{ DRM_MODE("640x480", DRM_MODE_TYPE_DRIVER, 31500, 640, 656,
720, 840, 0, 480, 481, 484, 500, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_NVSYNC) },
/* 640x480@85Hz */
{ DRM_MODE("640x480", DRM_MODE_TYPE_DRIVER, 36000, 640, 696,
752, 832, 0, 480, 481, 484, 509, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_NVSYNC) },
/* 800x600@56Hz */
{ DRM_MODE("800x600", DRM_MODE_TYPE_DRIVER, 36000, 800, 824,
896, 1024, 0, 600, 601, 603, 625, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 800x600@60Hz */
{ DRM_MODE("800x600", DRM_MODE_TYPE_DRIVER, 40000, 800, 840,
968, 1056, 0, 600, 601, 605, 628, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 800x600@72Hz */
{ DRM_MODE("800x600", DRM_MODE_TYPE_DRIVER, 50000, 800, 856,
976, 1040, 0, 600, 637, 643, 666, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 800x600@75Hz */
{ DRM_MODE("800x600", DRM_MODE_TYPE_DRIVER, 49500, 800, 816,
896, 1056, 0, 600, 601, 604, 625, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 800x600@85Hz */
{ DRM_MODE("800x600", DRM_MODE_TYPE_DRIVER, 56250, 800, 832,
896, 1048, 0, 600, 601, 604, 631, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 848x480@60Hz */
{ DRM_MODE("848x480", DRM_MODE_TYPE_DRIVER, 33750, 848, 864,
976, 1088, 0, 480, 486, 494, 517, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1024x768@43Hz, interlace */
{ DRM_MODE("1024x768", DRM_MODE_TYPE_DRIVER, 44900, 1024, 1032,
1208, 1264, 0, 768, 768, 772, 817, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC |
DRM_MODE_FLAG_INTERLACE) },
/* 1024x768@60Hz */
{ DRM_MODE("1024x768", DRM_MODE_TYPE_DRIVER, 65000, 1024, 1048,
1184, 1344, 0, 768, 771, 777, 806, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_NVSYNC) },
/* 1024x768@70Hz */
{ DRM_MODE("1024x768", DRM_MODE_TYPE_DRIVER, 75000, 1024, 1048,
1184, 1328, 0, 768, 771, 777, 806, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_NVSYNC) },
/* 1024x768@75Hz */
{ DRM_MODE("1024x768", DRM_MODE_TYPE_DRIVER, 78750, 1024, 1040,
1136, 1312, 0, 768, 769, 772, 800, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1024x768@85Hz */
{ DRM_MODE("1024x768", DRM_MODE_TYPE_DRIVER, 94500, 1024, 1072,
1072, 1376, 0, 768, 769, 772, 808, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1152x864@75Hz */
{ DRM_MODE("1152x864", DRM_MODE_TYPE_DRIVER, 108000, 1152, 1216,
1344, 1600, 0, 864, 865, 868, 900, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1280x768@60Hz */
{ DRM_MODE("1280x768", DRM_MODE_TYPE_DRIVER, 79500, 1280, 1344,
1472, 1664, 0, 768, 771, 778, 798, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1280x768@75Hz */
{ DRM_MODE("1280x768", DRM_MODE_TYPE_DRIVER, 102250, 1280, 1360,
1488, 1696, 0, 768, 771, 778, 805, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_NVSYNC) },
/* 1280x768@85Hz */
{ DRM_MODE("1280x768", DRM_MODE_TYPE_DRIVER, 117500, 1280, 1360,
1496, 1712, 0, 768, 771, 778, 809, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1280x800@60Hz */
{ DRM_MODE("1280x800", DRM_MODE_TYPE_DRIVER, 83500, 1280, 1352,
1480, 1680, 0, 800, 803, 809, 831, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_NVSYNC) },
/* 1280x800@75Hz */
{ DRM_MODE("1280x800", DRM_MODE_TYPE_DRIVER, 106500, 1280, 1360,
1488, 1696, 0, 800, 803, 809, 838, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1280x800@85Hz */
{ DRM_MODE("1280x800", DRM_MODE_TYPE_DRIVER, 122500, 1280, 1360,
1496, 1712, 0, 800, 803, 809, 843, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1280x960@60Hz */
{ DRM_MODE("1280x960", DRM_MODE_TYPE_DRIVER, 108000, 1280, 1376,
1488, 1800, 0, 960, 961, 964, 1000, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1280x960@85Hz */
{ DRM_MODE("1280x960", DRM_MODE_TYPE_DRIVER, 148500, 1280, 1344,
1504, 1728, 0, 960, 961, 964, 1011, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1280x1024@60Hz */
{ DRM_MODE("1280x1024", DRM_MODE_TYPE_DRIVER, 108000, 1280, 1328,
1440, 1688, 0, 1024, 1025, 1028, 1066, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1280x1024@75Hz */
{ DRM_MODE("1280x1024", DRM_MODE_TYPE_DRIVER, 135000, 1280, 1296,
1440, 1688, 0, 1024, 1025, 1028, 1066, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1280x1024@85Hz */
{ DRM_MODE("1280x1024", DRM_MODE_TYPE_DRIVER, 157500, 1280, 1344,
1504, 1728, 0, 1024, 1025, 1028, 1072, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1360x768@60Hz */
{ DRM_MODE("1360x768", DRM_MODE_TYPE_DRIVER, 85500, 1360, 1424,
1536, 1792, 0, 768, 771, 777, 795, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1440x1050@60Hz */
{ DRM_MODE("1400x1050", DRM_MODE_TYPE_DRIVER, 121750, 1400, 1488,
1632, 1864, 0, 1050, 1053, 1057, 1089, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1440x1050@75Hz */
{ DRM_MODE("1400x1050", DRM_MODE_TYPE_DRIVER, 156000, 1400, 1504,
1648, 1896, 0, 1050, 1053, 1057, 1099, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1440x1050@85Hz */
{ DRM_MODE("1400x1050", DRM_MODE_TYPE_DRIVER, 179500, 1400, 1504,
1656, 1912, 0, 1050, 1053, 1057, 1105, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1440x900@60Hz */
{ DRM_MODE("1440x900", DRM_MODE_TYPE_DRIVER, 106500, 1440, 1520,
1672, 1904, 0, 900, 903, 909, 934, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1440x900@75Hz */
{ DRM_MODE("1440x900", DRM_MODE_TYPE_DRIVER, 136750, 1440, 1536,
1688, 1936, 0, 900, 903, 909, 942, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1440x900@85Hz */
{ DRM_MODE("1440x900", DRM_MODE_TYPE_DRIVER, 157000, 1440, 1544,
1696, 1952, 0, 900, 903, 909, 948, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1600x1200@60Hz */
{ DRM_MODE("1600x1200", DRM_MODE_TYPE_DRIVER, 162000, 1600, 1664,
1856, 2160, 0, 1200, 1201, 1204, 1250, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1600x1200@65Hz */
{ DRM_MODE("1600x1200", DRM_MODE_TYPE_DRIVER, 175500, 1600, 1664,
1856, 2160, 0, 1200, 1201, 1204, 1250, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1600x1200@70Hz */
{ DRM_MODE("1600x1200", DRM_MODE_TYPE_DRIVER, 189000, 1600, 1664,
1856, 2160, 0, 1200, 1201, 1204, 1250, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1600x1200@75Hz */
{ DRM_MODE("1600x1200", DRM_MODE_TYPE_DRIVER, 2025000, 1600, 1664,
1856, 2160, 0, 1200, 1201, 1204, 1250, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1600x1200@85Hz */
{ DRM_MODE("1600x1200", DRM_MODE_TYPE_DRIVER, 229500, 1600, 1664,
1856, 2160, 0, 1200, 1201, 1204, 1250, 0,
DRM_MODE_FLAG_PHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1680x1050@60Hz */
{ DRM_MODE("1680x1050", DRM_MODE_TYPE_DRIVER, 146250, 1680, 1784,
1960, 2240, 0, 1050, 1053, 1059, 1089, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1680x1050@75Hz */
{ DRM_MODE("1680x1050", DRM_MODE_TYPE_DRIVER, 187000, 1680, 1800,
1976, 2272, 0, 1050, 1053, 1059, 1099, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1680x1050@85Hz */
{ DRM_MODE("1680x1050", DRM_MODE_TYPE_DRIVER, 214750, 1680, 1808,
1984, 2288, 0, 1050, 1053, 1059, 1105, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1792x1344@60Hz */
{ DRM_MODE("1792x1344", DRM_MODE_TYPE_DRIVER, 204750, 1792, 1920,
2120, 2448, 0, 1344, 1345, 1348, 1394, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1729x1344@75Hz */
{ DRM_MODE("1792x1344", DRM_MODE_TYPE_DRIVER, 261000, 1792, 1888,
2104, 2456, 0, 1344, 1345, 1348, 1417, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1853x1392@60Hz */
{ DRM_MODE("1856x1392", DRM_MODE_TYPE_DRIVER, 218250, 1856, 1952,
2176, 2528, 0, 1392, 1393, 1396, 1439, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1856x1392@75Hz */
{ DRM_MODE("1856x1392", DRM_MODE_TYPE_DRIVER, 288000, 1856, 1984,
2208, 2560, 0, 1392, 1395, 1399, 1500, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1920x1200@60Hz */
{ DRM_MODE("1920x1200", DRM_MODE_TYPE_DRIVER, 193250, 1920, 2056,
2256, 2592, 0, 1200, 1203, 1209, 1245, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1920x1200@75Hz */
{ DRM_MODE("1920x1200", DRM_MODE_TYPE_DRIVER, 245250, 1920, 2056,
2264, 2608, 0, 1200, 1203, 1209, 1255, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1920x1200@85Hz */
{ DRM_MODE("1920x1200", DRM_MODE_TYPE_DRIVER, 281250, 1920, 2064,
2272, 2624, 0, 1200, 1203, 1209, 1262, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1920x1440@60Hz */
{ DRM_MODE("1920x1440", DRM_MODE_TYPE_DRIVER, 234000, 1920, 2048,
2256, 2600, 0, 1440, 1441, 1444, 1500, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 1920x1440@75Hz */
{ DRM_MODE("1920x1440", DRM_MODE_TYPE_DRIVER, 297000, 1920, 2064,
2288, 2640, 0, 1440, 1441, 1444, 1500, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 2560x1600@60Hz */
{ DRM_MODE("2560x1600", DRM_MODE_TYPE_DRIVER, 348500, 2560, 2752,
3032, 3504, 0, 1600, 1603, 1609, 1658, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 2560x1600@75HZ */
{ DRM_MODE("2560x1600", DRM_MODE_TYPE_DRIVER, 443250, 2560, 2768,
3048, 3536, 0, 1600, 1603, 1609, 1672, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
/* 2560x1600@85HZ */
{ DRM_MODE("2560x1600", DRM_MODE_TYPE_DRIVER, 505250, 2560, 2768,
3048, 3536, 0, 1600, 1603, 1609, 1682, 0,
DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC) },
};
 
static struct drm_display_mode *drm_find_dmt(struct drm_device *dev,
int hsize, int vsize, int fresh)
{
int i, count;
struct drm_display_mode *ptr, *mode;
 
count = sizeof(drm_dmt_modes) / sizeof(struct drm_display_mode);
mode = NULL;
for (i = 0; i < count; i++) {
ptr = &drm_dmt_modes[i];
if (hsize == ptr->hdisplay &&
vsize == ptr->vdisplay &&
fresh == drm_mode_vrefresh(ptr)) {
/* get the expected default mode */
mode = drm_mode_duplicate(dev, ptr);
break;
}
}
return mode;
}
/**
* drm_mode_std - convert standard mode info (width, height, refresh) into mode
* @t: standard timing params
514,22 → 255,16
* generation code.
*/
struct drm_display_mode *drm_mode_std(struct drm_device *dev,
struct std_timing *t,
int timing_level)
struct std_timing *t)
{
struct drm_display_mode *mode;
int hsize, vsize;
int vrefresh_rate;
int hsize = t->hsize * 8 + 248, vsize;
unsigned aspect_ratio = (t->vfreq_aspect & EDID_TIMING_ASPECT_MASK)
>> EDID_TIMING_ASPECT_SHIFT;
unsigned vfreq = (t->vfreq_aspect & EDID_TIMING_VFREQ_MASK)
>> EDID_TIMING_VFREQ_SHIFT;
 
/* According to the EDID spec, the hdisplay = hsize * 8 + 248 */
hsize = t->hsize * 8 + 248;
/* vrefresh_rate = vfreq + 60 */
vrefresh_rate = vfreq + 60;
/* the vdisplay is calculated based on the aspect ratio */
mode = drm_mode_create(dev);
if (!mode)
return NULL;
 
if (aspect_ratio == 0)
vsize = (hsize * 10) / 16;
539,30 → 274,9
vsize = (hsize * 4) / 5;
else
vsize = (hsize * 9) / 16;
/* HDTV hack */
if (hsize == 1360 && vsize == 765 && vrefresh_rate == 60) {
mode = drm_cvt_mode(dev, hsize, vsize, vrefresh_rate, 0, 0);
mode->hdisplay = 1366;
mode->vsync_start = mode->vsync_start - 1;
mode->vsync_end = mode->vsync_end - 1;
return mode;
}
mode = NULL;
/* check whether it can be found in default mode table */
mode = drm_find_dmt(dev, hsize, vsize, vrefresh_rate);
if (mode)
return mode;
 
switch (timing_level) {
case LEVEL_DMT:
break;
case LEVEL_GTF:
mode = drm_gtf_mode(dev, hsize, vsize, vrefresh_rate, 0, 0);
break;
case LEVEL_CVT:
mode = drm_cvt_mode(dev, hsize, vsize, vrefresh_rate, 0, 0);
break;
}
drm_mode_set_name(mode);
 
return mode;
}
 
744,19 → 458,6
 
return modes;
}
/**
* stanard_timing_level - get std. timing level(CVT/GTF/DMT)
* @edid: EDID block to scan
*/
static int standard_timing_level(struct edid *edid)
{
if (edid->revision >= 2) {
if (edid->revision >= 4 && (edid->features & DRM_EDID_FEATURE_DEFAULT_GTF))
return LEVEL_CVT;
return LEVEL_GTF;
}
return LEVEL_DMT;
}
 
/**
* add_standard_modes - get std. modes from EDID and add them
769,10 → 470,7
{
struct drm_device *dev = connector->dev;
int i, modes = 0;
int timing_level;
 
timing_level = standard_timing_level(edid);
 
for (i = 0; i < EDID_STD_TIMINGS; i++) {
struct std_timing *t = &edid->standard_timings[i];
struct drm_display_mode *newmode;
781,8 → 479,7
if (t->hsize == 1 && t->vfreq_aspect == 1)
continue;
 
newmode = drm_mode_std(dev, &edid->standard_timings[i],
timing_level);
newmode = drm_mode_std(dev, &edid->standard_timings[i]);
if (newmode) {
drm_mode_probed_add(connector, newmode);
modes++;
806,50 → 503,18
{
struct drm_device *dev = connector->dev;
int i, j, modes = 0;
int timing_level;
 
timing_level = standard_timing_level(edid);
 
for (i = 0; i < EDID_DETAILED_TIMINGS; i++) {
struct detailed_timing *timing = &edid->detailed_timings[i];
struct detailed_non_pixel *data = &timing->data.other_data;
struct drm_display_mode *newmode;
 
/* X server check is version 1.1 or higher */
if (edid->version == 1 && edid->revision >= 1 &&
!timing->pixel_clock) {
/* Other timing or info */
switch (data->type) {
case EDID_DETAIL_MONITOR_SERIAL:
break;
case EDID_DETAIL_MONITOR_STRING:
break;
case EDID_DETAIL_MONITOR_RANGE:
/* Get monitor range data */
break;
case EDID_DETAIL_MONITOR_NAME:
break;
case EDID_DETAIL_MONITOR_CPDATA:
break;
case EDID_DETAIL_STD_MODES:
/* Five modes per detailed section */
for (j = 0; j < 5; i++) {
struct std_timing *std;
struct drm_display_mode *newmode;
/* EDID up to and including 1.2 may put monitor info here */
if (edid->version == 1 && edid->revision < 3)
continue;
 
std = &data->data.timings[j];
newmode = drm_mode_std(dev, std,
timing_level);
if (newmode) {
drm_mode_probed_add(connector, newmode);
modes++;
}
}
break;
default:
break;
}
} else {
/* Detailed mode timing */
if (timing->pixel_clock) {
newmode = drm_mode_detailed(dev, edid, timing, quirks);
if (!newmode)
continue;
860,91 → 525,7
drm_mode_probed_add(connector, newmode);
 
modes++;
}
}
 
return modes;
}
/**
* add_detailed_mode_eedid - get detailed mode info from addtional timing
* EDID block
* @connector: attached connector
* @edid: EDID block to scan(It is only to get addtional timing EDID block)
* @quirks: quirks to apply
*
* Some of the detailed timing sections may contain mode information. Grab
* it and add it to the list.
*/
static int add_detailed_info_eedid(struct drm_connector *connector,
struct edid *edid, u32 quirks)
{
struct drm_device *dev = connector->dev;
int i, j, modes = 0;
char *edid_ext = NULL;
struct detailed_timing *timing;
struct detailed_non_pixel *data;
struct drm_display_mode *newmode;
int edid_ext_num;
int start_offset, end_offset;
int timing_level;
 
if (edid->version == 1 && edid->revision < 3) {
/* If the EDID version is less than 1.3, there is no
* extension EDID.
*/
return 0;
}
if (!edid->extensions) {
/* if there is no extension EDID, it is unnecessary to
* parse the E-EDID to get detailed info
*/
return 0;
}
 
/* Chose real EDID extension number */
edid_ext_num = edid->extensions > MAX_EDID_EXT_NUM ?
MAX_EDID_EXT_NUM : edid->extensions;
 
/* Find CEA extension */
for (i = 0; i < edid_ext_num; i++) {
edid_ext = (char *)edid + EDID_LENGTH * (i + 1);
/* This block is CEA extension */
if (edid_ext[0] == 0x02)
break;
}
 
if (i == edid_ext_num) {
/* if there is no additional timing EDID block, return */
return 0;
}
 
/* Get the start offset of detailed timing block */
start_offset = edid_ext[2];
if (start_offset == 0) {
/* If the start_offset is zero, it means that neither detailed
* info nor data block exist. In such case it is also
* unnecessary to parse the detailed timing info.
*/
return 0;
}
 
timing_level = standard_timing_level(edid);
end_offset = EDID_LENGTH;
end_offset -= sizeof(struct detailed_timing);
for (i = start_offset; i < end_offset;
i += sizeof(struct detailed_timing)) {
timing = (struct detailed_timing *)(edid_ext + i);
data = &timing->data.other_data;
/* Detailed mode timing */
if (timing->pixel_clock) {
newmode = drm_mode_detailed(dev, edid, timing, quirks);
if (!newmode)
continue;
 
drm_mode_probed_add(connector, newmode);
 
modes++;
continue;
}
 
/* Other timing or info */
967,7 → 548,7
struct drm_display_mode *newmode;
 
std = &data->data.timings[j];
newmode = drm_mode_std(dev, std, timing_level);
newmode = drm_mode_std(dev, std);
if (newmode) {
drm_mode_probed_add(connector, newmode);
modes++;
1027,6 → 608,8
 
ret = drm_do_probe_ddc_edid(adapter, buf, len);
if (ret != 0) {
// dev_info(&connector->dev->pdev->dev, "%s: no EDID data\n",
// drm_get_connector_name(connector));
goto end;
}
if (!edid_is_valid((struct edid *)buf)) {
1038,6 → 621,7
return ret;
}
 
#define MAX_EDID_EXT_NUM 4
/**
* drm_get_edid - get EDID data, if available
* @connector: connector we're probing
1190,7 → 774,6
num_modes += add_established_modes(connector, edid);
num_modes += add_standard_modes(connector, edid);
num_modes += add_detailed_info(connector, edid, quirks);
num_modes += add_detailed_info_eedid(connector, edid, quirks);
 
if (quirks & (EDID_QUIRK_PREFER_LARGE_60 | EDID_QUIRK_PREFER_LARGE_75))
edid_fixup_preferred(connector, quirks);
1216,49 → 799,3
return num_modes;
}
EXPORT_SYMBOL(drm_add_edid_modes);
 
/**
* drm_add_modes_noedid - add modes for the connectors without EDID
* @connector: connector we're probing
* @hdisplay: the horizontal display limit
* @vdisplay: the vertical display limit
*
* Add the specified modes to the connector's mode list. Only when the
* hdisplay/vdisplay is not beyond the given limit, it will be added.
*
* Return number of modes added or 0 if we couldn't find any.
*/
int drm_add_modes_noedid(struct drm_connector *connector,
int hdisplay, int vdisplay)
{
int i, count, num_modes = 0;
struct drm_display_mode *mode, *ptr;
struct drm_device *dev = connector->dev;
 
count = sizeof(drm_dmt_modes) / sizeof(struct drm_display_mode);
if (hdisplay < 0)
hdisplay = 0;
if (vdisplay < 0)
vdisplay = 0;
 
for (i = 0; i < count; i++) {
ptr = &drm_dmt_modes[i];
if (hdisplay && vdisplay) {
/*
* Only when two are valid, they will be used to check
* whether the mode should be added to the mode list of
* the connector.
*/
if (ptr->hdisplay > hdisplay ||
ptr->vdisplay > vdisplay)
continue;
}
mode = drm_mode_duplicate(dev, ptr);
if (mode) {
drm_mode_probed_add(connector, mode);
num_modes++;
}
}
return num_modes;
}
EXPORT_SYMBOL(drm_add_modes_noedid);
/drivers/video/drm/drm_modes.c
8,8 → 8,6
* Copyright © 2007 Dave Airlie
* Copyright © 2007-2008 Intel Corporation
* Jesse Barnes <jesse.barnes@intel.com>
* Copyright 2005-2006 Luc Verhaegen
* Copyright (c) 2001, Andy Ritger aritger@nvidia.com
*
* Permission is hereby granted, free of charge, to any person obtaining a
* copy of this software and associated documentation files (the "Software"),
35,11 → 33,12
* authorization from the copyright holder(s) and author(s).
*/
 
#include <linux/list.h>
#include <list.h>
#include "drmP.h"
#include "drm.h"
#include "drm_crtc.h"
 
#define DRM_MODESET_DEBUG "drm_mode"
/**
* drm_mode_debug_printmodeline - debug print a mode
* @dev: DRM device
52,8 → 51,8
*/
void drm_mode_debug_printmodeline(struct drm_display_mode *mode)
{
DRM_DEBUG_KMS("Modeline %d:\"%s\" %d %d %d %d %d %d %d %d %d %d "
"0x%x 0x%x\n",
DRM_DEBUG_MODE(DRM_MODESET_DEBUG,
"Modeline %d:\"%s\" %d %d %d %d %d %d %d %d %d %d 0x%x 0x%x\n",
mode->base.id, mode->name, mode->vrefresh, mode->clock,
mode->hdisplay, mode->hsync_start,
mode->hsync_end, mode->htotal,
63,420 → 62,6
EXPORT_SYMBOL(drm_mode_debug_printmodeline);
 
/**
* drm_cvt_mode -create a modeline based on CVT algorithm
* @dev: DRM device
* @hdisplay: hdisplay size
* @vdisplay: vdisplay size
* @vrefresh : vrefresh rate
* @reduced : Whether the GTF calculation is simplified
* @interlaced:Whether the interlace is supported
*
* LOCKING:
* none.
*
* return the modeline based on CVT algorithm
*
* This function is called to generate the modeline based on CVT algorithm
* according to the hdisplay, vdisplay, vrefresh.
* It is based from the VESA(TM) Coordinated Video Timing Generator by
* Graham Loveridge April 9, 2003 available at
* http://www.vesa.org/public/CVT/CVTd6r1.xls
*
* And it is copied from xf86CVTmode in xserver/hw/xfree86/modes/xf86cvt.c.
* What I have done is to translate it by using integer calculation.
*/
#define HV_FACTOR 1000
struct drm_display_mode *drm_cvt_mode(struct drm_device *dev, int hdisplay,
int vdisplay, int vrefresh,
bool reduced, bool interlaced)
{
/* 1) top/bottom margin size (% of height) - default: 1.8, */
#define CVT_MARGIN_PERCENTAGE 18
/* 2) character cell horizontal granularity (pixels) - default 8 */
#define CVT_H_GRANULARITY 8
/* 3) Minimum vertical porch (lines) - default 3 */
#define CVT_MIN_V_PORCH 3
/* 4) Minimum number of vertical back porch lines - default 6 */
#define CVT_MIN_V_BPORCH 6
/* Pixel Clock step (kHz) */
#define CVT_CLOCK_STEP 250
struct drm_display_mode *drm_mode;
bool margins = false;
unsigned int vfieldrate, hperiod;
int hdisplay_rnd, hmargin, vdisplay_rnd, vmargin, vsync;
int interlace;
 
/* allocate the drm_display_mode structure. If failure, we will
* return directly
*/
drm_mode = drm_mode_create(dev);
if (!drm_mode)
return NULL;
 
/* the CVT default refresh rate is 60Hz */
if (!vrefresh)
vrefresh = 60;
 
/* the required field fresh rate */
if (interlaced)
vfieldrate = vrefresh * 2;
else
vfieldrate = vrefresh;
 
/* horizontal pixels */
hdisplay_rnd = hdisplay - (hdisplay % CVT_H_GRANULARITY);
 
/* determine the left&right borders */
hmargin = 0;
if (margins) {
hmargin = hdisplay_rnd * CVT_MARGIN_PERCENTAGE / 1000;
hmargin -= hmargin % CVT_H_GRANULARITY;
}
/* find the total active pixels */
drm_mode->hdisplay = hdisplay_rnd + 2 * hmargin;
 
/* find the number of lines per field */
if (interlaced)
vdisplay_rnd = vdisplay / 2;
else
vdisplay_rnd = vdisplay;
 
/* find the top & bottom borders */
vmargin = 0;
if (margins)
vmargin = vdisplay_rnd * CVT_MARGIN_PERCENTAGE / 1000;
 
drm_mode->vdisplay = vdisplay + 2 * vmargin;
 
/* Interlaced */
if (interlaced)
interlace = 1;
else
interlace = 0;
 
/* Determine VSync Width from aspect ratio */
if (!(vdisplay % 3) && ((vdisplay * 4 / 3) == hdisplay))
vsync = 4;
else if (!(vdisplay % 9) && ((vdisplay * 16 / 9) == hdisplay))
vsync = 5;
else if (!(vdisplay % 10) && ((vdisplay * 16 / 10) == hdisplay))
vsync = 6;
else if (!(vdisplay % 4) && ((vdisplay * 5 / 4) == hdisplay))
vsync = 7;
else if (!(vdisplay % 9) && ((vdisplay * 15 / 9) == hdisplay))
vsync = 7;
else /* custom */
vsync = 10;
 
if (!reduced) {
/* simplify the GTF calculation */
/* 4) Minimum time of vertical sync + back porch interval (µs)
* default 550.0
*/
int tmp1, tmp2;
#define CVT_MIN_VSYNC_BP 550
/* 3) Nominal HSync width (% of line period) - default 8 */
#define CVT_HSYNC_PERCENTAGE 8
unsigned int hblank_percentage;
int vsyncandback_porch, vback_porch, hblank;
 
/* estimated the horizontal period */
tmp1 = HV_FACTOR * 1000000 -
CVT_MIN_VSYNC_BP * HV_FACTOR * vfieldrate;
tmp2 = (vdisplay_rnd + 2 * vmargin + CVT_MIN_V_PORCH) * 2 +
interlace;
hperiod = tmp1 * 2 / (tmp2 * vfieldrate);
 
tmp1 = CVT_MIN_VSYNC_BP * HV_FACTOR / hperiod + 1;
/* 9. Find number of lines in sync + backporch */
if (tmp1 < (vsync + CVT_MIN_V_PORCH))
vsyncandback_porch = vsync + CVT_MIN_V_PORCH;
else
vsyncandback_porch = tmp1;
/* 10. Find number of lines in back porch */
vback_porch = vsyncandback_porch - vsync;
drm_mode->vtotal = vdisplay_rnd + 2 * vmargin +
vsyncandback_porch + CVT_MIN_V_PORCH;
/* 5) Definition of Horizontal blanking time limitation */
/* Gradient (%/kHz) - default 600 */
#define CVT_M_FACTOR 600
/* Offset (%) - default 40 */
#define CVT_C_FACTOR 40
/* Blanking time scaling factor - default 128 */
#define CVT_K_FACTOR 128
/* Scaling factor weighting - default 20 */
#define CVT_J_FACTOR 20
#define CVT_M_PRIME (CVT_M_FACTOR * CVT_K_FACTOR / 256)
#define CVT_C_PRIME ((CVT_C_FACTOR - CVT_J_FACTOR) * CVT_K_FACTOR / 256 + \
CVT_J_FACTOR)
/* 12. Find ideal blanking duty cycle from formula */
hblank_percentage = CVT_C_PRIME * HV_FACTOR - CVT_M_PRIME *
hperiod / 1000;
/* 13. Blanking time */
if (hblank_percentage < 20 * HV_FACTOR)
hblank_percentage = 20 * HV_FACTOR;
hblank = drm_mode->hdisplay * hblank_percentage /
(100 * HV_FACTOR - hblank_percentage);
hblank -= hblank % (2 * CVT_H_GRANULARITY);
/* 14. find the total pixes per line */
drm_mode->htotal = drm_mode->hdisplay + hblank;
drm_mode->hsync_end = drm_mode->hdisplay + hblank / 2;
drm_mode->hsync_start = drm_mode->hsync_end -
(drm_mode->htotal * CVT_HSYNC_PERCENTAGE) / 100;
drm_mode->hsync_start += CVT_H_GRANULARITY -
drm_mode->hsync_start % CVT_H_GRANULARITY;
/* fill the Vsync values */
drm_mode->vsync_start = drm_mode->vdisplay + CVT_MIN_V_PORCH;
drm_mode->vsync_end = drm_mode->vsync_start + vsync;
} else {
/* Reduced blanking */
/* Minimum vertical blanking interval time (µs)- default 460 */
#define CVT_RB_MIN_VBLANK 460
/* Fixed number of clocks for horizontal sync */
#define CVT_RB_H_SYNC 32
/* Fixed number of clocks for horizontal blanking */
#define CVT_RB_H_BLANK 160
/* Fixed number of lines for vertical front porch - default 3*/
#define CVT_RB_VFPORCH 3
int vbilines;
int tmp1, tmp2;
/* 8. Estimate Horizontal period. */
tmp1 = HV_FACTOR * 1000000 -
CVT_RB_MIN_VBLANK * HV_FACTOR * vfieldrate;
tmp2 = vdisplay_rnd + 2 * vmargin;
hperiod = tmp1 / (tmp2 * vfieldrate);
/* 9. Find number of lines in vertical blanking */
vbilines = CVT_RB_MIN_VBLANK * HV_FACTOR / hperiod + 1;
/* 10. Check if vertical blanking is sufficient */
if (vbilines < (CVT_RB_VFPORCH + vsync + CVT_MIN_V_BPORCH))
vbilines = CVT_RB_VFPORCH + vsync + CVT_MIN_V_BPORCH;
/* 11. Find total number of lines in vertical field */
drm_mode->vtotal = vdisplay_rnd + 2 * vmargin + vbilines;
/* 12. Find total number of pixels in a line */
drm_mode->htotal = drm_mode->hdisplay + CVT_RB_H_BLANK;
/* Fill in HSync values */
drm_mode->hsync_end = drm_mode->hdisplay + CVT_RB_H_BLANK / 2;
drm_mode->hsync_start = drm_mode->hsync_end = CVT_RB_H_SYNC;
}
/* 15/13. Find pixel clock frequency (kHz for xf86) */
drm_mode->clock = drm_mode->htotal * HV_FACTOR * 1000 / hperiod;
drm_mode->clock -= drm_mode->clock % CVT_CLOCK_STEP;
/* 18/16. Find actual vertical frame frequency */
/* ignore - just set the mode flag for interlaced */
if (interlaced)
drm_mode->vtotal *= 2;
/* Fill the mode line name */
drm_mode_set_name(drm_mode);
if (reduced)
drm_mode->flags |= (DRM_MODE_FLAG_PHSYNC |
DRM_MODE_FLAG_NVSYNC);
else
drm_mode->flags |= (DRM_MODE_FLAG_PVSYNC |
DRM_MODE_FLAG_NHSYNC);
if (interlaced)
drm_mode->flags |= DRM_MODE_FLAG_INTERLACE;
 
return drm_mode;
}
EXPORT_SYMBOL(drm_cvt_mode);
 
/**
* drm_gtf_mode - create the modeline based on GTF algorithm
*
* @dev :drm device
* @hdisplay :hdisplay size
* @vdisplay :vdisplay size
* @vrefresh :vrefresh rate.
* @interlaced :whether the interlace is supported
* @margins :whether the margin is supported
*
* LOCKING.
* none.
*
* return the modeline based on GTF algorithm
*
* This function is to create the modeline based on the GTF algorithm.
* Generalized Timing Formula is derived from:
* GTF Spreadsheet by Andy Morrish (1/5/97)
* available at http://www.vesa.org
*
* And it is copied from the file of xserver/hw/xfree86/modes/xf86gtf.c.
* What I have done is to translate it by using integer calculation.
* I also refer to the function of fb_get_mode in the file of
* drivers/video/fbmon.c
*/
struct drm_display_mode *drm_gtf_mode(struct drm_device *dev, int hdisplay,
int vdisplay, int vrefresh,
bool interlaced, int margins)
{
/* 1) top/bottom margin size (% of height) - default: 1.8, */
#define GTF_MARGIN_PERCENTAGE 18
/* 2) character cell horizontal granularity (pixels) - default 8 */
#define GTF_CELL_GRAN 8
/* 3) Minimum vertical porch (lines) - default 3 */
#define GTF_MIN_V_PORCH 1
/* width of vsync in lines */
#define V_SYNC_RQD 3
/* width of hsync as % of total line */
#define H_SYNC_PERCENT 8
/* min time of vsync + back porch (microsec) */
#define MIN_VSYNC_PLUS_BP 550
/* blanking formula gradient */
#define GTF_M 600
/* blanking formula offset */
#define GTF_C 40
/* blanking formula scaling factor */
#define GTF_K 128
/* blanking formula scaling factor */
#define GTF_J 20
/* C' and M' are part of the Blanking Duty Cycle computation */
#define GTF_C_PRIME (((GTF_C - GTF_J) * GTF_K / 256) + GTF_J)
#define GTF_M_PRIME (GTF_K * GTF_M / 256)
struct drm_display_mode *drm_mode;
unsigned int hdisplay_rnd, vdisplay_rnd, vfieldrate_rqd;
int top_margin, bottom_margin;
int interlace;
unsigned int hfreq_est;
int vsync_plus_bp, vback_porch;
unsigned int vtotal_lines, vfieldrate_est, hperiod;
unsigned int vfield_rate, vframe_rate;
int left_margin, right_margin;
unsigned int total_active_pixels, ideal_duty_cycle;
unsigned int hblank, total_pixels, pixel_freq;
int hsync, hfront_porch, vodd_front_porch_lines;
unsigned int tmp1, tmp2;
 
drm_mode = drm_mode_create(dev);
if (!drm_mode)
return NULL;
 
/* 1. In order to give correct results, the number of horizontal
* pixels requested is first processed to ensure that it is divisible
* by the character size, by rounding it to the nearest character
* cell boundary:
*/
hdisplay_rnd = (hdisplay + GTF_CELL_GRAN / 2) / GTF_CELL_GRAN;
hdisplay_rnd = hdisplay_rnd * GTF_CELL_GRAN;
 
/* 2. If interlace is requested, the number of vertical lines assumed
* by the calculation must be halved, as the computation calculates
* the number of vertical lines per field.
*/
if (interlaced)
vdisplay_rnd = vdisplay / 2;
else
vdisplay_rnd = vdisplay;
 
/* 3. Find the frame rate required: */
if (interlaced)
vfieldrate_rqd = vrefresh * 2;
else
vfieldrate_rqd = vrefresh;
 
/* 4. Find number of lines in Top margin: */
top_margin = 0;
if (margins)
top_margin = (vdisplay_rnd * GTF_MARGIN_PERCENTAGE + 500) /
1000;
/* 5. Find number of lines in bottom margin: */
bottom_margin = top_margin;
 
/* 6. If interlace is required, then set variable interlace: */
if (interlaced)
interlace = 1;
else
interlace = 0;
 
/* 7. Estimate the Horizontal frequency */
{
tmp1 = (1000000 - MIN_VSYNC_PLUS_BP * vfieldrate_rqd) / 500;
tmp2 = (vdisplay_rnd + 2 * top_margin + GTF_MIN_V_PORCH) *
2 + interlace;
hfreq_est = (tmp2 * 1000 * vfieldrate_rqd) / tmp1;
}
 
/* 8. Find the number of lines in V sync + back porch */
/* [V SYNC+BP] = RINT(([MIN VSYNC+BP] * hfreq_est / 1000000)) */
vsync_plus_bp = MIN_VSYNC_PLUS_BP * hfreq_est / 1000;
vsync_plus_bp = (vsync_plus_bp + 500) / 1000;
/* 9. Find the number of lines in V back porch alone: */
vback_porch = vsync_plus_bp - V_SYNC_RQD;
/* 10. Find the total number of lines in Vertical field period: */
vtotal_lines = vdisplay_rnd + top_margin + bottom_margin +
vsync_plus_bp + GTF_MIN_V_PORCH;
/* 11. Estimate the Vertical field frequency: */
vfieldrate_est = hfreq_est / vtotal_lines;
/* 12. Find the actual horizontal period: */
hperiod = 1000000 / (vfieldrate_rqd * vtotal_lines);
 
/* 13. Find the actual Vertical field frequency: */
vfield_rate = hfreq_est / vtotal_lines;
/* 14. Find the Vertical frame frequency: */
if (interlaced)
vframe_rate = vfield_rate / 2;
else
vframe_rate = vfield_rate;
/* 15. Find number of pixels in left margin: */
if (margins)
left_margin = (hdisplay_rnd * GTF_MARGIN_PERCENTAGE + 500) /
1000;
else
left_margin = 0;
 
/* 16.Find number of pixels in right margin: */
right_margin = left_margin;
/* 17.Find total number of active pixels in image and left and right */
total_active_pixels = hdisplay_rnd + left_margin + right_margin;
/* 18.Find the ideal blanking duty cycle from blanking duty cycle */
ideal_duty_cycle = GTF_C_PRIME * 1000 -
(GTF_M_PRIME * 1000000 / hfreq_est);
/* 19.Find the number of pixels in the blanking time to the nearest
* double character cell: */
hblank = total_active_pixels * ideal_duty_cycle /
(100000 - ideal_duty_cycle);
hblank = (hblank + GTF_CELL_GRAN) / (2 * GTF_CELL_GRAN);
hblank = hblank * 2 * GTF_CELL_GRAN;
/* 20.Find total number of pixels: */
total_pixels = total_active_pixels + hblank;
/* 21.Find pixel clock frequency: */
pixel_freq = total_pixels * hfreq_est / 1000;
/* Stage 1 computations are now complete; I should really pass
* the results to another function and do the Stage 2 computations,
* but I only need a few more values so I'll just append the
* computations here for now */
/* 17. Find the number of pixels in the horizontal sync period: */
hsync = H_SYNC_PERCENT * total_pixels / 100;
hsync = (hsync + GTF_CELL_GRAN / 2) / GTF_CELL_GRAN;
hsync = hsync * GTF_CELL_GRAN;
/* 18. Find the number of pixels in horizontal front porch period */
hfront_porch = hblank / 2 - hsync;
/* 36. Find the number of lines in the odd front porch period: */
vodd_front_porch_lines = GTF_MIN_V_PORCH ;
 
/* finally, pack the results in the mode struct */
drm_mode->hdisplay = hdisplay_rnd;
drm_mode->hsync_start = hdisplay_rnd + hfront_porch;
drm_mode->hsync_end = drm_mode->hsync_start + hsync;
drm_mode->htotal = total_pixels;
drm_mode->vdisplay = vdisplay_rnd;
drm_mode->vsync_start = vdisplay_rnd + vodd_front_porch_lines;
drm_mode->vsync_end = drm_mode->vsync_start + V_SYNC_RQD;
drm_mode->vtotal = vtotal_lines;
 
drm_mode->clock = pixel_freq;
 
drm_mode_set_name(drm_mode);
drm_mode->flags = DRM_MODE_FLAG_NHSYNC | DRM_MODE_FLAG_PVSYNC;
 
if (interlaced) {
drm_mode->vtotal *= 2;
drm_mode->flags |= DRM_MODE_FLAG_INTERLACE;
}
 
return drm_mode;
}
EXPORT_SYMBOL(drm_gtf_mode);
/**
* drm_mode_set_name - set the name on a mode
* @mode: name will be set in this mode
*
566,9 → 151,7
* FIXME: why is this needed? shouldn't vrefresh be set already?
*
* RETURNS:
* Vertical refresh rate. It will be the result of actual value plus 0.5.
* If it is 70.288, it will return 70Hz.
* If it is 59.6, it will return 60Hz.
* Vertical refresh rate of @mode x 1000. For precision reasons.
*/
int drm_mode_vrefresh(struct drm_display_mode *mode)
{
578,13 → 161,14
if (mode->vrefresh > 0)
refresh = mode->vrefresh;
else if (mode->htotal > 0 && mode->vtotal > 0) {
int vtotal;
vtotal = mode->vtotal;
/* work out vrefresh the value will be x1000 */
calc_val = (mode->clock * 1000);
 
calc_val /= mode->htotal;
refresh = (calc_val + vtotal / 2) / vtotal;
calc_val *= 1000;
calc_val /= mode->vtotal;
 
refresh = calc_val;
if (mode->flags & DRM_MODE_FLAG_INTERLACE)
refresh *= 2;
if (mode->flags & DRM_MODE_FLAG_DBLSCAN)
819,7 → 403,8
list_del(&mode->head);
if (verbose) {
drm_mode_debug_printmodeline(mode);
DRM_DEBUG_KMS("Not using %s mode %d\n",
DRM_DEBUG_MODE(DRM_MODESET_DEBUG,
"Not using %s mode %d\n",
mode->name, mode->status);
}
drm_mode_destroy(dev, mode);
981,8 → 566,6
found_it = 1;
/* if equal delete the probed mode */
mode->status = pmode->status;
/* Merge type bits together */
mode->type |= pmode->type;
list_del(&pmode->head);
drm_mode_destroy(connector->dev, pmode);
break;