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vdr-plugin-softhddevice/video.c
Johns 00cafd18ed Release Version 0.4.6.
2012-02-02 23:32:51 +01:00

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///
/// @file video.c @brief Video module
///
/// Copyright (c) 2009 - 2012 by Johns. All Rights Reserved.
///
/// Contributor(s):
///
/// License: AGPLv3
///
/// This program is free software: you can redistribute it and/or modify
/// it under the terms of the GNU Affero General Public License as
/// published by the Free Software Foundation, either version 3 of the
/// License.
///
/// This program is distributed in the hope that it will be useful,
/// but WITHOUT ANY WARRANTY; without even the implied warranty of
/// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
/// GNU Affero General Public License for more details.
///
/// $Id$
//////////////////////////////////////////////////////////////////////////////
///
/// @defgroup Video The video module.
///
/// This module contains all video rendering functions.
///
/// @todo disable screen saver support
///
/// Uses Xlib where it is needed for VA-API or vdpau. XCB is used for
/// everything else.
///
/// - X11
/// - OpenGL rendering
/// - OpenGL rendering with GLX texture-from-pixmap
/// - Xrender rendering
///
#define USE_XLIB_XCB ///< use xlib/xcb backend
#define USE_AUTOCROP ///< compile auto-crop support
#define USE_GRAB ///< experimental grab code
#define noUSE_GLX ///< outdated GLX code
#define noUSE_DOUBLEBUFFER ///< use GLX double buffers
//#define USE_VAAPI ///< enable vaapi support
//#define USE_VDPAU ///< enable vdpau support
#define noUSE_BITMAP ///< use vdpau bitmap surface
#define USE_VIDEO_THREAD ///< run decoder in an own thread
#include <sys/time.h>
#include <sys/shm.h>
#include <sys/ipc.h>
#include <stdio.h>
#include <stdlib.h>
#include <stdint.h>
#include <string.h>
#include <unistd.h>
#include <libintl.h>
#define _(str) gettext(str) ///< gettext shortcut
#define _N(str) str ///< gettext_noop shortcut
#include <alsa/iatomic.h> // portable atomic_t
#ifdef USE_VIDEO_THREAD
#ifndef __USE_GNU
#define __USE_GNU
#endif
#include <pthread.h>
#include <time.h>
#ifndef HAVE_PTHREAD_NAME
/// only available with newer glibc
#define pthread_setname_np(thread, name)
#endif
#endif
#ifdef USE_XLIB_XCB
#include <X11/Xlib-xcb.h>
#include <X11/Xlib.h>
#include <X11/Xutil.h>
#include <X11/keysym.h>
#include <xcb/xcb.h>
#include <xcb/bigreq.h>
#include <xcb/dpms.h>
#include <xcb/glx.h>
#include <xcb/randr.h>
#include <xcb/screensaver.h>
#include <xcb/shm.h>
#include <xcb/xv.h>
#include <xcb/xcb_image.h>
#include <xcb/xcb_event.h>
#include <xcb/xcb_atom.h>
#include <xcb/xcb_icccm.h>
#ifdef XCB_ICCCM_NUM_WM_SIZE_HINTS_ELEMENTS
#include <xcb/xcb_ewmh.h>
#else // compatibility hack for old xcb-util
/**
* @brief Action on the _NET_WM_STATE property
*/
typedef enum
{
/* Remove/unset property */
XCB_EWMH_WM_STATE_REMOVE = 0,
/* Add/set property */
XCB_EWMH_WM_STATE_ADD = 1,
/* Toggle property */
XCB_EWMH_WM_STATE_TOGGLE = 2
} xcb_ewmh_wm_state_action_t;
#endif
#include <xcb/xcb_keysyms.h>
#endif
#ifdef USE_GLX
#include <GL/gl.h> // For GL_COLOR_BUFFER_BIT
#include <GL/glx.h>
// only for gluErrorString
#include <GL/glu.h>
#endif
#ifdef USE_VAAPI
#include <va/va_x11.h>
#ifdef USE_GLX
#include <va/va_glx.h>
#endif
#endif
#ifdef USE_VDPAU
#include <vdpau/vdpau_x11.h>
#include <libavcodec/vdpau.h>
#endif
#include <libavcodec/avcodec.h>
#include <libavcodec/vaapi.h>
#include <libavutil/pixdesc.h>
#include "misc.h"
#include "video.h"
#include "audio.h"
#ifdef USE_XLIB_XCB
//----------------------------------------------------------------------------
// Declarations
//----------------------------------------------------------------------------
///
/// Video resolutions selector.
///
typedef enum _video_resolutions_
{
VideoResolution576i, ///< ...x576 interlaced
VideoResolution720p, ///< ...x720 progressive
VideoResolutionFake1080i, ///< 1280x1080 1440x1080 interlaced
VideoResolution1080i, ///< 1920x1080 interlaced
VideoResolutionMax ///< number of resolution indexs
} VideoResolutions;
///
/// Video deinterlace modes.
///
typedef enum _video_deinterlace_modes_
{
VideoDeinterlaceBob, ///< bob deinterlace
VideoDeinterlaceWeave, ///< weave deinterlace
VideoDeinterlaceTemporal, ///< temporal deinterlace
VideoDeinterlaceTemporalSpatial, ///< temporal spatial deinterlace
VideoDeinterlaceSoftware, ///< software deinterlace
} VideoDeinterlaceModes;
///
/// Video scaleing modes.
///
typedef enum _video_scaling_modes_
{
VideoScalingNormal, ///< normal scaling
VideoScalingFast, ///< fastest scaling
VideoScalingHQ, ///< high quality scaling
VideoScalingAnamorphic, ///< anamorphic scaling
} VideoScalingModes;
///
/// Video zoom modes.
///
typedef enum _video_zoom_modes_
{
VideoNormal, ///< normal
VideoStretch, ///< stretch to all edges
VideoCenterCutOut, ///< center and cut out
VideoAnamorphic, ///< anamorphic scaled (unsupported)
} VideoZoomModes;
///
/// Video output module structure and typedef.
///
typedef struct _video_module_
{
const char *Name; ///< video output module name
char Enabled; ///< flag output module enabled
/// allocate new video hw decoder
VideoHwDecoder *(*const NewHwDecoder)(void);
void (*const DelHwDecoder) (VideoHwDecoder *);
unsigned (*const GetSurface) (VideoHwDecoder *);
void (*const ReleaseSurface) (VideoHwDecoder *, unsigned);
enum PixelFormat (*const get_format) (VideoHwDecoder *, AVCodecContext *,
const enum PixelFormat *);
void (*const RenderFrame) (VideoHwDecoder *, const AVCodecContext *,
const AVFrame *);
uint8_t *(*const GrabOutput)(int *, int *, int *);
void (*const SetVideoMode) (void);
void (*const ResetAutoCrop) (void);
void (*const Thread) (void); ///< module display handler thread
void (*const OsdClear) (void); ///< clear OSD
void (*const OsdDrawARGB) (int, int, int, int, const uint8_t *);
///< draw OSD ARGB area
void (*const OsdInit) (int, int); ///< initialize OSD
void (*const OsdExit) (void); ///< cleanup OSD
int (*const Init) (const char *); ///< initialize video output module
void (*const Exit) (void); ///< cleanup video output module
} VideoModule;
//----------------------------------------------------------------------------
// Defines
//----------------------------------------------------------------------------
#define CODEC_SURFACES_MAX 31 ///< maximal of surfaces
#define CODEC_SURFACES_DEFAULT (21+4) ///< default of surfaces
// FIXME: video-xvba only supports 14
#define xCODEC_SURFACES_DEFAULT 14 ///< default of surfaces
#define CODEC_SURFACES_MPEG2 3 ///< 1 decode, up to 2 references
#define CODEC_SURFACES_MPEG4 3 ///< 1 decode, up to 2 references
#define CODEC_SURFACES_H264 21 ///< 1 decode, up to 20 references
#define CODEC_SURFACES_VC1 3 ///< 1 decode, up to 2 references
#define VIDEO_SURFACES_MAX 4 ///< video output surfaces for queue
#define OUTPUT_SURFACES_MAX 4 ///< output surfaces for flip page
//----------------------------------------------------------------------------
// Variables
//----------------------------------------------------------------------------
static Display *XlibDisplay; ///< Xlib X11 display
static xcb_connection_t *Connection; ///< xcb connection
static xcb_colormap_t VideoColormap; ///< video colormap
static xcb_window_t VideoWindow; ///< video window
static xcb_cursor_t VideoBlankCursor; ///< empty invisible cursor
static int VideoWindowX; ///< video output window x coordinate
static int VideoWindowY; ///< video outout window y coordinate
static unsigned VideoWindowWidth; ///< video output window width
static unsigned VideoWindowHeight; ///< video output window height
static const VideoModule *VideoUsedModule; ///< selected video module
static char VideoHardwareDecoder; ///< flag use hardware decoder
static char VideoSurfaceModesChanged; ///< flag surface modes changed
/// flag use transparent OSD.
static const char VideoTransparentOsd = 1;
static int VideoSkipLines; ///< skip video lines top/bottom
/// Default deinterlace mode.
static VideoDeinterlaceModes VideoDeinterlace[VideoResolutionMax];
/// Default number of deinterlace surfaces
static const int VideoDeinterlaceSurfaces = 4;
/// Default Inverse telecine flag (VDPAU only).
static char VideoInverseTelecine[VideoResolutionMax];
/// Default skip chroma deinterlace flag (VDPAU only).
static char VideoSkipChromaDeinterlace[VideoResolutionMax];
/// Default amount of noise reduction algorithm to apply (0 .. 1000).
static int VideoDenoise[VideoResolutionMax];
/// Default amount of of sharpening, or blurring, to apply (-1000 .. 1000).
static int VideoSharpen[VideoResolutionMax];
// FIXME: color space / studio levels
/// Default scaling mode
static VideoScalingModes VideoScaling[VideoResolutionMax];
/// Default audio/video delay
int VideoAudioDelay;
/// Default zoom mode
static VideoZoomModes Video4to3ZoomMode;
//static char VideoSoftStartSync; ///< soft start sync audio/video
static char Video60HzMode; ///< handle 60hz displays
static xcb_atom_t WmDeleteWindowAtom; ///< WM delete message atom
static xcb_atom_t NetWmState; ///< wm-state message atom
static xcb_atom_t NetWmStateFullscreen; ///< fullscreen wm-state message atom
extern uint32_t VideoSwitch; ///< ticks for channel switch
extern atomic_t VideoPacketsFilled; ///< how many of the buffer is used
#ifdef USE_VIDEO_THREAD
static pthread_t VideoThread; ///< video decode thread
static pthread_cond_t VideoWakeupCond; ///< wakeup condition variable
static pthread_mutex_t VideoMutex; ///< video condition mutex
static pthread_mutex_t VideoLockMutex; ///< video lock mutex
#endif
static char OsdShown; ///< flag show osd
static int OsdWidth; ///< osd width
static int OsdHeight; ///< osd height
static int OsdDirtyX; ///< osd dirty area x
static int OsdDirtyY; ///< osd dirty area y
static int OsdDirtyWidth; ///< osd dirty area width
static int OsdDirtyHeight; ///< osd dirty area height
static int64_t VideoDeltaPTS; ///< FIXME: fix pts
//----------------------------------------------------------------------------
// Common Functions
//----------------------------------------------------------------------------
static void VideoThreadLock(void); ///< lock video thread
static void VideoThreadUnlock(void); ///< unlock video thread
#if defined(DEBUG) || defined(AV_INFO)
///
/// Nice time-stamp string.
///
static const char *VideoTimeStampString(int64_t ts)
{
static char buf[2][32];
static int idx;
int hh;
int mm;
int ss;
int uu;
idx ^= 1; // support two static buffers
ts = ts / 90;
uu = ts % 1000;
ss = (ts / 1000) % 60;
mm = (ts / 60000) % 60;
hh = ts / 3600000;
snprintf(buf[idx], sizeof(buf[idx]), "%2d:%02d:%02d.%03d", hh, mm, ss, uu);
return buf[idx];
}
#endif
///
/// Update video pts.
///
/// @param pts_p pointer to pts
/// @param interlaced interlaced flag (frame isn't right)
/// @param frame frame to display
///
/// @note frame->interlaced_frame can't be used for interlace detection
///
static void VideoSetPts(int64_t * pts_p, int interlaced, const AVFrame * frame)
{
int64_t pts;
// update video clock
if ((uint64_t) * pts_p != AV_NOPTS_VALUE) {
*pts_p += interlaced ? 40 * 90 : 20 * 90;
}
//pts = frame->best_effort_timestamp;
pts = frame->pkt_pts;
if ((uint64_t) pts == AV_NOPTS_VALUE || !pts) {
// libav: 0.8pre didn't set pts
pts = frame->pkt_dts;
}
// libav: sets only pkt_dts which can be 0
if (pts && (uint64_t) pts != AV_NOPTS_VALUE) {
// build a monotonic pts
if ((uint64_t) * pts_p != AV_NOPTS_VALUE) {
int64_t delta;
delta = pts - *pts_p;
// ignore negative jumps
if (delta > -600 * 90 && delta <= -40 * 90) {
if (-delta > VideoDeltaPTS) {
VideoDeltaPTS = -delta;
Debug(4,
"video: %#012" PRIx64 "->%#012" PRIx64 " delta+%4"
PRId64 " pts\n", *pts_p, pts, pts - *pts_p);
}
return;
}
}
if (*pts_p != pts) {
Debug(4,
"video: %#012" PRIx64 "->%#012" PRIx64 " delta=%4" PRId64
" pts\n", *pts_p, pts, pts - *pts_p);
*pts_p = pts;
}
}
}
///
/// Update output for new size or aspect ratio.
///
/// @param input_aspect_ratio video stream aspect
///
static void VideoUpdateOutput(AVRational input_aspect_ratio, int input_width,
int input_height, int *output_x, int *output_y, int *output_width,
int *output_height, int *crop_x, int *crop_y, int *crop_width,
int *crop_height)
{
AVRational display_aspect_ratio;
if (!input_aspect_ratio.num || !input_aspect_ratio.den) {
input_aspect_ratio.num = 1;
input_aspect_ratio.den = 1;
Debug(3, "video: aspect defaults to %d:%d\n", input_aspect_ratio.num,
input_aspect_ratio.den);
}
av_reduce(&display_aspect_ratio.num, &display_aspect_ratio.den,
input_width * input_aspect_ratio.num,
input_height * input_aspect_ratio.den, 1024 * 1024);
// InputWidth/Height can be zero = uninitialized
if (!display_aspect_ratio.num || !display_aspect_ratio.den) {
display_aspect_ratio.num = 1;
display_aspect_ratio.den = 1;
}
Debug(3, "video: aspect %d:%d\n", display_aspect_ratio.num,
display_aspect_ratio.den);
*crop_x = 0;
*crop_y = VideoSkipLines;
*crop_width = input_width;
*crop_height = input_height - VideoSkipLines * 2;
// FIXME: store different positions for the ratios
if (display_aspect_ratio.num == 4 && display_aspect_ratio.den == 3) {
switch (Video4to3ZoomMode) {
case VideoNormal:
goto normal;
case VideoStretch:
goto stretch;
case VideoCenterCutOut:
goto center_cut_out;
case VideoAnamorphic:
// FIXME: rest should be done by hardware
goto stretch;
}
}
// FIXME: this overwrites user choosen output position
normal:
*output_x = 0;
*output_y = 0;
*output_width = (VideoWindowHeight * display_aspect_ratio.num)
/ display_aspect_ratio.den;
*output_height = (VideoWindowWidth * display_aspect_ratio.den)
/ display_aspect_ratio.num;
if ((unsigned)*output_width > VideoWindowWidth) {
*output_width = VideoWindowWidth;
*output_y = (VideoWindowHeight - *output_height) / 2;
} else if ((unsigned)*output_height > VideoWindowHeight) {
*output_height = VideoWindowHeight;
*output_x = (VideoWindowWidth - *output_width) / 2;
}
Debug(3, "video: aspect output %dx%d+%d+%d\n", *output_width,
*output_height, *output_x, *output_y);
return;
stretch:
*output_x = 0;
*output_y = 0;
*output_width = VideoWindowWidth;
*output_height = VideoWindowHeight;
return;
center_cut_out:
*output_x = 0;
*output_y = 0;
*output_height = VideoWindowHeight;
*output_width = VideoWindowWidth;
*crop_width = (VideoWindowHeight * display_aspect_ratio.num)
/ display_aspect_ratio.den;
*crop_height = (VideoWindowWidth * display_aspect_ratio.den)
/ display_aspect_ratio.num;
// look which side must be cut
if ((unsigned)*crop_width > VideoWindowWidth) {
*crop_height = input_height;
// adjust scaiing
*crop_x = ((*crop_width - (signed)VideoWindowWidth) * input_width)
/ (2 * VideoWindowWidth);
*crop_width = input_width - *crop_x * 2;
} else if ((unsigned)*crop_height > VideoWindowHeight) {
*crop_width = input_width;
// adjust scaiing
*crop_y = ((*crop_height - (signed)VideoWindowHeight) * input_height)
/ (2 * VideoWindowHeight);
*crop_height = input_height - *crop_y * 2;
} else {
*crop_width = input_width;
*crop_height = input_height;
}
Debug(3, "video: aspect crop %dx%d+%d+%d\n", *crop_width, *crop_height,
*crop_x, *crop_y);
return;
}
//----------------------------------------------------------------------------
// GLX
//----------------------------------------------------------------------------
#ifdef USE_GLX
static int GlxEnabled = 1; ///< use GLX
static int GlxVSyncEnabled = 0; ///< enable/disable v-sync
static GLXContext GlxSharedContext; ///< shared gl context
static GLXContext GlxContext; ///< our gl context
static XVisualInfo *GlxVisualInfo; ///< our gl visual
static GLuint OsdGlTextures[2]; ///< gl texture for OSD
static int OsdIndex; ///< index into OsdGlTextures
///
/// GLX extension functions
///@{
#ifdef GLX_MESA_swap_control
static PFNGLXSWAPINTERVALMESAPROC GlxSwapIntervalMESA;
#endif
#ifdef GLX_SGI_video_sync
static PFNGLXGETVIDEOSYNCSGIPROC GlxGetVideoSyncSGI;
#endif
#ifdef GLX_SGI_swap_control
static PFNGLXSWAPINTERVALSGIPROC GlxSwapIntervalSGI;
#endif
///@}
///
/// GLX check error.
///
static void GlxCheck(void)
{
GLenum err;
if ((err = glGetError()) != GL_NO_ERROR) {
Debug(3, "video/glx: error %d '%s'\n", err, gluErrorString(err));
}
}
///
/// GLX check if a GLX extension is supported.
///
/// @param ext extension to query
/// @returns true if supported, false otherwise
///
static int GlxIsExtensionSupported(const char *ext)
{
const char *extensions;
if ((extensions =
glXQueryExtensionsString(XlibDisplay,
DefaultScreen(XlibDisplay)))) {
const char *s;
int l;
s = strstr(extensions, ext);
l = strlen(ext);
return s && (s[l] == ' ' || s[l] == '\0');
}
return 0;
}
#if 0
///
/// Setup GLX decoder
///
/// @param decoder VA-API decoder
///
void GlxSetupDecoder(VaapiDecoder * decoder)
{
int width;
int height;
int i;
width = decoder->InputWidth;
height = decoder->InputHeight;
glEnable(GL_TEXTURE_2D); // create 2d texture
glGenTextures(2, decoder->GlTexture);
GlxCheck();
for (i = 0; i < 2; ++i) {
glBindTexture(GL_TEXTURE_2D, decoder->GlTexture[i]);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_MIN_FILTER, GL_LINEAR);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_MAG_FILTER, GL_LINEAR);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_WRAP_S, GL_CLAMP_TO_EDGE);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_WRAP_T, GL_CLAMP_TO_EDGE);
glPixelStorei(GL_UNPACK_ALIGNMENT, 4);
glTexImage2D(GL_TEXTURE_2D, 0, GL_RGBA8, width, height, 0, GL_BGRA,
GL_UNSIGNED_BYTE, NULL);
glBindTexture(GL_TEXTURE_2D, 0);
}
glDisable(GL_TEXTURE_2D);
GlxCheck();
}
#endif
///
/// Render texture.
///
/// @param texture 2d texture
///
static inline void GlxRenderTexture(GLuint texture, int x, int y, int width,
int height)
{
glEnable(GL_TEXTURE_2D);
glBindTexture(GL_TEXTURE_2D, texture);
glColor4f(1.0f, 1.0f, 1.0f, 1.0f); // no color
glBegin(GL_QUADS); {
glTexCoord2f(1.0f, 1.0f);
glVertex2i(x + width, y + height);
glTexCoord2f(0.0f, 1.0f);
glVertex2i(x, y + height);
glTexCoord2f(0.0f, 0.0f);
glVertex2i(x, y);
glTexCoord2f(1.0f, 0.0f);
glVertex2i(x + width, y);
#if 0
glTexCoord2f(0.0f, 0.0f);
glVertex2i(x, y);
glTexCoord2f(0.0f, 1.0f);
glVertex2i(x, y + height);
glTexCoord2f(1.0f, 1.0f);
glVertex2i(x + width, y + height);
glTexCoord2f(1.0f, 0.0f);
glVertex2i(x + width, y);
#endif
}
glEnd();
glBindTexture(GL_TEXTURE_2D, 0);
glDisable(GL_TEXTURE_2D);
}
///
/// Upload texture.
///
static void GlxUploadTexture(int x, int y, int width, int height,
const uint8_t * argb)
{
// FIXME: use other / faster uploads
// ARB_pixelbuffer_object GL_PIXEL_UNPACK_BUFFER glBindBufferARB()
// glMapBuffer() glUnmapBuffer()
// glTexSubImage2D
glEnable(GL_TEXTURE_2D); // upload 2d texture
glBindTexture(GL_TEXTURE_2D, OsdGlTextures[OsdIndex]);
glTexSubImage2D(GL_TEXTURE_2D, 0, x, y, width, height, GL_BGRA,
GL_UNSIGNED_BYTE, argb);
glBindTexture(GL_TEXTURE_2D, 0);
glDisable(GL_TEXTURE_2D);
}
///
/// Render to glx texture.
///
static void GlxRender(int osd_width, int osd_height)
{
static uint8_t *image;
static uint8_t cycle;
int x;
int y;
if (!OsdGlTextures[0] || !OsdGlTextures[1]) {
return;
}
// render each frame kills performance
// osd 1920 * 1080 * 4 (RGBA) * 50 (HZ) = 396 Mb/s
// too big for alloca
if (!image) {
image = malloc(4 * osd_width * osd_height);
memset(image, 0x00, 4 * osd_width * osd_height);
}
for (y = 0; y < osd_height; ++y) {
for (x = 0; x < osd_width; ++x) {
((uint32_t *) image)[x + y * osd_width] =
0x00FFFFFF | (cycle++) << 24;
}
}
cycle++;
// FIXME: convert is for GLX texture unneeded
// convert internal osd to image
//GfxConvert(image, 0, 4 * osd_width);
//
GlxUploadTexture(0, 0, osd_width, osd_height, image);
}
///
/// Setup GLX window.
///
static void GlxSetupWindow(xcb_window_t window, int width, int height)
{
uint32_t start;
uint32_t end;
int i;
unsigned count;
Debug(3, "video/glx: %s\n %x %dx%d", __FUNCTION__, window, width, height);
// set glx context
if (!glXMakeCurrent(XlibDisplay, window, GlxContext)) {
Fatal(_("video/glx: can't make glx context current\n"));
// FIXME: disable glx
return;
}
Debug(3, "video/glx: ok\n");
#ifdef DEBUG
// check if v-sync is working correct
end = GetMsTicks();
for (i = 0; i < 10; ++i) {
start = end;
glClear(GL_COLOR_BUFFER_BIT);
glXSwapBuffers(XlibDisplay, window);
end = GetMsTicks();
GlxGetVideoSyncSGI(&count);
Debug(3, "video/glx: %5d frame rate %d ms\n", count, end - start);
// nvidia can queue 5 swaps
if (i > 5 && (end - start) < 15) {
Warning(_("video/glx: no v-sync\n"));
}
}
#endif
// viewpoint
GlxCheck();
glViewport(0, 0, width, height);
glDepthRange(-1.0, 1.0);
glClearColor(0.0f, 0.0f, 0.0f, 0.0f);
glColor3f(1.0f, 1.0f, 1.0f);
glClearDepth(1.0);
GlxCheck();
glMatrixMode(GL_PROJECTION);
glLoadIdentity();
glOrtho(0.0, width, height, 0.0, -1.0, 1.0);
GlxCheck();
glMatrixMode(GL_MODELVIEW);
glLoadIdentity();
glDisable(GL_DEPTH_TEST); // setup 2d drawing
glDepthMask(GL_FALSE);
glDisable(GL_CULL_FACE);
#ifdef USE_DOUBLEBUFFER
glDrawBuffer(GL_BACK);
#else
glDrawBuffer(GL_FRONT);
#endif
glTexEnvi(GL_TEXTURE_ENV, GL_TEXTURE_ENV_MODE, GL_MODULATE);
glEnable(GL_BLEND);
glBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA);
#ifdef DEBUG
#ifdef USE_DOUBLEBUFFER
glDrawBuffer(GL_FRONT);
glClearColor(1.0f, 0.0f, 1.0f, 1.0f);
glClear(GL_COLOR_BUFFER_BIT);
glDrawBuffer(GL_BACK);
#endif
#endif
// clear
glClearColor(0.0f, 0.0f, 0.0f, 1.0f); // intial background color
glClear(GL_COLOR_BUFFER_BIT);
#ifdef DEBUG
glClearColor(1.0f, 1.0f, 0.0f, 1.0f); // background color
#endif
GlxCheck();
}
///
/// Initialize GLX.
///
static void GlxInit(void)
{
static GLint visual_attr[] = {
GLX_RGBA,
GLX_RED_SIZE, 8,
GLX_GREEN_SIZE, 8,
GLX_BLUE_SIZE, 8,
#ifdef USE_DOUBLEBUFFER
GLX_DOUBLEBUFFER,
#endif
None
};
XVisualInfo *vi;
GLXContext context;
int major;
int minor;
int glx_GLX_EXT_swap_control;
int glx_GLX_MESA_swap_control;
int glx_GLX_SGI_swap_control;
int glx_GLX_SGI_video_sync;
if (!glXQueryVersion(XlibDisplay, &major, &minor)) {
Error(_("video/glx: no GLX support\n"));
GlxEnabled = 0;
return;
}
Info(_("video/glx: glx version %d.%d\n"), major, minor);
//
// check which extension are supported
//
glx_GLX_EXT_swap_control = GlxIsExtensionSupported("GLX_EXT_swap_control");
glx_GLX_MESA_swap_control =
GlxIsExtensionSupported("GLX_MESA_swap_control");
glx_GLX_SGI_swap_control = GlxIsExtensionSupported("GLX_SGI_swap_control");
glx_GLX_SGI_video_sync = GlxIsExtensionSupported("GLX_SGI_video_sync");
#ifdef GLX_MESA_swap_control
if (glx_GLX_MESA_swap_control) {
GlxSwapIntervalMESA = (PFNGLXSWAPINTERVALMESAPROC)
glXGetProcAddress((const GLubyte *)"glXSwapIntervalMESA");
}
Debug(3, "video/glx: GlxSwapIntervalMESA=%p\n", GlxSwapIntervalMESA);
#endif
#ifdef GLX_SGI_swap_control
if (glx_GLX_SGI_swap_control) {
GlxSwapIntervalSGI = (PFNGLXSWAPINTERVALSGIPROC)
glXGetProcAddress((const GLubyte *)"glXSwapIntervalSGI");
}
Debug(3, "video/glx: GlxSwapIntervalSGI=%p\n", GlxSwapIntervalSGI);
#endif
#ifdef GLX_SGI_video_sync
if (glx_GLX_SGI_video_sync) {
GlxGetVideoSyncSGI = (PFNGLXGETVIDEOSYNCSGIPROC)
glXGetProcAddress((const GLubyte *)"glXGetVideoSyncSGI");
}
Debug(3, "video/glx: GlxGetVideoSyncSGI=%p\n", GlxGetVideoSyncSGI);
#endif
// glXGetVideoSyncSGI glXWaitVideoSyncSGI
#if 0
// FIXME: use xcb: xcb_glx_create_context
#endif
// create glx context
glXMakeCurrent(XlibDisplay, None, NULL);
vi = glXChooseVisual(XlibDisplay, DefaultScreen(XlibDisplay), visual_attr);
if (!vi) {
Error(_("video/glx: can't get a RGB visual\n"));
GlxEnabled = 0;
return;
}
if (!vi->visual) {
Error(_("video/glx: no valid visual found\n"));
GlxEnabled = 0;
return;
}
if (vi->bits_per_rgb < 8) {
Error(_("video/glx: need atleast 8-bits per RGB\n"));
GlxEnabled = 0;
return;
}
context = glXCreateContext(XlibDisplay, vi, NULL, GL_TRUE);
if (!context) {
Error(_("video/glx: can't create glx context\n"));
GlxEnabled = 0;
return;
}
GlxSharedContext = context;
context = glXCreateContext(XlibDisplay, vi, GlxSharedContext, GL_TRUE);
if (!context) {
Error(_("video/glx: can't create glx context\n"));
GlxEnabled = 0;
// FIXME: destroy GlxSharedContext
return;
}
GlxContext = context;
GlxVisualInfo = vi;
Debug(3, "video/glx: visual %#02x depth %u\n", (unsigned)vi->visualid,
vi->depth);
//
// query default v-sync state
//
if (glx_GLX_EXT_swap_control) {
unsigned tmp;
tmp = -1;
glXQueryDrawable(XlibDisplay, DefaultRootWindow(XlibDisplay),
GLX_SWAP_INTERVAL_EXT, &tmp);
GlxCheck();
Debug(3, "video/glx: default v-sync is %d\n", tmp);
} else {
Debug(3, "video/glx: default v-sync is unknown\n");
}
//
// disable wait on v-sync
//
// FIXME: sleep before swap / busy waiting hardware
// FIXME: 60hz lcd panel
// FIXME: config: default, on, off
#ifdef GLX_SGI_swap_control
if (GlxVSyncEnabled < 0 && GlxSwapIntervalSGI) {
if (GlxSwapIntervalSGI(0)) {
GlxCheck();
Warning(_("video/glx: can't disable v-sync\n"));
} else {
Info(_("video/glx: v-sync disabled\n"));
}
} else
#endif
#ifdef GLX_MESA_swap_control
if (GlxVSyncEnabled < 0 && GlxSwapIntervalMESA) {
if (GlxSwapIntervalMESA(0)) {
GlxCheck();
Warning(_("video/glx: can't disable v-sync\n"));
} else {
Info(_("video/glx: v-sync disabled\n"));
}
}
#endif
//
// enable wait on v-sync
//
#ifdef GLX_SGI_swap_control
if (GlxVSyncEnabled > 0 && GlxSwapIntervalMESA) {
if (GlxSwapIntervalMESA(1)) {
GlxCheck();
Warning(_("video/glx: can't enable v-sync\n"));
} else {
Info(_("video/glx: v-sync enabled\n"));
}
} else
#endif
#ifdef GLX_MESA_swap_control
if (GlxVSyncEnabled > 0 && GlxSwapIntervalSGI) {
if (GlxSwapIntervalSGI(1)) {
GlxCheck();
Warning(_("video/glx: can't enable v-sync\n"));
} else {
Info(_("video/glx: v-sync enabled\n"));
}
}
#endif
}
///
/// Cleanup GLX.
///
static void GlxExit(void)
{
Debug(3, "video/glx: %s\n", __FUNCTION__);
glFinish();
// must destroy glx
if (glXGetCurrentContext() == GlxContext) {
// if currently used, set to none
glXMakeCurrent(XlibDisplay, None, NULL);
}
if (GlxSharedContext) {
glXDestroyContext(XlibDisplay, GlxSharedContext);
}
if (GlxContext) {
glXDestroyContext(XlibDisplay, GlxContext);
}
#if 0
if (GlxThreadContext) {
glXDestroyContext(XlibDisplay, GlxThreadContext);
}
// FIXME: must free GlxVisualInfo
#endif
}
#endif
//----------------------------------------------------------------------------
// common functions
//----------------------------------------------------------------------------
///
/// Calculate resolution group.
///
/// @param width video picture raw width
/// @param height video picture raw height
/// @param interlace flag interlaced video picture
///
/// @note interlace isn't used yet and probably wrong set by caller.
///
static VideoResolutions VideoResolutionGroup(int width, int height,
__attribute__ ((unused))
int interlace)
{
if (height <= 576) {
return VideoResolution576i;
}
if (height <= 720) {
return VideoResolution720p;
}
if (height < 1080) {
return VideoResolutionFake1080i;
}
if (width < 1920) {
return VideoResolutionFake1080i;
}
return VideoResolution1080i;
}
//----------------------------------------------------------------------------
// auto-crop
//----------------------------------------------------------------------------
///
/// auto-crop context structure and typedef.
///
typedef struct _auto_crop_ctx_
{
int X1; ///< detected left border
int X2; ///< detected right border
int Y1; ///< detected top border
int Y2; ///< detected bottom border
int Count; ///< counter to delay switch
int State; ///< auto-crop state (0, 14, 16)
} AutoCropCtx;
#ifdef USE_AUTOCROP
#define YBLACK 0x20 ///< below is black
#define UVBLACK 0x80 ///< around is black
#define M64 UINT64_C(0x0101010101010101) ///< 64bit multiplicator
/// auto-crop percent of video width to ignore logos
static const int AutoCropLogoIgnore = 24;
static int AutoCropInterval; ///< auto-crop check interval
static int AutoCropDelay; ///< auto-crop switch delay
static int AutoCropTolerance; ///< auto-crop tolerance
///
/// Detect black line Y.
///
/// @param data Y plane pixel data
/// @param length number of pixel to check
/// @param stride offset of pixels
///
/// @note 8 pixel are checked at once, all values must be 8 aligned
///
static int AutoCropIsBlackLineY(const uint8_t * data, int length, int stride)
{
int n;
int o;
uint64_t r;
const uint64_t *p;
#ifdef DEBUG
if ((size_t) data & 0x7 || stride & 0x7) {
abort();
}
#endif
p = (const uint64_t *)data;
n = length; // FIXME: can remove n
o = stride / 8;
r = 0UL;
while (--n >= 0) {
r |= *p;
p += o;
}
// below YBLACK(0x20) is black
return !(r & ~((YBLACK - 1) * M64));
}
///
/// Auto detect black borders and crop them.
///
/// @param autocrop auto-crop variables
/// @param width frame width in pixel
/// @param height frame height in pixel
/// @param data frame planes data (Y, U, V)
/// @param pitches frame planes pitches (Y, U, V)
///
/// @note FIXME: can reduce the checked range, left, right crop isn't
/// used yet.
///
/// @note FIXME: only Y is checked, for black.
///
static void AutoCropDetect(AutoCropCtx * autocrop, int width, int height,
void *data[3], uint32_t pitches[3])
{
const void *data_y;
unsigned length_y;
int x;
int y;
int x1;
int x2;
int y1;
int y2;
int logo_skip;
//
// ignore top+bottom 6 lines and left+right 8 pixels
//
#define SKIP_X 8
#define SKIP_Y 6
x1 = width - 1;
x2 = 0;
y1 = height - 1;
y2 = 0;
logo_skip = SKIP_X + (((width * AutoCropLogoIgnore) / 100 + 8) / 8) * 8;
data_y = data[0];
length_y = pitches[0];
//
// search top
//
for (y = SKIP_Y; y < y1; ++y) {
if (!AutoCropIsBlackLineY(data_y + logo_skip + y * length_y,
(width - 2 * logo_skip) / 8, 8)) {
if (y == SKIP_Y) {
y = 0;
}
y1 = y;
break;
}
}
//
// search bottom
//
for (y = height - SKIP_Y - 1; y > y2; --y) {
if (!AutoCropIsBlackLineY(data_y + logo_skip + y * length_y,
(width - 2 * logo_skip) / 8, 8)) {
if (y == height - SKIP_Y - 1) {
y = height - 1;
}
y2 = y;
break;
}
}
//
// search left
//
for (x = SKIP_X; x < x1; x += 8) {
if (!AutoCropIsBlackLineY(data_y + x + SKIP_Y * length_y,
height - 2 * SKIP_Y, length_y)) {
if (x == SKIP_X) {
x = 0;
}
x1 = x;
break;
}
}
//
// search right
//
for (x = width - SKIP_X - 8; x > x2; x -= 8) {
if (!AutoCropIsBlackLineY(data_y + x + SKIP_Y * length_y,
height - 2 * SKIP_Y * 8, length_y)) {
if (x == width - SKIP_X - 8) {
x = width - 1;
}
x2 = x;
break;
}
}
if (0 && (y1 > SKIP_Y || x1 > SKIP_X)) {
Debug(3, "video/autocrop: top=%d bottom=%d left=%d right=%d\n", y1, y2,
x1, x2);
}
autocrop->X1 = x1;
autocrop->X2 = x2;
autocrop->Y1 = y1;
autocrop->Y2 = y2;
}
#endif
//----------------------------------------------------------------------------
// software - deinterlace
//----------------------------------------------------------------------------
// FIXME: move general software deinterlace functions to here.
//----------------------------------------------------------------------------
// VA-API
//----------------------------------------------------------------------------
#ifdef USE_VAAPI
static int VaapiBuggyVdpau; ///< fix libva-driver-vdpau bugs
static int VaapiBuggyIntel; ///< fix libva-driver-intel bugs
static VADisplay *VaDisplay; ///< VA-API display
static VAImage VaOsdImage = {
.image_id = VA_INVALID_ID
}; ///< osd VA-API image
static VASubpictureID VaOsdSubpicture = VA_INVALID_ID; ///< osd VA-API subpicture
static char VaapiUnscaledOsd; ///< unscaled osd supported
/// VA-API decoder typedef
typedef struct _vaapi_decoder_ VaapiDecoder;
///
/// VA-API decoder
///
struct _vaapi_decoder_
{
VADisplay *VaDisplay; ///< VA-API display
xcb_window_t Window; ///< output window
int OutputX; ///< output window x
int OutputY; ///< output window y
int OutputWidth; ///< output window width
int OutputHeight; ///< output window height
/// flags for put surface for different resolutions groups
unsigned SurfaceFlagsTable[VideoResolutionMax];
enum PixelFormat PixFmt; ///< ffmpeg frame pixfmt
int WrongInterlacedWarned; ///< warning about interlace flag issued
int Interlaced; ///< ffmpeg interlaced flag
int TopFieldFirst; ///< ffmpeg top field displayed first
VAImage DeintImages[5]; ///< deinterlace image buffers
int GetPutImage; ///< flag get/put image can be used
VAImage Image[1]; ///< image buffer to update surface
struct vaapi_context VaapiContext[1]; ///< ffmpeg VA-API context
int SurfacesNeeded; ///< number of surface to request
int SurfaceUsedN; ///< number of used surfaces
/// used surface ids
VASurfaceID SurfacesUsed[CODEC_SURFACES_MAX];
int SurfaceFreeN; ///< number of free surfaces
/// free surface ids
VASurfaceID SurfacesFree[CODEC_SURFACES_MAX];
int InputWidth; ///< video input width
int InputHeight; ///< video input height
AVRational InputAspect; ///< video input aspect ratio
VideoResolutions Resolution; ///< resolution group
int CropX; ///< video crop x
int CropY; ///< video crop y
int CropWidth; ///< video crop width
int CropHeight; ///< video crop height
#ifdef USE_AUTOCROP
AutoCropCtx AutoCrop[1]; ///< auto-crop variables
#endif
#ifdef USE_GLX
GLuint GlTexture[2]; ///< gl texture for VA-API
void *GlxSurface[2]; ///< VA-API/GLX surface
#endif
VASurfaceID BlackSurface; ///< empty black surface
/// video surface ring buffer
VASurfaceID SurfacesRb[VIDEO_SURFACES_MAX];
int SurfaceWrite; ///< write pointer
int SurfaceRead; ///< read pointer
atomic_t SurfacesFilled; ///< how many of the buffer is used
int SurfaceField; ///< current displayed field
int DropNextFrame; ///< flag drop next frame
int DupNextFrame; ///< flag duplicate next frame
struct timespec FrameTime; ///< time of last display
int64_t PTS; ///< video PTS clock
int FramesDuped; ///< number of frames duplicated
int FramesMissed; ///< number of frames missed
int FramesDropped; ///< number of frames dropped
int FrameCounter; ///< number of frames decoded
int FramesDisplayed; ///< number of frames displayed
};
static VaapiDecoder *VaapiDecoders[1]; ///< open decoder streams
static int VaapiDecoderN; ///< number of decoder streams
/// forward display back surface
static void VaapiBlackSurface(VaapiDecoder *);
/// forward destroy deinterlace images
static void VaapiDestroyDeinterlaceImages(VaapiDecoder *);
//----------------------------------------------------------------------------
// VA-API Functions
//----------------------------------------------------------------------------
// Surfaces -------------------------------------------------------------
///
/// Associate OSD with surface.
///
/// @param decoder VA-API decoder
///
static void VaapiAssociate(VaapiDecoder * decoder)
{
int x;
int y;
int w;
int h;
if (VaOsdSubpicture == VA_INVALID_ID) {
Warning(_("video/vaapi: no osd subpicture yet\n"));
return;
}
x = 0;
y = 0;
w = VaOsdImage.width;
h = VaOsdImage.height;
// FIXME: associate only if osd is displayed
if (VaapiUnscaledOsd) {
if (decoder->SurfaceFreeN
&& vaAssociateSubpicture(VaDisplay, VaOsdSubpicture,
decoder->SurfacesFree, decoder->SurfaceFreeN, x, y, w, h, 0, 0,
VideoWindowWidth, VideoWindowHeight,
VA_SUBPICTURE_DESTINATION_IS_SCREEN_COORD)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't associate subpicture\n"));
}
if (decoder->SurfaceUsedN
&& vaAssociateSubpicture(VaDisplay, VaOsdSubpicture,
decoder->SurfacesUsed, decoder->SurfaceUsedN, x, y, w, h, 0, 0,
VideoWindowWidth, VideoWindowHeight,
VA_SUBPICTURE_DESTINATION_IS_SCREEN_COORD)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't associate subpicture\n"));
}
} else {
if (decoder->SurfaceFreeN
&& vaAssociateSubpicture(VaDisplay, VaOsdSubpicture,
decoder->SurfacesFree, decoder->SurfaceFreeN, x, y, w, h,
decoder->CropX, decoder->CropY / 2, decoder->CropWidth,
decoder->CropHeight, 0)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't associate subpicture\n"));
}
if (decoder->SurfaceUsedN
&& vaAssociateSubpicture(VaDisplay, VaOsdSubpicture,
decoder->SurfacesUsed, decoder->SurfaceUsedN, x, y, w, h,
decoder->CropX, decoder->CropY / 2, decoder->CropWidth,
decoder->CropHeight, 0)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't associate subpicture\n"));
}
}
}
///
/// Deassociate OSD with surface.
///
/// @param decoder VA-API decoder
///
static void VaapiDeassociate(VaapiDecoder * decoder)
{
if (VaOsdSubpicture != VA_INVALID_ID) {
if (decoder->SurfaceFreeN
&& vaDeassociateSubpicture(VaDisplay, VaOsdSubpicture,
decoder->SurfacesFree, decoder->SurfaceFreeN)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't deassociate %d surfaces\n"),
decoder->SurfaceFreeN);
}
if (decoder->SurfaceUsedN
&& vaDeassociateSubpicture(VaDisplay, VaOsdSubpicture,
decoder->SurfacesUsed, decoder->SurfaceUsedN)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't deassociate %d surfaces\n"),
decoder->SurfaceUsedN);
}
}
}
///
/// Create surfaces for VA-API decoder.
///
/// @param decoder VA-API decoder
/// @param width surface source/video width
/// @param height surface source/video height
///
static void VaapiCreateSurfaces(VaapiDecoder * decoder, int width, int height)
{
#ifdef DEBUG
if (!decoder->SurfacesNeeded) {
Error(_("video/vaapi: surface needed not set\n"));
decoder->SurfacesNeeded = 3 + VIDEO_SURFACES_MAX;
}
#endif
Debug(3, "video/vaapi: %s: %dx%d * %d\n", __FUNCTION__, width, height,
decoder->SurfacesNeeded);
decoder->SurfaceFreeN = decoder->SurfacesNeeded;
// VA_RT_FORMAT_YUV420 VA_RT_FORMAT_YUV422 VA_RT_FORMAT_YUV444
if (vaCreateSurfaces(decoder->VaDisplay, width, height,
VA_RT_FORMAT_YUV420, decoder->SurfaceFreeN,
decoder->SurfacesFree) != VA_STATUS_SUCCESS) {
Fatal(_("video/vaapi: can't create %d surfaces\n"),
decoder->SurfaceFreeN);
// FIXME: write error handler / fallback
}
}
///
/// Destroy surfaces of VA-API decoder.
///
/// @param decoder VA-API decoder
///
static void VaapiDestroySurfaces(VaapiDecoder * decoder)
{
Debug(3, "video/vaapi: %s:\n", __FUNCTION__);
//
// update OSD associate
//
VaapiDeassociate(decoder);
if (vaDestroySurfaces(decoder->VaDisplay, decoder->SurfacesFree,
decoder->SurfaceFreeN)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy %d surfaces\n"),
decoder->SurfaceFreeN);
}
decoder->SurfaceFreeN = 0;
if (vaDestroySurfaces(decoder->VaDisplay, decoder->SurfacesUsed,
decoder->SurfaceUsedN)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy %d surfaces\n"),
decoder->SurfaceUsedN);
}
decoder->SurfaceUsedN = 0;
// FIXME surfaces used for output
}
/// forward definition release surface
static void VaapiReleaseSurface(VaapiDecoder *, VASurfaceID);
///
/// Get a free surface.
///
/// @param decoder VA-API decoder
///
/// @returns the oldest free surface
///
static VASurfaceID VaapiGetSurface(VaapiDecoder * decoder)
{
VASurfaceID surface;
VASurfaceStatus status;
int i;
// try to use oldest surface
for (i = 0; i < decoder->SurfaceFreeN; ++i) {
surface = decoder->SurfacesFree[i];
if (vaQuerySurfaceStatus(decoder->VaDisplay, surface, &status)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaQuerySurface failed\n"));
status = VASurfaceReady;
}
// surface still in use, try next
if (status != VASurfaceReady) {
Debug(3, "video/vaapi: surface %#010x not ready: %d\n", surface,
status);
if (!VaapiBuggyVdpau || i < 1) {
continue;
}
usleep(1 * 1000);
}
// copy remaining surfaces down
decoder->SurfaceFreeN--;
for (; i < decoder->SurfaceFreeN; ++i) {
decoder->SurfacesFree[i] = decoder->SurfacesFree[i + 1];
}
decoder->SurfacesFree[i] = VA_INVALID_ID;
// save as used
decoder->SurfacesUsed[decoder->SurfaceUsedN++] = surface;
return surface;
}
Error(_("video/vaapi: out of surfaces\n"));
return VA_INVALID_ID;
}
///
/// Release a surface.
///
/// @param decoder VA-API decoder
/// @param surface surface no longer used
///
static void VaapiReleaseSurface(VaapiDecoder * decoder, VASurfaceID surface)
{
int i;
for (i = 0; i < decoder->SurfaceUsedN; ++i) {
if (decoder->SurfacesUsed[i] == surface) {
// no problem, with last used
decoder->SurfacesUsed[i] =
decoder->SurfacesUsed[--decoder->SurfaceUsedN];
decoder->SurfacesFree[decoder->SurfaceFreeN++] = surface;
return;
}
}
Error(_("video/vaapi: release surface %#010x, which is not in use\n"),
surface);
}
// Init/Exit ------------------------------------------------------------
///
/// Debug VA-API decoder frames drop...
///
/// @param decoder video hardware decoder
///
static void VaapiPrintFrames(const VaapiDecoder * decoder)
{
Debug(3, "video/vaapi: %d missed, %d duped, %d dropped frames of %d\n",
decoder->FramesMissed, decoder->FramesDuped, decoder->FramesDropped,
decoder->FrameCounter);
#ifndef DEBUG
(void)decoder;
#endif
}
///
/// Initialize surface flags.
///
/// @param decoder video hardware decoder
///
static void VaapiInitSurfaceFlags(VaapiDecoder * decoder)
{
int i;
for (i = 0; i < VideoResolutionMax; ++i) {
decoder->SurfaceFlagsTable[i] = VA_CLEAR_DRAWABLE;
// color space conversion none, ITU-R BT.601, ITU-R BT.709
if (i > VideoResolution576i) {
decoder->SurfaceFlagsTable[i] |= VA_SRC_BT709;
} else {
decoder->SurfaceFlagsTable[i] |= VA_SRC_BT601;
}
// scaling flags FAST, HQ, NL_ANAMORPHIC
// FIXME: need to detect the backend to choose the parameter
switch (VideoScaling[i]) {
case VideoScalingNormal:
decoder->SurfaceFlagsTable[i] |= VA_FILTER_SCALING_DEFAULT;
break;
case VideoScalingFast:
decoder->SurfaceFlagsTable[i] |= VA_FILTER_SCALING_FAST;
break;
case VideoScalingHQ:
// vdpau backend supports only VA_FILTER_SCALING_HQ
// vdpau backend with advanced deinterlacer and my GT-210
// is too slow
decoder->SurfaceFlagsTable[i] |= VA_FILTER_SCALING_HQ;
break;
case VideoScalingAnamorphic:
// intel backend supports only VA_FILTER_SCALING_NL_ANAMORPHIC;
// don't use it, its for 4:3 -> 16:9 scaling
decoder->SurfaceFlagsTable[i] |=
VA_FILTER_SCALING_NL_ANAMORPHIC;
break;
}
// deinterlace flags (not yet supported by libva)
switch (VideoDeinterlace[i]) {
case VideoDeinterlaceBob:
break;
case VideoDeinterlaceWeave:
break;
case VideoDeinterlaceTemporal:
//FIXME: private hack
//decoder->SurfaceFlagsTable[i] |= 0x00002000;
break;
case VideoDeinterlaceTemporalSpatial:
//FIXME: private hack
//decoder->SurfaceFlagsTable[i] |= 0x00006000;
break;
case VideoDeinterlaceSoftware:
break;
}
}
}
///
/// Allocate new VA-API decoder.
///
/// @returns a new prepared va-api hardware decoder.
///
static VaapiDecoder *VaapiNewDecoder(void)
{
VaapiDecoder *decoder;
int i;
if (VaapiDecoderN == 1) {
Fatal(_("video/vaapi: out of decoders\n"));
}
if (!(decoder = calloc(1, sizeof(*decoder)))) {
Fatal(_("video/vaapi: out of memory\n"));
}
decoder->VaDisplay = VaDisplay;
decoder->Window = VideoWindow;
VaapiInitSurfaceFlags(decoder);
decoder->DeintImages[0].image_id = VA_INVALID_ID;
decoder->DeintImages[1].image_id = VA_INVALID_ID;
decoder->DeintImages[2].image_id = VA_INVALID_ID;
decoder->DeintImages[3].image_id = VA_INVALID_ID;
decoder->DeintImages[4].image_id = VA_INVALID_ID;
decoder->Image->image_id = VA_INVALID_ID;
for (i = 0; i < CODEC_SURFACES_MAX; ++i) {
decoder->SurfacesUsed[i] = VA_INVALID_ID;
decoder->SurfacesFree[i] = VA_INVALID_ID;
}
// setup video surface ring buffer
atomic_set(&decoder->SurfacesFilled, 0);
for (i = 0; i < VIDEO_SURFACES_MAX; ++i) {
decoder->SurfacesRb[i] = VA_INVALID_ID;
}
decoder->BlackSurface = VA_INVALID_ID;
//
// Setup ffmpeg vaapi context
//
decoder->VaapiContext->display = VaDisplay;
decoder->VaapiContext->config_id = VA_INVALID_ID;
decoder->VaapiContext->context_id = VA_INVALID_ID;
#ifdef USE_GLX
decoder->GlxSurface[0] = VA_INVALID_ID;
decoder->GlxSurface[1] = VA_INVALID_ID;
if (GlxEnabled) {
// FIXME: create GLX context here
}
#endif
decoder->OutputWidth = VideoWindowWidth;
decoder->OutputHeight = VideoWindowHeight;
decoder->GetPutImage = !VaapiBuggyIntel;
VaapiDecoders[VaapiDecoderN++] = decoder;
return decoder;
}
///
/// Cleanup VA-API.
///
/// @param decoder va-api hw decoder
///
static void VaapiCleanup(VaapiDecoder * decoder)
{
int filled;
VASurfaceID surface;
int i;
// flush output queue, only 1-2 frames buffered, no big loss
while ((filled = atomic_read(&decoder->SurfacesFilled))) {
decoder->SurfaceRead = (decoder->SurfaceRead + 1) % VIDEO_SURFACES_MAX;
atomic_dec(&decoder->SurfacesFilled);
surface = decoder->SurfacesRb[decoder->SurfaceRead];
if (surface == VA_INVALID_ID) {
Error(_("video/vaapi: invalid surface in ringbuffer\n"));
continue;
}
// can crash and hang
if (0 && vaSyncSurface(decoder->VaDisplay, surface)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaSyncSurface failed\n"));
}
}
if (decoder->SurfaceRead != decoder->SurfaceWrite) {
abort();
}
// clear ring buffer
for (i = 0; i < VIDEO_SURFACES_MAX; ++i) {
decoder->SurfacesRb[i] = VA_INVALID_ID;
}
decoder->WrongInterlacedWarned = 0;
// cleanup image
if (decoder->Image->image_id != VA_INVALID_ID) {
if (vaDestroyImage(VaDisplay,
decoder->Image->image_id) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy image!\n"));
}
decoder->Image->image_id = VA_INVALID_ID;
}
// cleanup context and config
if (decoder->VaapiContext) {
if (decoder->VaapiContext->context_id != VA_INVALID_ID) {
if (vaDestroyContext(VaDisplay,
decoder->VaapiContext->context_id) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy context!\n"));
}
decoder->VaapiContext->context_id = VA_INVALID_ID;
}
if (decoder->VaapiContext->config_id != VA_INVALID_ID) {
if (vaDestroyConfig(VaDisplay,
decoder->VaapiContext->config_id) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy config!\n"));
}
decoder->VaapiContext->config_id = VA_INVALID_ID;
}
}
// cleanup surfaces
if (decoder->SurfaceFreeN || decoder->SurfaceUsedN) {
VaapiDestroySurfaces(decoder);
}
// cleanup images
if (decoder->DeintImages[0].image_id != VA_INVALID_ID) {
VaapiDestroyDeinterlaceImages(decoder);
}
decoder->SurfaceField = 1;
//decoder->FrameCounter = 0;
decoder->PTS = AV_NOPTS_VALUE;
VideoDeltaPTS = 0;
}
///
/// Destroy a VA-API decoder.
///
/// @param decoder VA-API decoder
///
static void VaapiDelDecoder(VaapiDecoder * decoder)
{
int i;
for (i = 0; i < VaapiDecoderN; ++i) {
if (VaapiDecoders[i] == decoder) {
VaapiDecoders[i] = NULL;
VaapiDecoderN--;
// FIXME: must copy last slot into empty slot and --
break;
}
}
VaapiCleanup(decoder);
if (decoder->BlackSurface != VA_INVALID_ID) {
//
// update OSD associate
//
if (VaOsdSubpicture != VA_INVALID_ID) {
if (vaDeassociateSubpicture(VaDisplay, VaOsdSubpicture,
&decoder->BlackSurface, 1) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't deassociate black surfaces\n"));
}
}
if (vaDestroySurfaces(decoder->VaDisplay, &decoder->BlackSurface, 1)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy a surface\n"));
}
}
#ifdef USE_GLX
if (decoder->GlxSurface[0] != VA_INVALID_ID) {
if (vaDestroySurfaceGLX(VaDisplay, decoder->GlxSurface[0])
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy glx surface!\n"));
}
}
if (decoder->GlxSurface[1] != VA_INVALID_ID) {
if (vaDestroySurfaceGLX(VaDisplay, decoder->GlxSurface[1])
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy glx surface!\n"));
}
}
if (decoder->GlTexture[0]) {
glDeleteTextures(2, decoder->GlTexture);
}
#endif
VaapiPrintFrames(decoder);
free(decoder);
}
static VAProfile VaapiFindProfile(const VAProfile * profiles, unsigned n,
VAProfile profile);
static VAEntrypoint VaapiFindEntrypoint(const VAEntrypoint * entrypoints,
unsigned n, VAEntrypoint entrypoint);
///
/// 1080i
///
static void Vaapi1080i(void)
{
VAProfile profiles[vaMaxNumProfiles(VaDisplay)];
int profile_n;
VAEntrypoint entrypoints[vaMaxNumEntrypoints(VaDisplay)];
int entrypoint_n;
int p;
int e;
VAConfigAttrib attrib;
VAConfigID config_id;
VAContextID context_id;
VASurfaceID surfaces[32];
int n;
uint32_t start_tick;
uint32_t tick;
p = -1;
e = -1;
// prepare va-api profiles
if (vaQueryConfigProfiles(VaDisplay, profiles, &profile_n)) {
Error(_("codec: vaQueryConfigProfiles failed"));
return;
}
// check profile
p = VaapiFindProfile(profiles, profile_n, VAProfileH264High);
if (p == -1) {
Debug(3, "\tno profile found\n");
return;
}
// prepare va-api entry points
if (vaQueryConfigEntrypoints(VaDisplay, p, entrypoints, &entrypoint_n)) {
Error(_("codec: vaQueryConfigEntrypoints failed"));
return;
}
e = VaapiFindEntrypoint(entrypoints, entrypoint_n, VAEntrypointVLD);
if (e == -1) {
Warning(_("codec: unsupported: slow path\n"));
return;
}
memset(&attrib, 0, sizeof(attrib));
attrib.type = VAConfigAttribRTFormat;
attrib.value = VA_RT_FORMAT_YUV420;
// create a configuration for the decode pipeline
if (vaCreateConfig(VaDisplay, p, e, &attrib, 1, &config_id)) {
Error(_("codec: can't create config"));
return;
}
if (vaCreateSurfaces(VaDisplay, 1920, 1080, VA_RT_FORMAT_YUV420, 32,
surfaces) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't create surfaces\n"));
return;
}
// bind surfaces to context
if (vaCreateContext(VaDisplay, config_id, 1920, 1080, VA_PROGRESSIVE,
surfaces, 32, &context_id)) {
Error(_("codec: can't create context"));
return;
}
start_tick = GetMsTicks();
for (n = 1; n < 10000; ++n) {
if (vaPutSurface(VaDisplay, surfaces[0], VideoWindow,
// decoder src
0, 0, 1920, 1080,
// video dst
0, 0, 1920, 1080, NULL, 0, VA_TOP_FIELD | VA_CLEAR_DRAWABLE)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaPutSurface failed\n"));
}
if (vaPutSurface(VaDisplay, surfaces[0], VideoWindow,
// decoder src
0, 0, 1920, 1080,
// video dst
0, 0, 1920, 1080, NULL, 0, VA_BOTTOM_FIELD | VA_CLEAR_DRAWABLE)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaPutSurface failed\n"));
}
tick = GetMsTicks();
if (!(n % 100)) {
fprintf(stderr, "%d ms / frame\n", (tick - start_tick) / n);
}
}
// destory the stuff.
if (vaDestroyContext(VaDisplay, context_id) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy context!\n"));
}
if (vaDestroySurfaces(VaDisplay, surfaces, 32) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy surfaces\n"));
}
if (vaDestroyConfig(VaDisplay, config_id) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy config!\n"));
}
printf("done\n");
}
///
/// VA-API setup.
///
/// @param display_name x11/xcb display name
///
/// @returns true if VA-API could be initialized, false otherwise.
///
static int VaapiInit(const char *display_name)
{
int major;
int minor;
VADisplayAttribute attr;
const char *s;
VaOsdImage.image_id = VA_INVALID_ID;
VaOsdSubpicture = VA_INVALID_ID;
#ifdef USE_GLX
if (GlxEnabled) { // support glx
VaDisplay = vaGetDisplayGLX(XlibDisplay);
} else
#endif
{
VaDisplay = vaGetDisplay(XlibDisplay);
}
if (!VaDisplay) {
Error(_("video/vaapi: Can't connect VA-API to X11 server on '%s'"),
display_name);
return 0;
}
if (vaInitialize(VaDisplay, &major, &minor) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: Can't inititialize VA-API on '%s'"),
display_name);
vaTerminate(VaDisplay);
VaDisplay = NULL;
return 0;
}
s = vaQueryVendorString(VaDisplay);
Info(_("video/vaapi: libva %d.%d (%s) initialized\n"), major, minor, s);
//
// Setup fixes for driver bugs.
//
if (strstr(s, "VDPAU")) {
Info(_("video/vaapi: use vdpau bug workaround\n"));
setenv("VDPAU_VIDEO_PUTSURFACE_FAST", "0", 0);
VaapiBuggyVdpau = 1;
}
if (strstr(s, "Intel i965")) {
VaapiBuggyIntel = 1;
}
//
// check if driver makes a copy of the VA surface for display.
//
attr.type = VADisplayAttribDirectSurface;
attr.flags = VA_DISPLAY_ATTRIB_GETTABLE;
if (vaGetDisplayAttributes(VaDisplay, &attr, 1) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: Can't get direct-surface attribute\n"));
attr.value = 1;
}
Info(_("video/vaapi: VA surface is %s\n"),
attr.value ? _("direct mapped") : _("copied"));
// FIXME: handle the cases: new liba: Don't use it.
#if 0
//
// check the chroma format
//
attr.type = VAConfigAttribRTFormat attr.flags = VA_DISPLAY_ATTRIB_GETTABLE;
Vaapi1080i();
#endif
return 1;
}
///
/// VA-API cleanup
///
static void VaapiExit(void)
{
int i;
// FIXME: more VA-API cleanups...
// FIXME: can hang with vdpau in pthread_rwlock_wrlock
for (i = 0; i < VaapiDecoderN; ++i) {
if (VaapiDecoders[i]) {
VaapiDelDecoder(VaapiDecoders[i]);
VaapiDecoders[i] = NULL;
}
}
VaapiDecoderN = 0;
if (!VaDisplay) {
vaTerminate(VaDisplay);
VaDisplay = NULL;
}
}
//----------------------------------------------------------------------------
///
/// Update output for new size or aspect ratio.
///
/// @param decoder VA-API decoder
///
static void VaapiUpdateOutput(VaapiDecoder * decoder)
{
VideoUpdateOutput(decoder->InputAspect, decoder->InputWidth,
decoder->InputHeight, &decoder->OutputX, &decoder->OutputY,
&decoder->OutputWidth, &decoder->OutputHeight, &decoder->CropX,
&decoder->CropY, &decoder->CropWidth, &decoder->CropHeight);
#ifdef USE_AUTOCROP
decoder->AutoCrop->State = 0;
decoder->AutoCrop->Count = AutoCropDelay;
#endif
}
///
/// Find VA-API profile.
///
/// Check if the requested profile is supported by VA-API.
///
/// @param profiles a table of all supported profiles
/// @param n number of supported profiles
/// @param profile requested profile
///
/// @returns the profile if supported, -1 if unsupported.
///
static VAProfile VaapiFindProfile(const VAProfile * profiles, unsigned n,
VAProfile profile)
{
unsigned u;
for (u = 0; u < n; ++u) {
if (profiles[u] == profile) {
return profile;
}
}
return -1;
}
///
/// Find VA-API entry point.
///
/// Check if the requested entry point is supported by VA-API.
///
/// @param entrypoints a table of all supported entrypoints
/// @param n number of supported entrypoints
/// @param entrypoint requested entrypoint
///
/// @returns the entry point if supported, -1 if unsupported.
///
static VAEntrypoint VaapiFindEntrypoint(const VAEntrypoint * entrypoints,
unsigned n, VAEntrypoint entrypoint)
{
unsigned u;
for (u = 0; u < n; ++u) {
if (entrypoints[u] == entrypoint) {
return entrypoint;
}
}
return -1;
}
///
/// Callback to negotiate the PixelFormat.
///
/// @param fmt is the list of formats which are supported by the codec,
/// it is terminated by -1 as 0 is a valid format, the
/// formats are ordered by quality.
///
/// @note + 2 surface for software deinterlace
///
static enum PixelFormat Vaapi_get_format(VaapiDecoder * decoder,
AVCodecContext * video_ctx, const enum PixelFormat *fmt)
{
const enum PixelFormat *fmt_idx;
VAProfile profiles[vaMaxNumProfiles(VaDisplay)];
int profile_n;
VAEntrypoint entrypoints[vaMaxNumEntrypoints(VaDisplay)];
int entrypoint_n;
int p;
int e;
VAConfigAttrib attrib;
Debug(3, "video: new stream format %d\n", GetMsTicks() - VideoSwitch);
// create initial black surface and display
VaapiBlackSurface(decoder);
// cleanup last context
VaapiCleanup(decoder);
if (!VideoHardwareDecoder || (video_ctx->codec_id == CODEC_ID_MPEG2VIDEO
&& VideoHardwareDecoder == 1)
) { // hardware disabled by config
Debug(3, "codec: hardware acceleration disabled\n");
goto slow_path;
}
p = -1;
e = -1;
// prepare va-api profiles
if (vaQueryConfigProfiles(VaDisplay, profiles, &profile_n)) {
Error(_("codec: vaQueryConfigProfiles failed"));
goto slow_path;
}
Debug(3, "codec: %d profiles\n", profile_n);
// check profile
switch (video_ctx->codec_id) {
case CODEC_ID_MPEG2VIDEO:
decoder->SurfacesNeeded =
CODEC_SURFACES_MPEG2 + VIDEO_SURFACES_MAX + 2;
p = VaapiFindProfile(profiles, profile_n, VAProfileMPEG2Main);
break;
case CODEC_ID_MPEG4:
case CODEC_ID_H263:
decoder->SurfacesNeeded =
CODEC_SURFACES_MPEG4 + VIDEO_SURFACES_MAX + 2;
p = VaapiFindProfile(profiles, profile_n,
VAProfileMPEG4AdvancedSimple);
break;
case CODEC_ID_H264:
decoder->SurfacesNeeded =
CODEC_SURFACES_H264 + VIDEO_SURFACES_MAX + 2;
// try more simple formats, fallback to better
if (video_ctx->profile == FF_PROFILE_H264_BASELINE) {
p = VaapiFindProfile(profiles, profile_n,
VAProfileH264Baseline);
if (p == -1) {
p = VaapiFindProfile(profiles, profile_n,
VAProfileH264Main);
}
} else if (video_ctx->profile == FF_PROFILE_H264_MAIN) {
p = VaapiFindProfile(profiles, profile_n, VAProfileH264Main);
}
if (p == -1) {
p = VaapiFindProfile(profiles, profile_n, VAProfileH264High);
}
break;
case CODEC_ID_WMV3:
decoder->SurfacesNeeded =
CODEC_SURFACES_VC1 + VIDEO_SURFACES_MAX + 2;
p = VaapiFindProfile(profiles, profile_n, VAProfileVC1Main);
break;
case CODEC_ID_VC1:
decoder->SurfacesNeeded =
CODEC_SURFACES_VC1 + VIDEO_SURFACES_MAX + 2;
p = VaapiFindProfile(profiles, profile_n, VAProfileVC1Advanced);
break;
default:
goto slow_path;
}
if (p == -1) {
Debug(3, "\tno profile found\n");
goto slow_path;
}
Debug(3, "\tprofile %d\n", p);
// prepare va-api entry points
if (vaQueryConfigEntrypoints(VaDisplay, p, entrypoints, &entrypoint_n)) {
Error(_("codec: vaQueryConfigEntrypoints failed"));
goto slow_path;
}
Debug(3, "codec: %d entrypoints\n", entrypoint_n);
// look through formats
for (fmt_idx = fmt; *fmt_idx != PIX_FMT_NONE; fmt_idx++) {
Debug(3, "\t%#010x %s\n", *fmt_idx, av_get_pix_fmt_name(*fmt_idx));
// check supported pixel format with entry point
switch (*fmt_idx) {
case PIX_FMT_VAAPI_VLD:
e = VaapiFindEntrypoint(entrypoints, entrypoint_n,
VAEntrypointVLD);
break;
case PIX_FMT_VAAPI_MOCO:
case PIX_FMT_VAAPI_IDCT:
Debug(3, "codec: this VA-API pixel format is not supported\n");
default:
continue;
}
if (e != -1) {
Debug(3, "\tentry point %d\n", e);
break;
}
}
if (e == -1) {
Warning(_("codec: unsupported: slow path\n"));
goto slow_path;
}
//
// prepare decoder
//
memset(&attrib, 0, sizeof(attrib));
attrib.type = VAConfigAttribRTFormat;
if (vaGetConfigAttributes(decoder->VaDisplay, p, e, &attrib, 1)) {
Error(_("codec: can't get attributes"));
goto slow_path;
}
if (attrib.value & VA_RT_FORMAT_YUV420) {
Info(_("codec: YUV 420 supported\n"));
}
if (attrib.value & VA_RT_FORMAT_YUV422) {
Info(_("codec: YUV 422 supported\n"));
}
if (attrib.value & VA_RT_FORMAT_YUV444) {
Info(_("codec: YUV 444 supported\n"));
}
if (!(attrib.value & VA_RT_FORMAT_YUV420)) {
Warning(_("codec: YUV 420 not supported\n"));
goto slow_path;
}
// create a configuration for the decode pipeline
if (vaCreateConfig(decoder->VaDisplay, p, e, &attrib, 1,
&decoder->VaapiContext->config_id)) {
Error(_("codec: can't create config"));
goto slow_path;
}
// FIXME: interlaced not valid here?
decoder->Resolution =
VideoResolutionGroup(video_ctx->width, video_ctx->height,
decoder->Interlaced);
// FIXME: need only to create and destroy surfaces for size changes
// or when number of needed surfaces changed!
VaapiCreateSurfaces(decoder, video_ctx->width, video_ctx->height);
// bind surfaces to context
if (vaCreateContext(decoder->VaDisplay, decoder->VaapiContext->config_id,
video_ctx->width, video_ctx->height, VA_PROGRESSIVE,
decoder->SurfacesFree, decoder->SurfaceFreeN,
&decoder->VaapiContext->context_id)) {
Error(_("codec: can't create context"));
goto slow_path;
}
decoder->PixFmt = *fmt_idx;
decoder->InputWidth = video_ctx->width;
decoder->InputHeight = video_ctx->height;
decoder->InputAspect = video_ctx->sample_aspect_ratio;
VaapiUpdateOutput(decoder);
//
// update OSD associate
//
VaapiAssociate(decoder);
#ifdef USE_GLX
if (GlxEnabled) {
GlxSetupDecoder(decoder);
// FIXME: try two textures, but vdpau-backend supports only 1 surface
if (vaCreateSurfaceGLX(decoder->VaDisplay, GL_TEXTURE_2D,
decoder->GlTexture[0], &decoder->GlxSurface[0])
!= VA_STATUS_SUCCESS) {
Fatal(_("video/glx: can't create glx surfaces"));
}
// FIXME: this isn't usable with vdpau-backend
/*
if (vaCreateSurfaceGLX(decoder->VaDisplay, GL_TEXTURE_2D,
decoder->GlTexture[1], &decoder->GlxSurface[1])
!= VA_STATUS_SUCCESS) {
Fatal(_("video/glx: can't create glx surfaces"));
}
*/
}
#endif
Debug(3, "\t%#010x %s\n", fmt_idx[0], av_get_pix_fmt_name(fmt_idx[0]));
return *fmt_idx;
slow_path:
// no accelerated format found
decoder->SurfacesNeeded = VIDEO_SURFACES_MAX + 2;
decoder->InputWidth = 0;
decoder->InputHeight = 0;
video_ctx->hwaccel_context = NULL;
return avcodec_default_get_format(video_ctx, fmt);
}
///
/// Draw surface of the VA-API decoder with x11.
///
/// vaPutSurface with intel backend does sync on v-sync.
///
/// @param decoder VA-API decoder
/// @param surface VA-API surface id
/// @param interlaced flag interlaced source
/// @param top_field_first flag top_field_first for interlaced source
/// @param field interlaced draw: 0 first field, 1 second field
///
static void VaapiPutSurfaceX11(VaapiDecoder * decoder, VASurfaceID surface,
int interlaced, int top_field_first, int field)
{
unsigned type;
VAStatus status;
uint32_t s;
uint32_t e;
// deinterlace
if (interlaced
&& VideoDeinterlace[decoder->Resolution] != VideoDeinterlaceSoftware
&& VideoDeinterlace[decoder->Resolution] != VideoDeinterlaceWeave) {
if (top_field_first) {
if (field) {
type = VA_BOTTOM_FIELD;
} else {
type = VA_TOP_FIELD;
}
} else {
if (field) {
type = VA_TOP_FIELD;
} else {
type = VA_BOTTOM_FIELD;
}
}
} else {
type = VA_FRAME_PICTURE;
}
s = GetMsTicks();
xcb_flush(Connection);
if ((status = vaPutSurface(decoder->VaDisplay, surface, decoder->Window,
// decoder src
decoder->CropX, decoder->CropY, decoder->CropWidth,
decoder->CropHeight,
// video dst
decoder->OutputX, decoder->OutputY, decoder->OutputWidth,
decoder->OutputHeight, NULL, 0,
type | decoder->SurfaceFlagsTable[decoder->Resolution]))
!= VA_STATUS_SUCCESS) {
// switching video kills VdpPresentationQueueBlockUntilSurfaceIdle
Error(_("video/vaapi: vaPutSurface failed %d\n"), status);
}
if (0 && vaSyncSurface(decoder->VaDisplay, surface) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaSyncSurface failed\n"));
}
e = GetMsTicks();
if (e - s > 2000) {
Error(_("video/vaapi: gpu hung %d ms %d\n"), e - s,
decoder->FrameCounter);
fprintf(stderr, _("video/vaapi: gpu hung %d ms %d\n"), e - s,
decoder->FrameCounter);
}
if (0) {
// check if surface is really ready
// VDPAU backend, says always ready
VASurfaceStatus status;
if (vaQuerySurfaceStatus(decoder->VaDisplay, surface, &status)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaQuerySurface failed\n"));
status = VASurfaceReady;
}
if (status != VASurfaceReady) {
Warning(_
("video/vaapi: surface %#010x not ready: still displayed %d\n"),
surface, status);
return;
}
}
if (0) {
int i;
// look how the status changes the next 40ms
for (i = 0; i < 40; ++i) {
VASurfaceStatus status;
if (vaQuerySurfaceStatus(VaDisplay, surface,
&status) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaQuerySurface failed\n"));
}
Debug(3, "video/vaapi: %2d %d\n", i, status);
usleep(1 * 1000);
}
}
usleep(1 * 1000);
}
#ifdef USE_GLX
///
/// Render texture.
///
/// @param texture 2d texture
///
static inline void VideoRenderTexture(GLuint texture, int x, int y, int width,
int height)
{
glEnable(GL_TEXTURE_2D);
glBindTexture(GL_TEXTURE_2D, texture);
glColor4f(1.0f, 1.0f, 1.0f, 1.0f); // no color
glBegin(GL_QUADS); {
glTexCoord2f(1.0f, 1.0f);
glVertex2i(x + width, y + height);
glTexCoord2f(0.0f, 1.0f);
glVertex2i(x, y + height);
glTexCoord2f(0.0f, 0.0f);
glVertex2i(x, y);
glTexCoord2f(1.0f, 0.0f);
glVertex2i(x + width, y);
#if 0
glTexCoord2f(0.0f, 0.0f);
glVertex2i(x, y);
glTexCoord2f(0.0f, 1.0f);
glVertex2i(x, y + height);
glTexCoord2f(1.0f, 1.0f);
glVertex2i(x + width, y + height);
glTexCoord2f(1.0f, 0.0f);
glVertex2i(x + width, y);
#endif
}
glEnd();
glBindTexture(GL_TEXTURE_2D, 0);
glDisable(GL_TEXTURE_2D);
}
///
/// Draw surface of the VA-API decoder with glx.
///
/// @param decoder VA-API decoder
/// @param surface VA-API surface id
/// @param interlaced flag interlaced source
/// @param top_field_first flag top_field_first for interlaced source
/// @param field interlaced draw: 0 first field, 1 second field
///
static void VaapiPutSurfaceGLX(VaapiDecoder * decoder, VASurfaceID surface,
int interlaced, int top_field_first, int field)
{
unsigned type;
uint32_t start;
uint32_t copy;
uint32_t end;
// deinterlace
if (interlaced
&& VideoDeinterlace[decoder->Resolution] != VideoDeinterlaceWeave) {
if (top_field_first) {
if (field) {
type = VA_BOTTOM_FIELD;
} else {
type = VA_TOP_FIELD;
}
} else {
if (field) {
type = VA_TOP_FIELD;
} else {
type = VA_BOTTOM_FIELD;
}
}
} else {
type = VA_FRAME_PICTURE;
}
start = GetMsTicks();
if (vaCopySurfaceGLX(decoder->VaDisplay, decoder->GlxSurface[0], surface,
type | decoder->SurfaceFlagsTable[decoder->Resolution]) !=
VA_STATUS_SUCCESS) {
Error(_("video/glx: vaCopySurfaceGLX failed\n"));
return;
}
copy = GetMsTicks();
// hardware surfaces are always busy
VideoRenderTexture(decoder->GlTexture[0], decoder->OutputX,
decoder->OutputY, decoder->OutputWidth, decoder->OutputHeight);
end = GetMsTicks();
//Debug(3, "video/vaapi/glx: %d copy %d render\n", copy - start, end - copy);
}
#endif
///
/// Find VA-API image format.
///
/// @param decoder VA-API decoder
/// @param pix_fmt ffmpeg pixel format
/// @param[out] format image format
///
/// FIXME: can fallback from I420 to YV12, if not supported
/// FIXME: must check if put/get with this format is supported (see intel)
///
static int VaapiFindImageFormat(VaapiDecoder * decoder,
enum PixelFormat pix_fmt, VAImageFormat * format)
{
VAImageFormat *imgfrmts;
int imgfrmt_n;
int i;
unsigned fourcc;
switch (pix_fmt) { // convert ffmpeg to VA-API
// NV12, YV12, I420, BGRA
// intel: I420 is native format for MPEG-2 decoded surfaces
// intel: NV12 is native format for H.264 decoded surfaces
case PIX_FMT_YUV420P:
// fourcc = VA_FOURCC_YV12; // YVU
fourcc = VA_FOURCC('I', '4', '2', '0'); // YUV
break;
case PIX_FMT_NV12:
fourcc = VA_FOURCC_NV12;
break;
default:
Fatal(_("video/vaapi: unsupported pixel format %d\n"), pix_fmt);
}
imgfrmt_n = vaMaxNumImageFormats(decoder->VaDisplay);
imgfrmts = alloca(imgfrmt_n * sizeof(*imgfrmts));
if (vaQueryImageFormats(decoder->VaDisplay, imgfrmts, &imgfrmt_n)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaQueryImageFormats failed\n"));
return 0;
}
Debug(3, "video/vaapi: search format %c%c%c%c in %d image formats\n",
fourcc, fourcc >> 8, fourcc >> 16, fourcc >> 24, imgfrmt_n);
Debug(3, "video/vaapi: supported image formats:\n");
for (i = 0; i < imgfrmt_n; ++i) {
Debug(3, "video/vaapi:\t%c%c%c%c\t%d\n", imgfrmts[i].fourcc,
imgfrmts[i].fourcc >> 8, imgfrmts[i].fourcc >> 16,
imgfrmts[i].fourcc >> 24, imgfrmts[i].depth);
}
//
// search image format
//
for (i = 0; i < imgfrmt_n; ++i) {
if (imgfrmts[i].fourcc == fourcc) {
*format = imgfrmts[i];
Debug(3, "video/vaapi: use\t%c%c%c%c\t%d\n", imgfrmts[i].fourcc,
imgfrmts[i].fourcc >> 8, imgfrmts[i].fourcc >> 16,
imgfrmts[i].fourcc >> 24, imgfrmts[i].depth);
return 1;
}
}
Fatal("video/vaapi: pixel format %d unsupported by VA-API\n", pix_fmt);
// FIXME: no fatal error!
return 0;
}
///
/// Configure VA-API for new video format.
///
/// @param decoder VA-API decoder
///
/// @note called only for software decoder.
/// @note FIXME: combine with hardware decoder setup.
///
static void VaapiSetup(VaapiDecoder * decoder,
const AVCodecContext * video_ctx)
{
int width;
int height;
VAImageFormat format[1];
// create initial black surface and display
VaapiBlackSurface(decoder);
// cleanup last context
VaapiCleanup(decoder);
width = video_ctx->width;
height = video_ctx->height;
// FIXME: remove this if
if (decoder->Image->image_id != VA_INVALID_ID) {
abort(); // should be done by VaapiCleanup()
}
VaapiFindImageFormat(decoder, video_ctx->pix_fmt, format);
// FIXME: this image is only needed for software decoder and auto-crop
if (decoder->GetPutImage
&& vaCreateImage(VaDisplay, format, width, height,
decoder->Image) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't create image!\n"));
}
Debug(3,
"video/vaapi: created image %dx%d with id 0x%08x and buffer id 0x%08x\n",
width, height, decoder->Image->image_id, decoder->Image->buf);
// FIXME: interlaced not valid here?
decoder->Resolution =
VideoResolutionGroup(width, height, decoder->Interlaced);
VaapiCreateSurfaces(decoder, width, height);
#ifdef USE_GLX
if (GlxEnabled) {
// FIXME: destroy old context
GlxSetupDecoder(decoder);
// FIXME: try two textures
if (vaCreateSurfaceGLX(decoder->VaDisplay, GL_TEXTURE_2D,
decoder->GlTexture[0], &decoder->GlxSurface[0])
!= VA_STATUS_SUCCESS) {
Fatal(_("video/glx: can't create glx surfaces"));
}
/*
if (vaCreateSurfaceGLX(decoder->VaDisplay, GL_TEXTURE_2D,
decoder->GlTexture[1], &decoder->GlxSurface[1])
!= VA_STATUS_SUCCESS) {
Fatal(_("video/glx: can't create glx surfaces"));
}
*/
}
#endif
VaapiUpdateOutput(decoder);
//
// update OSD associate
//
VaapiAssociate(decoder);
}
#ifdef USE_AUTOCROP
///
/// VA-API auto-crop support.
///
/// @param decoder VA-API hw decoder
///
static void VaapiAutoCrop(VaapiDecoder * decoder)
{
VASurfaceID surface;
uint32_t width;
uint32_t height;
void *va_image_data;
void *data[3];
uint32_t pitches[3];
int crop14;
int crop16;
int next_state;
int i;
width = decoder->InputWidth;
height = decoder->InputHeight;
again:
if (decoder->GetPutImage && decoder->Image->image_id == VA_INVALID_ID) {
VAImageFormat format[1];
Debug(3, "video/vaapi: download image not available\n");
// FIXME: PixFmt not set!
//VaapiFindImageFormat(decoder, decoder->PixFmt, format);
VaapiFindImageFormat(decoder, PIX_FMT_NV12, format);
//VaapiFindImageFormat(decoder, PIX_FMT_YUV420P, format);
if (vaCreateImage(VaDisplay, format, width, height,
decoder->Image) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't create image!\n"));
return;
}
}
// no problem to go back, we just wrote it
// FIXME: we can pass the surface through.
surface =
decoder->SurfacesRb[(decoder->SurfaceWrite + VIDEO_SURFACES_MAX -
1) % VIDEO_SURFACES_MAX];
// Copy data from frame to image
if (!decoder->GetPutImage
&& vaDeriveImage(decoder->VaDisplay, surface,
decoder->Image) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaDeriveImage failed\n"));
decoder->GetPutImage = 1;
goto again;
}
if (decoder->GetPutImage
&& (i =
vaGetImage(decoder->VaDisplay, surface, 0, 0, decoder->InputWidth,
decoder->InputHeight,
decoder->Image->image_id)) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't get auto-crop image %d\n"), i);
printf(_("video/vaapi: can't get auto-crop image %d\n"), i);
return;
}
if (vaMapBuffer(VaDisplay, decoder->Image->buf, &va_image_data)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't map auto-crop image!\n"));
return;
}
// convert vaapi to our frame format
for (i = 0; (unsigned)i < decoder->Image->num_planes; ++i) {
data[i] = va_image_data + decoder->Image->offsets[i];
pitches[i] = decoder->Image->pitches[i];
}
AutoCropDetect(decoder->AutoCrop, width, height, data, pitches);
if (vaUnmapBuffer(VaDisplay, decoder->Image->buf) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't unmap auto-crop image!\n"));
}
if (!decoder->GetPutImage) {
if (vaDestroyImage(VaDisplay, decoder->Image->image_id)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy image!\n"));
}
decoder->Image->image_id = VA_INVALID_ID;
}
// FIXME: this a copy of vdpau, combine the two same things
// ignore black frames
if (decoder->AutoCrop->Y1 >= decoder->AutoCrop->Y2) {
return;
}
crop14 =
(decoder->InputWidth * decoder->InputAspect.num * 9) /
(decoder->InputAspect.den * 14);
crop14 = (decoder->InputHeight - crop14) / 2;
crop16 =
(decoder->InputWidth * decoder->InputAspect.num * 9) /
(decoder->InputAspect.den * 16);
crop16 = (decoder->InputHeight - crop16) / 2;
if (decoder->AutoCrop->Y1 >= crop16 - AutoCropTolerance
&& decoder->InputHeight - decoder->AutoCrop->Y2 >=
crop16 - AutoCropTolerance) {
next_state = 16;
} else if (decoder->AutoCrop->Y1 >= crop14 - AutoCropTolerance
&& decoder->InputHeight - decoder->AutoCrop->Y2 >=
crop14 - AutoCropTolerance) {
next_state = 14;
} else {
next_state = 0;
}
if (decoder->AutoCrop->State == next_state) {
return;
}
Debug(3, "video: crop aspect %d:%d %d/%d %d+%d\n",
decoder->InputAspect.num, decoder->InputAspect.den, crop14, crop16,
decoder->AutoCrop->Y1, decoder->InputHeight - decoder->AutoCrop->Y2);
Debug(3, "video: crop aspect %d -> %d\n", decoder->AutoCrop->State,
next_state);
switch (decoder->AutoCrop->State) {
case 16:
case 14:
if (decoder->AutoCrop->Count++ < AutoCropDelay / 2) {
return;
}
break;
case 0:
if (decoder->AutoCrop->Count++ < AutoCropDelay) {
return;
}
break;
}
decoder->AutoCrop->State = next_state;
if (next_state) {
decoder->CropX = 0;
decoder->CropY = (next_state == 16 ? crop16 : crop14) + VideoSkipLines;
decoder->CropWidth = decoder->InputWidth;
decoder->CropHeight = decoder->InputHeight - decoder->CropY * 2;
// FIXME: this overwrites user choosen output position
// FIXME: resize kills the auto crop values
// FIXME: support other 4:3 zoom modes
decoder->OutputX = 0;
decoder->OutputY = 0;
decoder->OutputWidth = (VideoWindowHeight * next_state) / 9;
decoder->OutputHeight = (VideoWindowWidth * 9) / next_state;
if ((unsigned)decoder->OutputWidth > VideoWindowWidth) {
decoder->OutputWidth = VideoWindowWidth;
decoder->OutputY = (VideoWindowHeight - decoder->OutputHeight) / 2;
} else if ((unsigned)decoder->OutputHeight > VideoWindowHeight) {
decoder->OutputHeight = VideoWindowHeight;
decoder->OutputX = (VideoWindowWidth - decoder->OutputWidth) / 2;
}
Debug(3, "video: aspect output %dx%d %dx%d+%d+%d\n",
decoder->InputWidth, decoder->InputHeight, decoder->OutputWidth,
decoder->OutputHeight, decoder->OutputX, decoder->OutputY);
} else {
// sets AutoCrop->Count
VaapiUpdateOutput(decoder);
}
decoder->AutoCrop->Count = 0;
//
// update OSD associate
//
VaapiDeassociate(decoder);
VaapiAssociate(decoder);
}
///
/// VA-API check if auto-crop todo.
///
/// @param decoder VA-API hw decoder
///
/// @note a copy of VdpauCheckAutoCrop
/// @note auto-crop only supported with normal 4:3 display mode
///
static void VaapiCheckAutoCrop(VaapiDecoder * decoder)
{
// reduce load, check only n frames
if (Video4to3ZoomMode == VideoNormal && AutoCropInterval
&& !(decoder->FrameCounter % AutoCropInterval)) {
AVRational display_aspect_ratio;
av_reduce(&display_aspect_ratio.num, &display_aspect_ratio.den,
decoder->InputWidth * decoder->InputAspect.num,
decoder->InputHeight * decoder->InputAspect.den, 1024 * 1024);
// only 4:3 with 16:9/14:9 inside supported
if (display_aspect_ratio.num == 4 && display_aspect_ratio.den == 3) {
VaapiAutoCrop(decoder);
} else {
decoder->AutoCrop->Count = 0;
decoder->AutoCrop->State = 0;
}
}
}
///
/// VA-API reset auto-crop.
///
static void VaapiResetAutoCrop(void)
{
int i;
for (i = 0; i < VaapiDecoderN; ++i) {
VaapiDecoders[i]->AutoCrop->State = 0;
VaapiDecoders[i]->AutoCrop->Count = 0;
}
}
#endif
///
/// Queue output surface.
///
/// @param decoder VA-API decoder
/// @param surface output surface
/// @param softdec software decoder
///
/// @note we can't mix software and hardware decoder surfaces
///
static void VaapiQueueSurface(VaapiDecoder * decoder, VASurfaceID surface,
int softdec)
{
VASurfaceID old;
++decoder->FrameCounter;
if (1) { // can't wait for output queue empty
if (atomic_read(&decoder->SurfacesFilled) >= VIDEO_SURFACES_MAX) {
++decoder->FramesDropped;
Warning(_("video: output buffer full, dropping frame (%d/%d)\n"),
decoder->FramesDropped, decoder->FrameCounter);
if (!(decoder->FramesDisplayed % 300)) {
VaapiPrintFrames(decoder);
}
if (softdec) { // software surfaces only
VaapiReleaseSurface(decoder, surface);
}
return;
}
#if 0
} else { // wait for output queue empty
while (atomic_read(&decoder->SurfacesFilled) >= VIDEO_SURFACES_MAX) {
VideoDisplayHandler();
}
#endif
}
//
// Check and release, old surface
//
if ((old = decoder->SurfacesRb[decoder->SurfaceWrite])
!= VA_INVALID_ID) {
if (vaSyncSurface(decoder->VaDisplay, old) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaSyncSurface failed\n"));
}
#if 0
VASurfaceStatus status;
if (vaQuerySurfaceStatus(decoder->VaDisplay, old, &status)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaQuerySurface failed\n"));
status = VASurfaceReady;
}
if (status != VASurfaceReady) {
Warning(_
("video/vaapi: surface %#010x not ready: still displayed %d\n"),
old, status);
if (0
&& vaSyncSurface(decoder->VaDisplay,
old) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaSyncSurface failed\n"));
}
}
#endif
// now we can release the surface
if (softdec) { // software surfaces only
VaapiReleaseSurface(decoder, old);
}
}
#if 0
// FIXME: intel seems to forget this, nvidia GT 210 has speed problems here
if (VaapiBuggyIntel && VaOsdSubpicture != VA_INVALID_ID) {
// FIXME: associate only if osd is displayed
//
// associate the OSD with surface
//
if (VaapiUnscaledOsd) {
if (vaAssociateSubpicture(VaDisplay, VaOsdSubpicture, &surface, 1,
0, 0, VaOsdImage.width, VaOsdImage.height, 0, 0,
VideoWindowWidth, VideoWindowHeight,
VA_SUBPICTURE_DESTINATION_IS_SCREEN_COORD)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't associate subpicture\n"));
}
} else {
// FIXME: auto-crop wrong position
if (vaAssociateSubpicture(VaDisplay, VaOsdSubpicture, &surface, 1,
0, 0, VaOsdImage.width, VaOsdImage.height, 0, 0,
decoder->InputWidth, decoder->InputHeight, 0)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't associate subpicture\n"));
}
}
}
#endif
decoder->SurfacesRb[decoder->SurfaceWrite] = surface;
decoder->SurfaceWrite = (decoder->SurfaceWrite + 1)
% VIDEO_SURFACES_MAX;
atomic_inc(&decoder->SurfacesFilled);
Debug(4, "video/vaapi: yy video surface %#010x ready\n", surface);
}
#if 0
/// Return the absolute value of an integer.
#define ABS(i) ((i) >= 0 ? (i) : (-(i)))
///
/// ELA Edge-based Line Averaging
/// Low-Complexity Interpolation Method
///
/// abcdefg abcdefg abcdefg abcdefg abcdefg
/// x x x x x
/// hijklmn hijklmn hijklmn hijklmn hijklmn
///
static void FilterLine(const uint8_t * past, const uint8_t * cur,
const uint8_t * future, int width, int above, int below)
{
int a, b, c, d, e, f, g, h, i, j, k, l, m, n;
}
#endif
///
/// Create and display a black empty surface.
///
/// @param decoder VA-API decoder
///
static void VaapiBlackSurface(VaapiDecoder * decoder)
{
VAStatus status;
uint32_t start;
uint32_t sync;
uint32_t put1;
// wait until we have osd subpicture
if (VaOsdSubpicture == VA_INVALID_ID) {
Warning(_("video/vaapi: no osd subpicture yet\n"));
return;
}
if (decoder->BlackSurface == VA_INVALID_ID) {
if (vaCreateSurfaces(decoder->VaDisplay, VideoWindowWidth,
VideoWindowHeight, VA_RT_FORMAT_YUV420, 1,
&decoder->BlackSurface) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't create a surface\n"));
return;
}
// full sized surface, no difference unscaled/scaled osd
if (vaAssociateSubpicture(decoder->VaDisplay, VaOsdSubpicture,
&decoder->BlackSurface, 1, 0, 0, VaOsdImage.width,
VaOsdImage.height, 0, 0, VideoWindowWidth, VideoWindowHeight,
0) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't associate subpicture\n"));
}
Debug(3, "video/vaapi: associate %08x\n", decoder->BlackSurface);
// FIXME: check if intel forgets this also
if (0 && decoder->Image->image_id == VA_INVALID_ID) {
VAImageFormat format[1];
void *va_image_data;
int i;
printf("No image\n");
VaapiFindImageFormat(decoder, PIX_FMT_NV12, format);
if ((status =
vaDeriveImage(decoder->VaDisplay, decoder->BlackSurface,
decoder->Image)) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaDeriveImage failed %d\n"), status);
if (vaCreateImage(VaDisplay, format, VideoWindowWidth,
VideoWindowHeight,
decoder->Image) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't create image!\n"));
}
}
if (vaMapBuffer(VaDisplay, decoder->Image->buf, &va_image_data)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't map the image!\n"));
}
for (i = 0; (unsigned)i < decoder->Image->data_size; i += 2) {
((uint8_t *) va_image_data)[i + 0] = 0xFF;
((uint8_t *) va_image_data)[i + 1] = 0xFF;
}
if (vaUnmapBuffer(VaDisplay,
decoder->Image->buf) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't unmap the image!\n"));
}
if (vaDestroyImage(VaDisplay,
decoder->Image->image_id) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy image!\n"));
}
}
// FIXME: intel didn't support put image.
if (0
&& vaPutImage(VaDisplay, decoder->BlackSurface,
decoder->Image->image_id, 0, 0, VideoWindowWidth,
VideoWindowHeight, 0, 0, VideoWindowWidth, VideoWindowHeight)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't put image!\n"));
}
start = GetMsTicks();
if (vaSyncSurface(decoder->VaDisplay,
decoder->BlackSurface) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaSyncSurface failed\n"));
}
} else {
start = GetMsTicks();
}
Debug(4, "video/vaapi: yy black video surface %#010x displayed\n",
decoder->BlackSurface);
sync = GetMsTicks();
xcb_flush(Connection);
if ((status =
vaPutSurface(decoder->VaDisplay, decoder->BlackSurface,
decoder->Window,
// decoder src
decoder->OutputX, decoder->OutputY, decoder->OutputWidth,
decoder->OutputHeight,
// video dst
decoder->OutputX, decoder->OutputY, decoder->OutputWidth,
decoder->OutputHeight, NULL, 0,
VA_FRAME_PICTURE)) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaPutSurface failed %d\n"), status);
}
clock_gettime(CLOCK_REALTIME, &decoder->FrameTime);
put1 = GetMsTicks();
if (put1 - sync > 2000) {
Error(_("video/vaapi: gpu hung %d ms %d\n"), put1 - sync,
decoder->FrameCounter);
fprintf(stderr, _("video/vaapi: gpu hung %d ms %d\n"), put1 - sync,
decoder->FrameCounter);
}
Debug(4, "video/vaapi: sync %2u put1 %2u\n", sync - start, put1 - sync);
if (0 && vaSyncSurface(decoder->VaDisplay, decoder->BlackSurface)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaSyncSurface failed\n"));
}
usleep(1 * 1000);
}
///
/// Vaapi bob deinterlace.
///
/// @note FIXME: use common software deinterlace functions.
///
static void VaapiBob(VaapiDecoder * decoder, VAImage * src, VAImage * dst1,
VAImage * dst2)
{
uint32_t tick1;
uint32_t tick2;
uint32_t tick3;
uint32_t tick4;
uint32_t tick5;
uint32_t tick6;
uint32_t tick7;
uint32_t tick8;
void *src_base;
void *dst1_base;
void *dst2_base;
unsigned y;
unsigned p;
tick1 = GetMsTicks();
if (vaMapBuffer(decoder->VaDisplay, src->buf,
&src_base) != VA_STATUS_SUCCESS) {
Fatal("video/vaapi: can't map the image!\n");
}
tick2 = GetMsTicks();
if (vaMapBuffer(decoder->VaDisplay, dst1->buf,
&dst1_base) != VA_STATUS_SUCCESS) {
Fatal("video/vaapi: can't map the image!\n");
}
tick3 = GetMsTicks();
if (vaMapBuffer(decoder->VaDisplay, dst2->buf,
&dst2_base) != VA_STATUS_SUCCESS) {
Fatal("video/vaapi: can't map the image!\n");
}
tick4 = GetMsTicks();
if (0) { // test all updated
memset(dst1_base, 0x00, dst1->data_size);
memset(dst2_base, 0xFF, dst2->data_size);
return;
}
#if 0
// interleave
for (p = 0; p < src->num_planes; ++p) {
for (y = 0; y < (unsigned)(src->height >> (p != 0)); y += 2) {
memcpy(dst1_base + src->offsets[p] + (y + 0) * src->pitches[p],
src_base + src->offsets[p] + (y + 0) * src->pitches[p],
src->pitches[p]);
memcpy(dst1_base + src->offsets[p] + (y + 1) * src->pitches[p],
src_base + src->offsets[p] + (y + 0) * src->pitches[p],
src->pitches[p]);
memcpy(dst2_base + src->offsets[p] + (y + 0) * src->pitches[p],
src_base + src->offsets[p] + (y + 1) * src->pitches[p],
src->pitches[p]);
memcpy(dst2_base + src->offsets[p] + (y + 1) * src->pitches[p],
src_base + src->offsets[p] + (y + 1) * src->pitches[p],
src->pitches[p]);
}
}
#endif
#if 1
// use tmp copy
if (1) {
uint8_t *tmp;
tmp = malloc(src->data_size);
memcpy(tmp, src_base, src->data_size);
for (p = 0; p < src->num_planes; ++p) {
for (y = 0; y < (unsigned)(src->height >> (p != 0)); y += 2) {
memcpy(dst1_base + src->offsets[p] + (y + 0) * src->pitches[p],
tmp + src->offsets[p] + (y + 0) * src->pitches[p],
src->pitches[p]);
memcpy(dst1_base + src->offsets[p] + (y + 1) * src->pitches[p],
tmp + src->offsets[p] + (y + 0) * src->pitches[p],
src->pitches[p]);
memcpy(dst2_base + src->offsets[p] + (y + 0) * src->pitches[p],
tmp + src->offsets[p] + (y + 1) * src->pitches[p],
src->pitches[p]);
memcpy(dst2_base + src->offsets[p] + (y + 1) * src->pitches[p],
tmp + src->offsets[p] + (y + 1) * src->pitches[p],
src->pitches[p]);
}
}
free(tmp);
}
#endif
#if 0
// use multiple tmp copy
if (1) {
uint8_t *tmp_src;
uint8_t *tmp_dst1;
uint8_t *tmp_dst2;
tmp_src = malloc(src->data_size);
memcpy(tmp_src, src_base, src->data_size);
tmp_dst1 = malloc(src->data_size);
tmp_dst2 = malloc(src->data_size);
for (p = 0; p < src->num_planes; ++p) {
for (y = 0; y < (unsigned)(src->height >> (p != 0)); y += 2) {
memcpy(tmp_dst1 + src->offsets[p] + (y + 0) * src->pitches[p],
tmp_src + src->offsets[p] + (y + 0) * src->pitches[p],
src->pitches[p]);
memcpy(tmp_dst1 + src->offsets[p] + (y + 1) * src->pitches[p],
tmp_src + src->offsets[p] + (y + 0) * src->pitches[p],
src->pitches[p]);
memcpy(tmp_dst2 + src->offsets[p] + (y + 0) * src->pitches[p],
tmp_src + src->offsets[p] + (y + 1) * src->pitches[p],
src->pitches[p]);
memcpy(tmp_dst2 + src->offsets[p] + (y + 1) * src->pitches[p],
tmp_src + src->offsets[p] + (y + 1) * src->pitches[p],
src->pitches[p]);
}
}
memcpy(dst1_base, tmp_dst1, src->data_size);
memcpy(dst2_base, tmp_dst2, src->data_size);
free(tmp_src);
free(tmp_dst1);
free(tmp_dst2);
}
#endif
#if 0
// dst1 first
for (p = 0; p < src->num_planes; ++p) {
for (y = 0; y < (unsigned)(src->height >> (p != 0)); y += 2) {
memcpy(dst1_base + src->offsets[p] + (y + 0) * src->pitches[p],
src_base + src->offsets[p] + (y + 0) * src->pitches[p],
src->pitches[p]);
memcpy(dst1_base + src->offsets[p] + (y + 1) * src->pitches[p],
src_base + src->offsets[p] + (y + 0) * src->pitches[p],
src->pitches[p]);
}
}
// dst2 next
for (p = 0; p < src->num_planes; ++p) {
for (y = 0; y < (unsigned)(src->height >> (p != 0)); y += 2) {
memcpy(dst2_base + src->offsets[p] + (y + 0) * src->pitches[p],
src_base + src->offsets[p] + (y + 1) * src->pitches[p],
src->pitches[p]);
memcpy(dst2_base + src->offsets[p] + (y + 1) * src->pitches[p],
src_base + src->offsets[p] + (y + 1) * src->pitches[p],
src->pitches[p]);
}
}
#endif
tick5 = GetMsTicks();
if (vaUnmapBuffer(decoder->VaDisplay, dst2->buf) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't unmap image buffer\n"));
}
tick6 = GetMsTicks();
if (vaUnmapBuffer(decoder->VaDisplay, dst1->buf) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't unmap image buffer\n"));
}
tick7 = GetMsTicks();
if (vaUnmapBuffer(decoder->VaDisplay, src->buf) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't unmap image buffer\n"));
}
tick8 = GetMsTicks();
Debug(3, "video/vaapi: map=%2d/%2d/%2d deint=%2d umap=%2d/%2d/%2d\n",
tick2 - tick1, tick3 - tick2, tick4 - tick3, tick5 - tick4,
tick6 - tick5, tick7 - tick6, tick8 - tick7);
}
///
/// Create software deinterlace images.
///
/// @param decoder VA-API decoder
///
static void VaapiCreateDeinterlaceImages(VaapiDecoder * decoder)
{
VAImageFormat format[1];
int i;
// NV12, YV12, I420, BGRA
// NV12 Y U/V 2x2
// YV12 Y V U 2x2
// I420 Y U V 2x2
// Intel needs NV12
VaapiFindImageFormat(decoder, PIX_FMT_NV12, format);
//VaapiFindImageFormat(decoder, PIX_FMT_YUV420P, format);
for (i = 0; i < 5; ++i) {
if (vaCreateImage(decoder->VaDisplay, format, decoder->InputWidth,
decoder->InputHeight,
decoder->DeintImages + i) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't create image!\n"));
}
}
#ifdef DEBUG
if (1) {
VAImage *img;
img = decoder->DeintImages;
Debug(3, "video/vaapi: %c%c%c%c %dx%d*%d\n", img->format.fourcc,
img->format.fourcc >> 8, img->format.fourcc >> 16,
img->format.fourcc >> 24, img->width, img->height,
img->num_planes);
}
#endif
}
///
/// Destroy software deinterlace images.
///
/// @param decoder VA-API decoder
///
static void VaapiDestroyDeinterlaceImages(VaapiDecoder * decoder)
{
int i;
for (i = 0; i < 5; ++i) {
if (vaDestroyImage(decoder->VaDisplay,
decoder->DeintImages[i].image_id) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy image!\n"));
}
decoder->DeintImages[i].image_id = VA_INVALID_ID;
}
}
///
/// Vaapi software deinterlace.
///
/// @param decoder VA-API decoder
/// @param surface interlaced hardware surface
///
static void VaapiCpuDerive(VaapiDecoder * decoder, VASurfaceID surface)
{
//
// vaPutImage not working, vaDeriveImage
//
uint32_t tick1;
uint32_t tick2;
uint32_t tick3;
uint32_t tick4;
uint32_t tick5;
VAImage image[1];
VAImage dest1[1];
VAImage dest2[1];
VAStatus status;
VASurfaceID out1;
VASurfaceID out2;
tick1 = GetMsTicks();
if ((status =
vaDeriveImage(decoder->VaDisplay, surface,
image)) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaDeriveImage failed %d\n"), status);
VaapiQueueSurface(decoder, surface, 0);
VaapiQueueSurface(decoder, surface, 0);
return;
}
tick2 = GetMsTicks();
Debug(4, "video/vaapi: %c%c%c%c %dx%d*%d\n", image->format.fourcc,
image->format.fourcc >> 8, image->format.fourcc >> 16,
image->format.fourcc >> 24, image->width, image->height,
image->num_planes);
// get a free surfaces
out1 = VaapiGetSurface(decoder);
if (out1 == VA_INVALID_ID) {
abort();
}
if ((status =
vaDeriveImage(decoder->VaDisplay, out1,
dest1)) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaDeriveImage failed %d\n"), status);
}
tick3 = GetMsTicks();
out2 = VaapiGetSurface(decoder);
if (out2 == VA_INVALID_ID) {
abort();
}
if ((status =
vaDeriveImage(decoder->VaDisplay, out2,
dest2)) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaDeriveImage failed %d\n"), status);
}
tick4 = GetMsTicks();
VaapiBob(decoder, image, dest1, dest2);
tick5 = GetMsTicks();
if (vaDestroyImage(VaDisplay, image->image_id) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy image!\n"));
}
if (vaDestroyImage(VaDisplay, dest1->image_id) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy image!\n"));
}
if (vaDestroyImage(VaDisplay, dest2->image_id) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy image!\n"));
}
VaapiQueueSurface(decoder, out1, 1);
VaapiQueueSurface(decoder, out2, 1);
tick5 = GetMsTicks();
Debug(4, "video/vaapi: get=%2d get1=%2d get2=%d deint=%2d\n",
tick2 - tick1, tick3 - tick2, tick4 - tick3, tick5 - tick4);
}
///
/// Vaapi software deinterlace.
///
/// @param decoder VA-API decoder
/// @param surface interlaced hardware surface
///
static void VaapiCpuPut(VaapiDecoder * decoder, VASurfaceID surface)
{
//
// vaPutImage working
//
uint32_t tick1;
uint32_t tick2;
uint32_t tick3;
uint32_t tick4;
uint32_t tick5;
VAImage *img1;
VAImage *img2;
VAImage *img3;
VASurfaceID out;
VAStatus status;
//
// Create deinterlace images.
//
if (decoder->DeintImages[0].image_id == VA_INVALID_ID) {
VaapiCreateDeinterlaceImages(decoder);
}
if (0 && vaSyncSurface(decoder->VaDisplay, surface) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaSyncSurface failed\n"));
}
img1 = decoder->DeintImages;
img2 = decoder->DeintImages + 1;
img3 = decoder->DeintImages + 2;
tick1 = GetMsTicks();
if (vaGetImage(decoder->VaDisplay, surface, 0, 0, decoder->InputWidth,
decoder->InputHeight, img1->image_id) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't get source image\n"));
VaapiQueueSurface(decoder, surface, 0);
VaapiQueueSurface(decoder, surface, 0);
return;
}
tick2 = GetMsTicks();
// FIXME: handle top_field_first
VaapiBob(decoder, img1, img2, img3);
tick3 = GetMsTicks();
// get a free surface and upload the image
out = VaapiGetSurface(decoder);
if (out == VA_INVALID_ID) {
abort();
}
if ((status =
vaPutImage(VaDisplay, out, img2->image_id, 0, 0, img2->width,
img2->height, 0, 0, img2->width,
img2->height)) != VA_STATUS_SUCCESS) {
Error("video/vaapi: can't put image: %d!\n", status);
abort();
}
VaapiQueueSurface(decoder, out, 1);
if (0 && vaSyncSurface(decoder->VaDisplay, out) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaSyncSurface failed\n"));
}
tick4 = GetMsTicks();
Debug(4, "video/vaapi: deint %d %#010x -> %#010x\n", decoder->SurfaceField,
surface, out);
// get a free surface and upload the image
out = VaapiGetSurface(decoder);
if (out == VA_INVALID_ID) {
abort();
}
if (vaPutImage(VaDisplay, out, img3->image_id, 0, 0, img3->width,
img3->height, 0, 0, img3->width,
img3->height) != VA_STATUS_SUCCESS) {
Error("video/vaapi: can't put image!\n");
}
VaapiQueueSurface(decoder, out, 1);
if (0 && vaSyncSurface(decoder->VaDisplay, out) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaSyncSurface failed\n"));
}
tick5 = GetMsTicks();
Debug(4, "video/vaapi: get=%2d deint=%2d put1=%2d put2=%2d\n",
tick2 - tick1, tick3 - tick2, tick4 - tick3, tick5 - tick4);
}
///
/// Vaapi software deinterlace.
///
/// @param decoder VA-API decoder
/// @param surface interlaced hardware surface
///
static void VaapiCpuDeinterlace(VaapiDecoder * decoder, VASurfaceID surface)
{
if (VaapiBuggyIntel) {
VaapiCpuDerive(decoder, surface);
} else {
VaapiCpuPut(decoder, surface);
}
// FIXME: must release software input surface
}
///
/// Render a ffmpeg frame
///
/// @param decoder VA-API decoder
/// @param video_ctx ffmpeg video codec context
/// @param frame frame to display
///
static void VaapiRenderFrame(VaapiDecoder * decoder,
const AVCodecContext * video_ctx, const AVFrame * frame)
{
VASurfaceID surface;
int interlaced;
// FIXME: some tv-stations toggle interlace on/off
// frame->interlaced_frame isn't always correct set
interlaced = frame->interlaced_frame;
if (video_ctx->height == 720) {
if (interlaced && !decoder->WrongInterlacedWarned) {
Debug(3, "video/vaapi: wrong interlace flag fixed\n");
decoder->WrongInterlacedWarned = 1;
}
interlaced = 0;
} else {
if (!interlaced && !decoder->WrongInterlacedWarned) {
Debug(3, "video/vaapi: wrong interlace flag fixed\n");
decoder->WrongInterlacedWarned = 1;
}
interlaced = 1;
}
// FIXME: should be done by init video_ctx->field_order
if (decoder->Interlaced != interlaced
|| decoder->TopFieldFirst != frame->top_field_first) {
#if 0
// field_order only in git
Debug(3, "video/vaapi: interlaced %d top-field-first %d - %d\n",
interlaced, frame->top_field_first, video_ctx->field_order);
#else
Debug(3, "video/vaapi: interlaced %d top-field-first %d\n", interlaced,
frame->top_field_first);
#endif
decoder->Interlaced = interlaced;
decoder->TopFieldFirst = frame->top_field_first;
decoder->SurfaceField = 1;
}
// update aspect ratio changes
#if LIBAVCODEC_VERSION_INT >= AV_VERSION_INT(53,60,100)
if (decoder->InputWidth && decoder->InputHeight
&& av_cmp_q(decoder->InputAspect, frame->sample_aspect_ratio)) {
Debug(3, "video/vaapi: aspect ratio changed\n");
decoder->InputAspect = frame->sample_aspect_ratio;
VaapiUpdateOutput(decoder);
}
#else
if (decoder->InputWidth && decoder->InputHeight
&& av_cmp_q(decoder->InputAspect, video_ctx->sample_aspect_ratio)) {
Debug(3, "video/vaapi: aspect ratio changed\n");
decoder->InputAspect = video_ctx->sample_aspect_ratio;
VaapiUpdateOutput(decoder);
}
#endif
//
// Hardware render
//
if (video_ctx->hwaccel_context) {
if (video_ctx->height != decoder->InputHeight
|| video_ctx->width != decoder->InputWidth) {
Error(_("video/vaapi: stream <-> surface size mismatch\n"));
return;
}
surface = (unsigned)(size_t) frame->data[3];
Debug(4, "video/vaapi: hw render hw surface %#010x\n", surface);
if (interlaced
&& VideoDeinterlace[decoder->Resolution] ==
VideoDeinterlaceSoftware) {
VaapiCpuDeinterlace(decoder, surface);
} else {
VaapiQueueSurface(decoder, surface, 0);
}
//
// VAImage render
//
} else {
void *va_image_data;
int i;
AVPicture picture[1];
int width;
int height;
Debug(4, "video/vaapi: hw render sw surface\n");
width = video_ctx->width;
height = video_ctx->height;
//
// Check image, format, size
//
if ((decoder->GetPutImage && decoder->Image->image_id == VA_INVALID_ID)
|| decoder->PixFmt != video_ctx->pix_fmt
|| width != decoder->InputWidth
|| height != decoder->InputHeight) {
Debug(3,
"video/vaapi: stream <-> surface size/interlace mismatch\n");
decoder->PixFmt = video_ctx->pix_fmt;
// FIXME: aspect done above!
decoder->InputWidth = width;
decoder->InputHeight = height;
VaapiSetup(decoder, video_ctx);
}
// FIXME: Need to insert software deinterlace here
// FIXME: can/must insert auto-crop here (is done after upload)
// get a free surface and upload the image
surface = VaapiGetSurface(decoder);
Debug(4, "video/vaapi: video surface %#010x displayed\n", surface);
if (!decoder->GetPutImage
&& vaDeriveImage(decoder->VaDisplay, surface,
decoder->Image) != VA_STATUS_SUCCESS) {
VAImageFormat format[1];
Error(_("video/vaapi: vaDeriveImage failed\n"));
decoder->GetPutImage = 1;
VaapiFindImageFormat(decoder, video_ctx->pix_fmt, format);
if (vaCreateImage(VaDisplay, format, width, height,
decoder->Image) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't create image!\n"));
}
}
//
// Copy data from frame to image
//
if (vaMapBuffer(VaDisplay, decoder->Image->buf, &va_image_data)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't map the image!\n"));
}
// crazy: intel mixes YV12 and NV12 with mpeg
if (decoder->Image->format.fourcc == VA_FOURCC_NV12) {
int x;
// intel NV12 convert YV12 to NV12
// copy Y
for (i = 0; i < height; ++i) {
memcpy(va_image_data + decoder->Image->offsets[0] +
decoder->Image->pitches[0] * i,
frame->data[0] + frame->linesize[0] * i,
frame->linesize[0]);
}
// copy UV
for (i = 0; i < height / 2; ++i) {
for (x = 0; x < frame->linesize[1]; ++x) {
((uint8_t *) va_image_data)[decoder->Image->offsets[1]
+ decoder->Image->pitches[1] * i + x * 2 + 0]
= frame->data[1][i * frame->linesize[1] + x];
((uint8_t *) va_image_data)[decoder->Image->offsets[1]
+ decoder->Image->pitches[1] * i + x * 2 + 1]
= frame->data[2][i * frame->linesize[2] + x];
}
}
// vdpau uses this
} else if (decoder->Image->format.fourcc == VA_FOURCC('I', '4', '2',
'0')) {
picture->data[0] = va_image_data + decoder->Image->offsets[0];
picture->linesize[0] = decoder->Image->pitches[0];
picture->data[1] = va_image_data + decoder->Image->offsets[1];
picture->linesize[1] = decoder->Image->pitches[2];
picture->data[2] = va_image_data + decoder->Image->offsets[2];
picture->linesize[2] = decoder->Image->pitches[1];
av_picture_copy(picture, (AVPicture *) frame, video_ctx->pix_fmt,
width, height);
} else if (decoder->Image->num_planes == 3) {
picture->data[0] = va_image_data + decoder->Image->offsets[0];
picture->linesize[0] = decoder->Image->pitches[0];
picture->data[1] = va_image_data + decoder->Image->offsets[2];
picture->linesize[1] = decoder->Image->pitches[2];
picture->data[2] = va_image_data + decoder->Image->offsets[1];
picture->linesize[2] = decoder->Image->pitches[1];
av_picture_copy(picture, (AVPicture *) frame, video_ctx->pix_fmt,
width, height);
}
if (vaUnmapBuffer(VaDisplay, decoder->Image->buf)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't unmap the image!\n"));
}
Debug(4, "video/vaapi: buffer %dx%d <- %dx%d\n", decoder->Image->width,
decoder->Image->height, width, height);
if (decoder->GetPutImage
&& (i =
vaPutImage(VaDisplay, surface, decoder->Image->image_id, 0, 0,
width, height, 0, 0, width,
height)) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't put image err:%d!\n"), i);
}
if (!decoder->GetPutImage) {
if (vaDestroyImage(VaDisplay, decoder->Image->image_id)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy image!\n"));
}
decoder->Image->image_id = VA_INVALID_ID;
}
VaapiQueueSurface(decoder, surface, 1);
}
if (decoder->Interlaced) {
++decoder->FrameCounter;
}
}
///
/// Advance displayed frame.
///
static void VaapiAdvanceFrame(void)
{
int i;
// show any frame as fast as possible
// we keep always the last frame in the ring buffer
for (i = 0; i < VaapiDecoderN; ++i) {
VaapiDecoder *decoder;
VASurfaceID surface;
int filled;
decoder = VaapiDecoders[i];
filled = atomic_read(&decoder->SurfacesFilled);
// 0 -> 1
// 1 -> 0 + advance
if (VideoDeinterlace[decoder->Resolution] != VideoDeinterlaceSoftware
&& decoder->Interlaced) {
// FIXME: first frame is never shown
if (decoder->SurfaceField) {
if (filled > 1) {
decoder->SurfaceField = 0;
}
} else {
decoder->SurfaceField = 1;
return;
}
}
if (filled > 1) {
decoder->SurfaceRead = (decoder->SurfaceRead + 1)
% VIDEO_SURFACES_MAX;
atomic_dec(&decoder->SurfacesFilled);
// wait for rendering finished
surface = decoder->SurfacesRb[decoder->SurfaceRead];
if (vaSyncSurface(decoder->VaDisplay, surface)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaSyncSurface failed\n"));
}
// debug duplicate frames
} else if (filled == 1) {
static int last_warned_frame;
++decoder->FramesDuped;
decoder->DropNextFrame = 0;
// FIXME: don't warn after stream start, don't warn during pause
if (last_warned_frame != decoder->FrameCounter) {
Warning(_
("video: display buffer empty, duping frame (%d/%d) %d\n"),
decoder->FramesDuped, decoder->FrameCounter,
atomic_read(&VideoPacketsFilled));
}
last_warned_frame = decoder->FrameCounter;
if (!(decoder->FramesDisplayed % 300)) {
VaapiPrintFrames(decoder);
}
// wait for rendering finished
surface = decoder->SurfacesRb[decoder->SurfaceRead];
if (vaSyncSurface(decoder->VaDisplay, surface)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: vaSyncSurface failed\n"));
}
}
}
}
///
/// Display a video frame.
///
/// @todo FIXME: add detection of missed frames
///
static void VaapiDisplayFrame(void)
{
struct timespec nowtime;
uint32_t start;
uint32_t put1;
uint32_t put2;
int i;
VaapiDecoder *decoder;
if (VideoSurfaceModesChanged) { // handle changed modes
for (i = 0; i < VaapiDecoderN; ++i) {
VaapiInitSurfaceFlags(VaapiDecoders[i]);
}
VideoSurfaceModesChanged = 0;
}
// look if any stream have a new surface available
for (i = 0; i < VaapiDecoderN; ++i) {
VASurfaceID surface;
int filled;
decoder = VaapiDecoders[i];
decoder->FramesDisplayed++;
filled = atomic_read(&decoder->SurfacesFilled);
// no surface availble show black with possible osd
if (!filled) {
VaapiBlackSurface(decoder);
continue;
}
surface = decoder->SurfacesRb[decoder->SurfaceRead];
#ifdef DEBUG
if (surface == VA_INVALID_ID) {
printf(_("video/vaapi: invalid surface in ringbuffer\n"));
}
Debug(4, "video/vaapi: yy video surface %#010x displayed\n", surface);
#endif
start = GetMsTicks();
// VDPAU driver + INTEL driver does no v-sync with 1080
if (0 && decoder->Interlaced
// FIXME: buggy libva-driver-vdpau, buggy libva-driver-intel
&& (VaapiBuggyVdpau || (0 && VaapiBuggyIntel
&& decoder->InputHeight == 1080))
&& VideoDeinterlace[decoder->Resolution] != VideoDeinterlaceWeave) {
VaapiPutSurfaceX11(decoder, surface, decoder->Interlaced,
decoder->TopFieldFirst, 0);
put1 = GetMsTicks();
VaapiPutSurfaceX11(decoder, surface, decoder->Interlaced,
decoder->TopFieldFirst, 1);
put2 = GetMsTicks();
} else {
VaapiPutSurfaceX11(decoder, surface, decoder->Interlaced,
decoder->TopFieldFirst, decoder->SurfaceField);
put1 = GetMsTicks();
put2 = put1;
}
clock_gettime(CLOCK_REALTIME, &nowtime);
if ((nowtime.tv_sec - decoder->FrameTime.tv_sec)
* 1000 * 1000 * 1000 + (nowtime.tv_nsec -
decoder->FrameTime.tv_nsec) > 30 * 1000 * 1000) {
Debug(3, "video/vaapi: time/frame too long %ld ms\n",
((nowtime.tv_sec - decoder->FrameTime.tv_sec)
* 1000 * 1000 * 1000 + (nowtime.tv_nsec -
decoder->FrameTime.tv_nsec)) / (1000 * 1000));
Debug(4, "video/vaapi: put1 %2u put2 %2u\n", put1 - start,
put2 - put1);
}
#ifdef noDEBUG
Debug(3, "video/vaapi: time/frame %ld ms\n",
((nowtime.tv_sec - decoder->FrameTime.tv_sec)
* 1000 * 1000 * 1000 + (nowtime.tv_nsec -
decoder->FrameTime.tv_nsec)) / (1000 * 1000));
if (put2 > start + 20) {
Debug(3, "video/vaapi: putsurface too long %u ms\n", put2 - start);
}
Debug(4, "video/vaapi: put1 %2u put2 %2u\n", put1 - start,
put2 - put1);
#endif
decoder->FrameTime = nowtime;
}
}
///
/// Sync and display surface.
///
/// @param decoder VA-API decoder
///
static void VaapiSyncDisplayFrame(VaapiDecoder * decoder)
{
int filled;
int64_t audio_clock;
int64_t video_clock;
if (!decoder->DupNextFrame && (!Video60HzMode
|| decoder->FramesDisplayed % 6)) {
VaapiAdvanceFrame();
}
VaapiDisplayFrame();
//
// audio/video sync
//
audio_clock = AudioGetClock();
video_clock = VideoGetClock();
filled = atomic_read(&decoder->SurfacesFilled);
// FIXME: audio not known assume 333ms delay
if (decoder->DupNextFrame) {
++decoder->FramesDuped;
decoder->DupNextFrame--;
} else if ((uint64_t) audio_clock != AV_NOPTS_VALUE
&& (uint64_t) video_clock != AV_NOPTS_VALUE) {
// both clocks are known
if (abs(video_clock - audio_clock) > 5000 * 90) {
Debug(3, "video: pts difference too big\n");
} else if (video_clock > audio_clock + VideoAudioDelay + 80 * 90) {
Debug(3, "video: slow down video\n");
decoder->DupNextFrame += 2;
} else if (video_clock > audio_clock + VideoAudioDelay + 30 * 90) {
Debug(3, "video: slow down video\n");
decoder->DupNextFrame++;
} else if (audio_clock + VideoAudioDelay > video_clock + 40 * 90
&& filled > 1) {
Debug(3, "video: speed up video\n");
decoder->DropNextFrame = 1;
}
}
#if defined(DEBUG) || defined(AV_INFO)
// debug audio/video sync
if (decoder->DupNextFrame || decoder->DropNextFrame
|| !(decoder->FramesDisplayed % (50 * 10))) {
Info("video: %s%+5" PRId64 " %4" PRId64 " %3d/\\ms %3d v-buf\n",
VideoTimeStampString(video_clock),
(video_clock - audio_clock) / 90, AudioGetDelay() / 90,
(int)VideoDeltaPTS / 90, atomic_read(&VideoPacketsFilled));
}
#endif
}
///
/// Sync and render a ffmpeg frame
///
/// @param decoder VA-API decoder
/// @param video_ctx ffmpeg video codec context
/// @param frame frame to display
///
static void VaapiSyncRenderFrame(VaapiDecoder * decoder,
const AVCodecContext * video_ctx, const AVFrame * frame)
{
VideoSetPts(&decoder->PTS, decoder->Interlaced, frame);
if (!atomic_read(&decoder->SurfacesFilled)) {
Debug(3, "video: new stream frame %d\n", GetMsTicks() - VideoSwitch);
}
if (decoder->DropNextFrame) { // drop frame requested
++decoder->FramesDropped;
Warning(_("video: dropping frame (%d/%d)\n"), decoder->FramesDropped,
decoder->FrameCounter);
if (!(decoder->FramesDisplayed % 300)) {
VaapiPrintFrames(decoder);
}
decoder->DropNextFrame--;
return;
}
// if video output buffer is full, wait and display surface.
// loop for interlace
while (atomic_read(&decoder->SurfacesFilled) >= VIDEO_SURFACES_MAX - 1) {
struct timespec abstime;
pthread_mutex_unlock(&VideoLockMutex);
abstime = decoder->FrameTime;
abstime.tv_nsec += 14 * 1000 * 1000;
if (abstime.tv_nsec >= 1000 * 1000 * 1000) {
// avoid overflow
abstime.tv_sec++;
abstime.tv_nsec -= 1000 * 1000 * 1000;
}
VideoPollEvent();
pthread_setcancelstate(PTHREAD_CANCEL_ENABLE, NULL);
pthread_testcancel();
pthread_mutex_lock(&VideoLockMutex);
// give osd some time slot
while (pthread_cond_timedwait(&VideoWakeupCond, &VideoLockMutex,
&abstime) != ETIMEDOUT) {
// SIGUSR1
Debug(3, "video/vaapi: pthread_cond_timedwait error\n");
}
pthread_setcancelstate(PTHREAD_CANCEL_DISABLE, NULL);
VaapiSyncDisplayFrame(decoder);
}
VaapiRenderFrame(decoder, video_ctx, frame);
#ifdef USE_AUTOCROP
VaapiCheckAutoCrop(decoder);
#endif
}
///
/// Get VA-API decoder video clock.
///
/// @param decoder VA-API decoder
///
static int64_t VaapiGetClock(const VaapiDecoder * decoder)
{
// pts is the timestamp of the latest decoded frame
if (!decoder || (uint64_t) decoder->PTS == AV_NOPTS_VALUE) {
return AV_NOPTS_VALUE;
}
// subtract buffered decoded frames
if (decoder->Interlaced) {
return decoder->PTS -
20 * 90 * (2 * atomic_read(&decoder->SurfacesFilled)
- decoder->SurfaceField);
}
return decoder->PTS - 20 * 90 * (atomic_read(&decoder->SurfacesFilled) +
1);
}
///
/// Set VA-API video mode.
///
static void VaapiSetVideoMode(void)
{
int i;
for (i = 0; i < VaapiDecoderN; ++i) {
VaapiUpdateOutput(VaapiDecoders[i]);
}
}
#ifdef USE_VIDEO_THREAD
///
/// Handle a va-api display.
///
/// @todo FIXME: only a single decoder supported.
///
static void VaapiDisplayHandlerThread(void)
{
int err;
int filled;
struct timespec nowtime;
VaapiDecoder *decoder;
if (!(decoder = VaapiDecoders[0])) { // no stream available
return;
}
//
// fill frame output ring buffer
//
filled = atomic_read(&decoder->SurfacesFilled);
err = 1;
if (filled < VIDEO_SURFACES_MAX - 1) {
// FIXME: hot polling
pthread_mutex_lock(&VideoLockMutex);
// fetch+decode or reopen
err = VideoDecode();
pthread_mutex_unlock(&VideoLockMutex);
}
if (err) {
// FIXME: sleep on wakeup
usleep(5 * 1000); // nothing buffered
}
clock_gettime(CLOCK_REALTIME, &nowtime);
// time for one frame over?
if ((nowtime.tv_sec - decoder->FrameTime.tv_sec)
* 1000 * 1000 * 1000 + (nowtime.tv_nsec - decoder->FrameTime.tv_nsec) <
15 * 1000 * 1000) {
return;
}
pthread_mutex_lock(&VideoLockMutex);
VaapiSyncDisplayFrame(decoder);
pthread_mutex_unlock(&VideoLockMutex);
}
#endif
//----------------------------------------------------------------------------
// VA-API OSD
//----------------------------------------------------------------------------
///
/// Clear subpicture image.
///
/// @note looked by caller
///
static void VaapiOsdClear(void)
{
void *image_buffer;
// osd image available?
if (VaOsdImage.image_id == VA_INVALID_ID) {
return;
}
Debug(3, "video/vaapi: clear image\n");
// map osd surface/image into memory.
if (vaMapBuffer(VaDisplay, VaOsdImage.buf, &image_buffer)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't map osd image buffer\n"));
return;
}
// have dirty area.
if (OsdDirtyWidth && OsdDirtyHeight) {
int o;
for (o = 0; o < OsdDirtyHeight; ++o) {
memset(image_buffer + (OsdDirtyX + (o +
OsdDirtyY) * VaOsdImage.width) * 4, 0x00,
OsdDirtyWidth * 4);
}
} else {
// 100% transparent
memset(image_buffer, 0x00, VaOsdImage.data_size);
}
if (vaUnmapBuffer(VaDisplay, VaOsdImage.buf) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't unmap osd image buffer\n"));
}
}
///
/// Upload ARGB to subpicture image.
///
/// @param x x position of image in osd
/// @param y y position of image in osd
/// @param width width of image
/// @param height height of image
/// @param argb argb image
///
/// @note looked by caller
///
static void VaapiOsdDrawARGB(int x, int y, int width, int height,
const uint8_t * argb)
{
uint32_t start;
uint32_t end;
void *image_buffer;
int o;
// osd image available?
if (VaOsdImage.image_id == VA_INVALID_ID) {
return;
}
start = GetMsTicks();
// map osd surface/image into memory.
if (vaMapBuffer(VaDisplay, VaOsdImage.buf, &image_buffer)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't map osd image buffer\n"));
return;
}
// FIXME: convert image from ARGB to subpicture format, if not argb
// copy argb to image
for (o = 0; o < height; ++o) {
memcpy(image_buffer + (x + (y + o) * VaOsdImage.width) * 4,
argb + o * width * 4, width * 4);
}
if (vaUnmapBuffer(VaDisplay, VaOsdImage.buf) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't unmap osd image buffer\n"));
}
end = GetMsTicks();
Debug(3, "video/vaapi: osd upload %dx%d+%d+%d %d ms %d\n", width, height,
x, y, end - start, width * height * 4);
}
///
/// VA-API initialize OSD.
///
/// @param width osd width
/// @param height osd height
///
/// @note subpicture is unusable, it can be scaled with the video image.
///
static void VaapiOsdInit(int width, int height)
{
VAImageFormat *formats;
unsigned *flags;
unsigned format_n;
unsigned u;
unsigned v;
int i;
static uint32_t wanted_formats[] =
{ VA_FOURCC('B', 'G', 'R', 'A'), VA_FOURCC_RGBA };
if (VaOsdImage.image_id != VA_INVALID_ID) {
Debug(3, "video/vaapi: osd already setup\n");
return;
}
if (!VaDisplay) {
Debug(3, "video/vaapi: va-api not setup\n");
return;
}
//
// look through subpicture formats
//
format_n = vaMaxNumSubpictureFormats(VaDisplay);
formats = alloca(format_n * sizeof(*formats));
flags = alloca(format_n * sizeof(*formats));
if (vaQuerySubpictureFormats(VaDisplay, formats, flags,
&format_n) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't get subpicture formats"));
return;
}
#ifdef DEBUG
Debug(3, "video/vaapi: supported subpicture formats:\n");
for (u = 0; u < format_n; ++u) {
Debug(3, "video/vaapi:\t%c%c%c%c flags %#x %s\n", formats[u].fourcc,
formats[u].fourcc >> 8, formats[u].fourcc >> 16,
formats[u].fourcc >> 24, flags[u],
flags[u] & VA_SUBPICTURE_DESTINATION_IS_SCREEN_COORD ?
"screen coord" : "");
}
#endif
for (v = 0; v < sizeof(wanted_formats) / sizeof(*wanted_formats); ++v) {
for (u = 0; u < format_n; ++u) {
if (formats[u].fourcc == wanted_formats[v]) {
goto found;
}
}
}
Error(_("video/vaapi: can't find a supported subpicture format"));
return;
found:
Debug(3, "video/vaapi: use %c%c%c%c subpicture format with flags %#x\n",
formats[u].fourcc, formats[u].fourcc >> 8, formats[u].fourcc >> 16,
formats[u].fourcc >> 24, flags[u]);
VaapiUnscaledOsd = 0;
if (flags[u] & VA_SUBPICTURE_DESTINATION_IS_SCREEN_COORD) {
Info(_("video/vaapi: vaapi supports unscaled osd\n"));
VaapiUnscaledOsd = 1;
}
//VaapiUnscaledOsd = 0;
//Info(_("video/vaapi: unscaled osd disabled\n"));
if (vaCreateImage(VaDisplay, &formats[u], width, height,
&VaOsdImage) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't create osd image\n"));
return;
}
if (vaCreateSubpicture(VaDisplay, VaOsdImage.image_id,
&VaOsdSubpicture) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't create subpicture\n"));
if (vaDestroyImage(VaDisplay,
VaOsdImage.image_id) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy image!\n"));
}
VaOsdImage.image_id = VA_INVALID_ID;
return;
}
// FIXME: must store format, to convert ARGB to it.
// restore osd association
for (i = 0; i < VaapiDecoderN; ++i) {
// only if input already setup
if (VaapiDecoders[i]->InputWidth && VaapiDecoders[i]->InputHeight) {
VaapiAssociate(VaapiDecoders[i]);
}
}
}
///
/// VA-API cleanup osd.
///
static void VaapiOsdExit(void)
{
if (VaOsdImage.image_id != VA_INVALID_ID) {
if (vaDestroyImage(VaDisplay,
VaOsdImage.image_id) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy image!\n"));
}
VaOsdImage.image_id = VA_INVALID_ID;
}
if (VaOsdSubpicture != VA_INVALID_ID) {
int i;
for (i = 0; i < VaapiDecoderN; ++i) {
VaapiDeassociate(VaapiDecoders[i]);
}
if (vaDestroySubpicture(VaDisplay, VaOsdSubpicture)
!= VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't destroy subpicture\n"));
}
VaOsdSubpicture = VA_INVALID_ID;
}
}
///
/// VA-API module.
///
static const VideoModule VaapiModule = {
.Name = "va-api",
.Enabled = 1,
.NewHwDecoder = (VideoHwDecoder * (*const)(void))VaapiNewDecoder,
.DelHwDecoder = (void (*const) (VideoHwDecoder *))VaapiDelDecoder,
.GetSurface = (unsigned (*const) (VideoHwDecoder *))VaapiGetSurface,
.ReleaseSurface =
(void (*const) (VideoHwDecoder *, unsigned))VaapiReleaseSurface,
.get_format = (enum PixelFormat(*const) (VideoHwDecoder *,
AVCodecContext *, const enum PixelFormat *))Vaapi_get_format,
.RenderFrame = (void (*const) (VideoHwDecoder *,
const AVCodecContext *, const AVFrame *))VaapiSyncRenderFrame,
.GrabOutput = NULL,
.SetVideoMode = VaapiSetVideoMode,
.ResetAutoCrop = VaapiResetAutoCrop,
.Thread = VaapiDisplayHandlerThread,
.OsdClear = VaapiOsdClear,
.OsdDrawARGB = VaapiOsdDrawARGB,
.OsdInit = VaapiOsdInit,
.OsdExit = VaapiOsdExit,
.Init = VaapiInit,
.Exit = VaapiExit,
};
#endif
//----------------------------------------------------------------------------
// VDPAU
//----------------------------------------------------------------------------
#ifdef USE_VDPAU
///
/// VDPAU decoder
///
typedef struct _vdpau_decoder_
{
VdpDevice Device; ///< VDPAU device
xcb_window_t Window; ///< output window
int OutputX; ///< output window x
int OutputY; ///< output window y
int OutputWidth; ///< output window width
int OutputHeight; ///< output window height
enum PixelFormat PixFmt; ///< ffmpeg frame pixfmt
int WrongInterlacedWarned; ///< warning about interlace flag issued
int Interlaced; ///< ffmpeg interlaced flag
int TopFieldFirst; ///< ffmpeg top field displayed first
int InputWidth; ///< video input width
int InputHeight; ///< video input height
AVRational InputAspect; ///< video input aspect ratio
VideoResolutions Resolution; ///< resolution group
int CropX; ///< video crop x
int CropY; ///< video crop y
int CropWidth; ///< video crop width
int CropHeight; ///< video crop height
#ifdef USE_AUTOCROP
AutoCropCtx AutoCrop[1]; ///< auto-crop variables
#endif
#ifdef noyetUSE_GLX
GLuint GlTexture[2]; ///< gl texture for VDPAU
void *GlxSurface[2]; ///< VDPAU/GLX surface
#endif
VdpDecoderProfile Profile; ///< vdp decoder profile
VdpDecoder VideoDecoder; ///< vdp video decoder
VdpVideoMixer VideoMixer; ///< vdp video mixer
VdpChromaType ChromaType; ///< vdp video surface chroma format
VdpProcamp Procamp; ///< vdp procamp parameterization data
int SurfacesNeeded; ///< number of surface to request
int SurfaceUsedN; ///< number of used video surfaces
/// used video surface ids
VdpVideoSurface SurfacesUsed[CODEC_SURFACES_MAX];
int SurfaceFreeN; ///< number of free video surfaces
/// free video surface ids
VdpVideoSurface SurfacesFree[CODEC_SURFACES_MAX];
/// video surface ring buffer
VdpVideoSurface SurfacesRb[VIDEO_SURFACES_MAX];
int SurfaceWrite; ///< write pointer
int SurfaceRead; ///< read pointer
atomic_t SurfacesFilled; ///< how many of the buffer is used
int SurfaceField; ///< current displayed field
int DropNextFrame; ///< flag drop next frame
int DupNextFrame; ///< flag duplicate next frame
struct timespec FrameTime; ///< time of last display
int64_t PTS; ///< video PTS clock
int FramesDuped; ///< number of frames duplicated
int FramesMissed; ///< number of frames missed
int FramesDropped; ///< number of frames dropped
int FrameCounter; ///< number of frames decoded
int FramesDisplayed; ///< number of frames displayed
} VdpauDecoder;
static volatile char VdpauPreemption; ///< flag preemption happened.
static VdpauDecoder *VdpauDecoders[1]; ///< open decoder streams
static int VdpauDecoderN; ///< number of decoder streams
static VdpDevice VdpauDevice; ///< VDPAU device
static VdpGetProcAddress *VdpauGetProcAddress; ///< entry point to use
/// presentation queue target
static VdpPresentationQueueTarget VdpauQueueTarget;
static VdpPresentationQueue VdpauQueue; ///< presentation queue
static VdpColor VdpauBackgroundColor[1]; ///< queue background color
static int VdpauHqScalingMax; ///< highest supported scaling level
static int VdpauTemporal; ///< temporal deinterlacer supported
static int VdpauTemporalSpatial; ///< temporal spatial deint. supported
static int VdpauInverseTelecine; ///< inverse telecine deint. supported
static int VdpauNoiseReduction; ///< noise reduction supported
static int VdpauSharpness; ///< sharpness supported
static int VdpauSkipChroma; ///< skip chroma deint. supported
/// display surface ring buffer
static VdpOutputSurface VdpauSurfacesRb[OUTPUT_SURFACES_MAX];
static int VdpauSurfaceIndex; ///< current display surface
#ifdef USE_BITMAP
/// bitmap surfaces for osd
static VdpBitmapSurface VdpauOsdBitmapSurface[2] = {
VDP_INVALID_HANDLE, VDP_INVALID_HANDLE
};
#else
/// output surfaces for osd
static VdpOutputSurface VdpauOsdOutputSurface[2] = {
VDP_INVALID_HANDLE, VDP_INVALID_HANDLE
};
#endif
static int VdpauOsdSurfaceIndex; ///< index into double buffered osd
///
/// Function pointer of the VDPAU device.
///
///@{
static VdpGetErrorString *VdpauGetErrorString;
static VdpDeviceDestroy *VdpauDeviceDestroy;
static VdpGenerateCSCMatrix *VdpauGenerateCSCMatrix;
static VdpVideoSurfaceQueryCapabilities *VdpauVideoSurfaceQueryCapabilities;
static VdpVideoSurfaceQueryGetPutBitsYCbCrCapabilities *
VdpauVideoSurfaceQueryGetPutBitsYCbCrCapabilities;
static VdpVideoSurfaceCreate *VdpauVideoSurfaceCreate;
static VdpVideoSurfaceDestroy *VdpauVideoSurfaceDestroy;
static VdpVideoSurfaceGetParameters *VdpauVideoSurfaceGetParameters;
static VdpVideoSurfaceGetBitsYCbCr *VdpauVideoSurfaceGetBitsYCbCr;
static VdpVideoSurfacePutBitsYCbCr *VdpauVideoSurfacePutBitsYCbCr;
static VdpOutputSurfaceQueryCapabilities *VdpauOutputSurfaceQueryCapabilities;
static VdpOutputSurfaceCreate *VdpauOutputSurfaceCreate;
static VdpOutputSurfaceDestroy *VdpauOutputSurfaceDestroy;
static VdpOutputSurfaceGetParameters *VdpauOutputSurfaceGetParameters;
static VdpOutputSurfaceGetBitsNative *VdpauOutputSurfaceGetBitsNative;
static VdpOutputSurfacePutBitsNative *VdpauOutputSurfacePutBitsNative;
static VdpBitmapSurfaceQueryCapabilities *VdpauBitmapSurfaceQueryCapabilities;
static VdpBitmapSurfaceCreate *VdpauBitmapSurfaceCreate;
static VdpBitmapSurfaceDestroy *VdpauBitmapSurfaceDestroy;
static VdpBitmapSurfacePutBitsNative *VdpauBitmapSurfacePutBitsNative;
static VdpOutputSurfaceRenderOutputSurface
*VdpauOutputSurfaceRenderOutputSurface;
static VdpOutputSurfaceRenderBitmapSurface
*VdpauOutputSurfaceRenderBitmapSurface;
static VdpDecoderQueryCapabilities *VdpauDecoderQueryCapabilities;
static VdpDecoderCreate *VdpauDecoderCreate;
static VdpDecoderDestroy *VdpauDecoderDestroy;
static VdpDecoderRender *VdpauDecoderRender;
static VdpVideoMixerQueryFeatureSupport *VdpauVideoMixerQueryFeatureSupport;
static VdpVideoMixerQueryAttributeSupport
*VdpauVideoMixerQueryAttributeSupport;
static VdpVideoMixerCreate *VdpauVideoMixerCreate;
static VdpVideoMixerSetFeatureEnables *VdpauVideoMixerSetFeatureEnables;
static VdpVideoMixerSetAttributeValues *VdpauVideoMixerSetAttributeValues;
static VdpVideoMixerDestroy *VdpauVideoMixerDestroy;
static VdpVideoMixerRender *VdpauVideoMixerRender;
static VdpPresentationQueueTargetDestroy *VdpauPresentationQueueTargetDestroy;
static VdpPresentationQueueCreate *VdpauPresentationQueueCreate;
static VdpPresentationQueueDestroy *VdpauPresentationQueueDestroy;
static VdpPresentationQueueSetBackgroundColor *
VdpauPresentationQueueSetBackgroundColor;
static VdpPresentationQueueGetTime *VdpauPresentationQueueGetTime;
static VdpPresentationQueueDisplay *VdpauPresentationQueueDisplay;
static VdpPresentationQueueBlockUntilSurfaceIdle
*VdpauPresentationQueueBlockUntilSurfaceIdle;
static VdpPresentationQueueQuerySurfaceStatus
*VdpauPresentationQueueQuerySurfaceStatus;
static VdpPreemptionCallbackRegister *VdpauPreemptionCallbackRegister;
static VdpPresentationQueueTargetCreateX11 *
VdpauPresentationQueueTargetCreateX11;
///@}
static void VdpauOsdInit(int, int); ///< forward definition
//----------------------------------------------------------------------------
///
/// Create surfaces for VDPAU decoder.
///
/// @param decoder VDPAU hw decoder
/// @param width surface source/video width
/// @param height surface source/video height
///
static void VdpauCreateSurfaces(VdpauDecoder * decoder, int width, int height)
{
int i;
#ifdef DEBUG
if (!decoder->SurfacesNeeded) {
Error(_("video/vaapi: surface needed not set\n"));
decoder->SurfacesNeeded = 3 + VIDEO_SURFACES_MAX;
}
#endif
Debug(3, "video/vdpau: %s: %dx%d * %d\n", __FUNCTION__, width, height,
decoder->SurfacesNeeded);
// allocate only the number of needed surfaces
decoder->SurfaceFreeN = decoder->SurfacesNeeded;
for (i = 0; i < decoder->SurfaceFreeN; ++i) {
VdpStatus status;
status =
VdpauVideoSurfaceCreate(decoder->Device, decoder->ChromaType,
width, height, decoder->SurfacesFree + i);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't create video surface: %s\n"),
VdpauGetErrorString(status));
decoder->SurfacesFree[i] = VDP_INVALID_HANDLE;
// FIXME: better error handling
}
Debug(4, "video/vdpau: created video surface %dx%d with id 0x%08x\n",
width, height, decoder->SurfacesFree[i]);
}
}
///
/// Destroy surfaces of VDPAU decoder.
///
/// @param decoder VDPAU hw decoder
///
static void VdpauDestroySurfaces(VdpauDecoder * decoder)
{
int i;
VdpStatus status;
Debug(3, "video/vdpau: %s\n", __FUNCTION__);
for (i = 0; i < decoder->SurfaceFreeN; ++i) {
#ifdef DEBUG
if (decoder->SurfacesFree[i] == VDP_INVALID_HANDLE) {
Debug(3, "video/vdpau: invalid surface\n");
}
#endif
Debug(4, "video/vdpau: destroy video surface with id 0x%08x\n",
decoder->SurfacesFree[i]);
status = VdpauVideoSurfaceDestroy(decoder->SurfacesFree[i]);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't destroy video surface: %s\n"),
VdpauGetErrorString(status));
}
decoder->SurfacesFree[i] = VDP_INVALID_HANDLE;
}
for (i = 0; i < decoder->SurfaceUsedN; ++i) {
#ifdef DEBUG
if (decoder->SurfacesUsed[i] == VDP_INVALID_HANDLE) {
Debug(3, "video/vdpau: invalid surface\n");
}
#endif
Debug(4, "video/vdpau: destroy video surface with id 0x%08x\n",
decoder->SurfacesUsed[i]);
status = VdpauVideoSurfaceDestroy(decoder->SurfacesUsed[i]);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't destroy video surface: %s\n"),
VdpauGetErrorString(status));
}
decoder->SurfacesUsed[i] = VDP_INVALID_HANDLE;
}
decoder->SurfaceFreeN = 0;
decoder->SurfaceUsedN = 0;
}
///
/// Get a free surface.
///
/// @param decoder VDPAU hw decoder
///
/// @returns the oldest free surface
///
static unsigned VdpauGetSurface(VdpauDecoder * decoder)
{
VdpVideoSurface surface;
int i;
if (!decoder->SurfaceFreeN) {
Error(_("video/vdpau: out of surfaces\n"));
return VDP_INVALID_HANDLE;
}
// use oldest surface
surface = decoder->SurfacesFree[0];
decoder->SurfaceFreeN--;
for (i = 0; i < decoder->SurfaceFreeN; ++i) {
decoder->SurfacesFree[i] = decoder->SurfacesFree[i + 1];
}
decoder->SurfacesFree[i] = VDP_INVALID_HANDLE;
// save as used
decoder->SurfacesUsed[decoder->SurfaceUsedN++] = surface;
return surface;
}
///
/// Release a surface.
///
/// @param decoder VDPAU hw decoder
/// @param surface surface no longer used
///
static void VdpauReleaseSurface(VdpauDecoder * decoder, unsigned surface)
{
int i;
for (i = 0; i < decoder->SurfaceUsedN; ++i) {
if (decoder->SurfacesUsed[i] == surface) {
// no problem, with last used
decoder->SurfacesUsed[i] =
decoder->SurfacesUsed[--decoder->SurfaceUsedN];
decoder->SurfacesFree[decoder->SurfaceFreeN++] = surface;
return;
}
}
Error(_("video/vdpau: release surface %#08x, which is not in use\n"),
surface);
}
///
/// Debug VDPAU decoder frames drop...
///
/// @param decoder VDPAU hw decoder
///
static void VdpauPrintFrames(const VdpauDecoder * decoder)
{
Debug(3, "video/vdpau: %d missed, %d duped, %d dropped frames of %d\n",
decoder->FramesMissed, decoder->FramesDuped, decoder->FramesDropped,
decoder->FrameCounter);
#ifndef DEBUG
(void)decoder;
#endif
}
///
/// Create and setup VDPAU mixer.
///
/// @param decoder VDPAU hw decoder
///
/// @note don't forget to update features, paramaters, attributes table
/// size, if more is add.
///
static void VdpauMixerSetup(VdpauDecoder * decoder)
{
VdpStatus status;
int i;
VdpVideoMixerFeature features[15];
VdpBool enables[15];
int feature_n;
VdpVideoMixerAttribute attributes[4];
void const *attribute_value_ptrs[4];
int attribute_n;
uint8_t skip_chroma_value;
float noise_reduction_level;
float sharpness_level;
VdpColorStandard color_standard;
VdpCSCMatrix csc_matrix[1];
//
// Build enables table
//
feature_n = 0;
if (VdpauTemporal) {
enables[feature_n] =
(VideoDeinterlace[decoder->Resolution] == VideoDeinterlaceTemporal
|| VideoDeinterlace[decoder->Resolution] ==
VideoDeinterlaceTemporalSpatial) ? VDP_TRUE : VDP_FALSE;
features[feature_n++] = VDP_VIDEO_MIXER_FEATURE_DEINTERLACE_TEMPORAL;
Debug(3, "video/vdpau: temporal deinterlace %s\n",
enables[feature_n - 1] ? "enabled" : "disabled");
}
if (VdpauTemporalSpatial) {
enables[feature_n] =
VideoDeinterlace[decoder->Resolution] ==
VideoDeinterlaceTemporalSpatial ? VDP_TRUE : VDP_FALSE;
features[feature_n++] =
VDP_VIDEO_MIXER_FEATURE_DEINTERLACE_TEMPORAL_SPATIAL;
Debug(3, "video/vdpau: temporal spatial deinterlace %s\n",
enables[feature_n - 1] ? "enabled" : "disabled");
}
if (VdpauInverseTelecine) {
enables[feature_n] =
VideoInverseTelecine[decoder->Resolution] ? VDP_TRUE : VDP_FALSE;
features[feature_n++] = VDP_VIDEO_MIXER_FEATURE_INVERSE_TELECINE;
Debug(3, "video/vdpau: inverse telecine %s\n",
enables[feature_n - 1] ? "enabled" : "disabled");
}
if (VdpauNoiseReduction) {
enables[feature_n] =
VideoDenoise[decoder->Resolution] ? VDP_TRUE : VDP_FALSE;
features[feature_n++] = VDP_VIDEO_MIXER_FEATURE_NOISE_REDUCTION;
Debug(3, "video/vdpau: noise reduction %s\n",
enables[feature_n - 1] ? "enabled" : "disabled");
}
if (VdpauSharpness) {
enables[feature_n] =
VideoSharpen[decoder->Resolution] ? VDP_TRUE : VDP_FALSE;
features[feature_n++] = VDP_VIDEO_MIXER_FEATURE_SHARPNESS;
Debug(3, "video/vdpau: sharpness %s\n",
enables[feature_n - 1] ? "enabled" : "disabled");
}
for (i = VDP_VIDEO_MIXER_FEATURE_HIGH_QUALITY_SCALING_L1;
i <= VdpauHqScalingMax; ++i) {
enables[feature_n] =
VideoScaling[decoder->Resolution] ==
VideoScalingHQ ? VDP_TRUE : VDP_FALSE;
features[feature_n++] = i;
Debug(3, "video/vdpau: high quality scaling %d %s\n",
1 + i - VDP_VIDEO_MIXER_FEATURE_HIGH_QUALITY_SCALING_L1,
enables[feature_n - 1] ? "enabled" : "disabled");
}
status =
VdpauVideoMixerSetFeatureEnables(decoder->VideoMixer, feature_n,
features, enables);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't set mixer feature enables: %s\n"),
VdpauGetErrorString(status));
}
//
// build attributes table
//
/*
FIXME:
VDP_VIDEO_MIXER_ATTRIBUTE_LUMA_KEY_MIN_LUMA
VDP_VIDEO_MIXER_ATTRIBUTE_LUMA_KEY_MAX_LUMA
*/
attribute_n = 0;
if (VdpauSkipChroma) {
skip_chroma_value = VideoSkipChromaDeinterlace[decoder->Resolution];
attributes[attribute_n]
= VDP_VIDEO_MIXER_ATTRIBUTE_SKIP_CHROMA_DEINTERLACE;
attribute_value_ptrs[attribute_n++] = &skip_chroma_value;
Debug(3, "video/vdpau: skip chroma deinterlace %s\n",
skip_chroma_value ? "enabled" : "disabled");
}
if (VdpauNoiseReduction) {
noise_reduction_level = VideoDenoise[decoder->Resolution] / 1000.0;
attributes[attribute_n]
= VDP_VIDEO_MIXER_ATTRIBUTE_NOISE_REDUCTION_LEVEL;
attribute_value_ptrs[attribute_n++] = &noise_reduction_level;
Debug(3, "video/vdpau: noise reduction level %1.3f\n",
noise_reduction_level);
}
if (VdpauSharpness) {
sharpness_level = VideoSharpen[decoder->Resolution] / 1000.0;
attributes[attribute_n]
= VDP_VIDEO_MIXER_ATTRIBUTE_SHARPNESS_LEVEL;
attribute_value_ptrs[attribute_n++] = &sharpness_level;
Debug(3, "video/vdpau: sharpness level %+1.3f\n", sharpness_level);
}
// FIXME: studio colors, VideoColorStandard[decoder->Resolution]
if (decoder->InputWidth > 1280 || decoder->InputHeight > 576) {
// HDTV
color_standard = VDP_COLOR_STANDARD_ITUR_BT_709;
Debug(3, "video/vdpau: color space ITU-R BT.709\n");
} else {
// SDTV
color_standard = VDP_COLOR_STANDARD_ITUR_BT_601;
Debug(3, "video/vdpau: color space ITU-R BT.601\n");
}
status =
VdpauGenerateCSCMatrix(&decoder->Procamp, color_standard, csc_matrix);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't generate CSC matrix: %s\n"),
VdpauGetErrorString(status));
}
attributes[attribute_n] = VDP_VIDEO_MIXER_ATTRIBUTE_CSC_MATRIX;
attribute_value_ptrs[attribute_n++] = csc_matrix;
status =
VdpauVideoMixerSetAttributeValues(decoder->VideoMixer, attribute_n,
attributes, attribute_value_ptrs);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't set mixer attribute values: %s\n"),
VdpauGetErrorString(status));
}
}
///
/// Create and setup VDPAU mixer.
///
/// @param decoder VDPAU hw decoder
///
/// @note don't forget to update features, paramaters, attributes table
/// size, if more is add.
///
static void VdpauMixerCreate(VdpauDecoder * decoder)
{
VdpStatus status;
int i;
VdpVideoMixerFeature features[15];
int feature_n;
VdpVideoMixerParameter paramaters[4];
void const *value_ptrs[4];
int parameter_n;
VdpChromaType chroma_type;
int layers;
//
// Build feature table
//
feature_n = 0;
if (VdpauTemporal) {
features[feature_n++] = VDP_VIDEO_MIXER_FEATURE_DEINTERLACE_TEMPORAL;
}
if (VdpauTemporalSpatial) {
features[feature_n++] =
VDP_VIDEO_MIXER_FEATURE_DEINTERLACE_TEMPORAL_SPATIAL;
}
if (VdpauInverseTelecine) {
features[feature_n++] = VDP_VIDEO_MIXER_FEATURE_INVERSE_TELECINE;
}
if (VdpauNoiseReduction) {
features[feature_n++] = VDP_VIDEO_MIXER_FEATURE_NOISE_REDUCTION;
}
if (VdpauSharpness) {
features[feature_n++] = VDP_VIDEO_MIXER_FEATURE_SHARPNESS;
}
for (i = VDP_VIDEO_MIXER_FEATURE_HIGH_QUALITY_SCALING_L1;
i <= VdpauHqScalingMax; ++i) {
features[feature_n++] = i;
}
decoder->ChromaType = chroma_type = VDP_CHROMA_TYPE_420;
// FIXME: use best chroma
//
// Setup parameter/value tables
//
paramaters[0] = VDP_VIDEO_MIXER_PARAMETER_VIDEO_SURFACE_WIDTH;
value_ptrs[0] = &decoder->InputWidth;
paramaters[1] = VDP_VIDEO_MIXER_PARAMETER_VIDEO_SURFACE_HEIGHT;
value_ptrs[1] = &decoder->InputHeight;
paramaters[2] = VDP_VIDEO_MIXER_PARAMETER_CHROMA_TYPE;
value_ptrs[2] = &chroma_type;
layers = 0;
paramaters[3] = VDP_VIDEO_MIXER_PARAMETER_LAYERS;
value_ptrs[3] = &layers;
parameter_n = 4;
status =
VdpauVideoMixerCreate(VdpauDevice, feature_n, features, parameter_n,
paramaters, value_ptrs, &decoder->VideoMixer);
if (status != VDP_STATUS_OK) {
Fatal(_("video/vdpau: can't create video mixer: %s\n"),
VdpauGetErrorString(status));
// FIXME: no fatal errors
}
VdpauMixerSetup(decoder);
}
///
/// Allocate new VDPAU decoder.
///
/// @returns a new prepared vdpau hardware decoder.
///
static VdpauDecoder *VdpauNewDecoder(void)
{
VdpauDecoder *decoder;
int i;
if (VdpauDecoderN == 1) {
Error(_("video/vdpau: out of decoders\n"));
return NULL;
}
if (!(decoder = calloc(1, sizeof(*decoder)))) {
Error(_("video/vdpau: out of memory\n"));
return NULL;
}
decoder->Device = VdpauDevice;
decoder->Window = VideoWindow;
decoder->Profile = VDP_INVALID_HANDLE;
decoder->VideoDecoder = VDP_INVALID_HANDLE;
decoder->VideoMixer = VDP_INVALID_HANDLE;
for (i = 0; i < CODEC_SURFACES_MAX; ++i) {
decoder->SurfacesUsed[i] = VDP_INVALID_HANDLE;
decoder->SurfacesFree[i] = VDP_INVALID_HANDLE;
}
//
// setup video surface ring buffer
//
atomic_set(&decoder->SurfacesFilled, 0);
for (i = 0; i < VIDEO_SURFACES_MAX; ++i) {
decoder->SurfacesRb[i] = VDP_INVALID_HANDLE;
}
// we advance before display, to loose no surface, we set it before
//decoder->SurfaceRead = VIDEO_SURFACES_MAX - 1;
//decoder->SurfaceField = 1;
#ifdef DEBUG
if (VIDEO_SURFACES_MAX < 1 + 1 + 1 + 1) {
Error(_
("video/vdpau: need 1 future, 1 current, 1 back and 1 work surface\n"));
}
#endif
decoder->OutputWidth = VideoWindowWidth;
decoder->OutputHeight = VideoWindowHeight;
// Procamp operation parameterization data
decoder->Procamp.struct_version = VDP_PROCAMP_VERSION;
decoder->Procamp.brightness = 0.0;
decoder->Procamp.contrast = 1.0;
decoder->Procamp.saturation = 1.0;
decoder->Procamp.hue = 0.0; // default values
// FIXME: hack
VdpauDecoderN = 1;
VdpauDecoders[0] = decoder;
return decoder;
}
///
/// Cleanup VDPAU.
///
/// @param decoder VDPAU hw decoder
///
static void VdpauCleanup(VdpauDecoder * decoder)
{
VdpStatus status;
int i;
if (decoder->VideoDecoder != VDP_INVALID_HANDLE) {
// hangs in lock
status = VdpauDecoderDestroy(decoder->VideoDecoder);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't destroy video decoder: %s\n"),
VdpauGetErrorString(status));
}
decoder->VideoDecoder = VDP_INVALID_HANDLE;
decoder->Profile = VDP_INVALID_HANDLE;
}
if (decoder->VideoMixer != VDP_INVALID_HANDLE) {
status = VdpauVideoMixerDestroy(decoder->VideoMixer);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't destroy video mixer: %s\n"),
VdpauGetErrorString(status));
}
decoder->VideoMixer = VDP_INVALID_HANDLE;
}
if (decoder->SurfaceFreeN || decoder->SurfaceUsedN) {
VdpauDestroySurfaces(decoder);
}
//
// reset video surface ring buffer
//
atomic_set(&decoder->SurfacesFilled, 0);
for (i = 0; i < VIDEO_SURFACES_MAX; ++i) {
decoder->SurfacesRb[i] = VDP_INVALID_HANDLE;
}
decoder->SurfaceRead = 0;
decoder->SurfaceWrite = 0;
decoder->SurfaceField = 0;
decoder->PTS = AV_NOPTS_VALUE;
VideoDeltaPTS = 0;
}
///
/// Destroy a VDPAU decoder.
///
/// @param decoder VDPAU hw decoder
///
static void VdpauDelDecoder(VdpauDecoder * decoder)
{
int i;
for (i = 0; i < VdpauDecoderN; ++i) {
if (VdpauDecoders[i] == decoder) {
VdpauDecoders[i] = NULL;
VdpauDecoderN--;
// FIXME: must copy last slot into empty slot and --
break;
}
}
VdpauCleanup(decoder);
VdpauPrintFrames(decoder);
free(decoder);
}
///
/// Get the proc address.
///
/// @param id VDP function id
/// @param[out] addr address of VDP function
/// @param name name of function for error message
///
static inline void VdpauGetProc(const VdpFuncId id, void *addr,
const char *name)
{
VdpStatus status;
status = VdpauGetProcAddress(VdpauDevice, id, addr);
if (status != VDP_STATUS_OK) {
Fatal(_("video/vdpau: Can't get function address of '%s': %s\n"), name,
VdpauGetErrorString(status));
// FIXME: rewrite none fatal
}
}
///
/// Initialize output queue.
///
static void VdpauInitOutputQueue(void)
{
VdpStatus status;
int i;
status =
VdpauPresentationQueueTargetCreateX11(VdpauDevice, VideoWindow,
&VdpauQueueTarget);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't create presentation queue target: %s\n"),
VdpauGetErrorString(status));
return;
}
status =
VdpauPresentationQueueCreate(VdpauDevice, VdpauQueueTarget,
&VdpauQueue);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't create presentation queue: %s\n"),
VdpauGetErrorString(status));
VdpauPresentationQueueTargetDestroy(VdpauQueueTarget);
VdpauQueueTarget = 0;
return;
}
VdpauBackgroundColor->red = 0.01;
VdpauBackgroundColor->green = 0.02;
VdpauBackgroundColor->blue = 0.03;
VdpauBackgroundColor->alpha = 1.00;
VdpauPresentationQueueSetBackgroundColor(VdpauQueue, VdpauBackgroundColor);
//
// Create display output surfaces
//
for (i = 0; i < OUTPUT_SURFACES_MAX; ++i) {
VdpRGBAFormat format;
format = VDP_RGBA_FORMAT_B8G8R8A8;
// FIXME: does a 10bit rgba produce a better output?
// format = VDP_RGBA_FORMAT_R10G10B10A2;
status =
VdpauOutputSurfaceCreate(VdpauDevice, format, VideoWindowWidth,
VideoWindowHeight, VdpauSurfacesRb + i);
if (status != VDP_STATUS_OK) {
Fatal(_("video/vdpau: can't create output surface: %s\n"),
VdpauGetErrorString(status));
}
Debug(3, "video/vdpau: created output surface %dx%d with id 0x%08x\n",
VideoWindowWidth, VideoWindowHeight, VdpauSurfacesRb[i]);
}
}
///
/// Cleanup output queue.
///
static void VdpauExitOutputQueue(void)
{
int i;
//
// destroy display output surfaces
//
for (i = 0; i < OUTPUT_SURFACES_MAX; ++i) {
VdpStatus status;
Debug(4, "video/vdpau: destroy output surface with id 0x%08x\n",
VdpauSurfacesRb[i]);
if (VdpauSurfacesRb[i] != VDP_INVALID_HANDLE) {
status = VdpauOutputSurfaceDestroy(VdpauSurfacesRb[i]);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't destroy output surface: %s\n"),
VdpauGetErrorString(status));
}
VdpauSurfacesRb[i] = VDP_INVALID_HANDLE;
}
}
if (VdpauQueue) {
VdpauPresentationQueueDestroy(VdpauQueue);
VdpauQueue = 0;
}
if (VdpauQueueTarget) {
VdpauPresentationQueueTargetDestroy(VdpauQueueTarget);
VdpauQueueTarget = 0;
}
}
///
/// Display preemption callback.
///
/// @param device device that had its display preempted
/// @param context client-supplied callback context
///
static void VdpauPreemptionCallback(VdpDevice device, __attribute__ ((unused))
void *context)
{
Debug(3, "video/vdpau: display preemption\n");
if (device != VdpauDevice) {
Error(_("video/vdpau preemption device not our device\n"));
return;
}
VdpauPreemption = 1; // set flag for video thread
}
///
/// VDPAU setup.
///
/// @param display_name x11/xcb display name
///
/// @returns true if VDPAU could be initialized, false otherwise.
///
static int VdpauInit(const char *display_name)
{
VdpStatus status;
VdpGetApiVersion *get_api_version;
uint32_t api_version;
VdpGetInformationString *get_information_string;
const char *information_string;
int i;
VdpBool flag;
uint32_t max_width;
uint32_t max_height;
status =
vdp_device_create_x11(XlibDisplay, DefaultScreen(XlibDisplay),
&VdpauDevice, &VdpauGetProcAddress);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: Can't create vdp device on display '%s'\n"),
display_name);
return 0;
}
// get error function first, for better error messages
status =
VdpauGetProcAddress(VdpauDevice, VDP_FUNC_ID_GET_ERROR_STRING,
(void **)&VdpauGetErrorString);
if (status != VDP_STATUS_OK) {
Error(_
("video/vdpau: Can't get function address of 'GetErrorString'\n"));
// FIXME: destroy_x11 VdpauDeviceDestroy
return 0;
}
// get destroy device next, for cleaning up
VdpauGetProc(VDP_FUNC_ID_DEVICE_DESTROY, &VdpauDeviceDestroy,
"DeviceDestroy");
// get version
VdpauGetProc(VDP_FUNC_ID_GET_API_VERSION, &get_api_version,
"GetApiVersion");
VdpauGetProc(VDP_FUNC_ID_GET_INFORMATION_STRING, &get_information_string,
"VdpauGetProc");
status = get_api_version(&api_version);
// FIXME: check status
status = get_information_string(&information_string);
// FIXME: check status
Info(_("video/vdpau: VDPAU API version: %u\n"), api_version);
Info(_("video/vdpau: VDPAU information: %s\n"), information_string);
// FIXME: check if needed capabilities are available
VdpauGetProc(VDP_FUNC_ID_GENERATE_CSC_MATRIX, &VdpauGenerateCSCMatrix,
"GenerateCSCMatrix");
VdpauGetProc(VDP_FUNC_ID_VIDEO_SURFACE_QUERY_CAPABILITIES,
&VdpauVideoSurfaceQueryCapabilities, "VideoSurfaceQueryCapabilities");
VdpauGetProc
(VDP_FUNC_ID_VIDEO_SURFACE_QUERY_GET_PUT_BITS_Y_CB_CR_CAPABILITIES,
&VdpauVideoSurfaceQueryGetPutBitsYCbCrCapabilities,
"VideoSurfaceQueryGetPutBitsYCbCrCapabilities");
VdpauGetProc(VDP_FUNC_ID_VIDEO_SURFACE_CREATE, &VdpauVideoSurfaceCreate,
"VideoSurfaceCreate");
VdpauGetProc(VDP_FUNC_ID_VIDEO_SURFACE_DESTROY, &VdpauVideoSurfaceDestroy,
"VideoSurfaceDestroy");
VdpauGetProc(VDP_FUNC_ID_VIDEO_SURFACE_GET_PARAMETERS,
&VdpauVideoSurfaceGetParameters, "VideoSurfaceGetParameters");
VdpauGetProc(VDP_FUNC_ID_VIDEO_SURFACE_GET_BITS_Y_CB_CR,
&VdpauVideoSurfaceGetBitsYCbCr, "VideoSurfaceGetBitsYCbCr");
VdpauGetProc(VDP_FUNC_ID_VIDEO_SURFACE_PUT_BITS_Y_CB_CR,
&VdpauVideoSurfacePutBitsYCbCr, "VideoSurfacePutBitsYCbCr");
VdpauGetProc(VDP_FUNC_ID_OUTPUT_SURFACE_QUERY_CAPABILITIES,
&VdpauOutputSurfaceQueryCapabilities,
"OutputSurfaceQueryCapabilities");
#if 0
VdpauGetProc
(VDP_FUNC_ID_OUTPUT_SURFACE_QUERY_GET_PUT_BITS_NATIVE_CAPABILITIES, &,
"");
VdpauGetProc
(VDP_FUNC_ID_OUTPUT_SURFACE_QUERY_PUT_BITS_INDEXED_CAPABILITIES, &,
"");
VdpauGetProc
(VDP_FUNC_ID_OUTPUT_SURFACE_QUERY_PUT_BITS_Y_CB_CR_CAPABILITIES, &,
"");
#endif
VdpauGetProc(VDP_FUNC_ID_OUTPUT_SURFACE_CREATE, &VdpauOutputSurfaceCreate,
"OutputSurfaceCreate");
VdpauGetProc(VDP_FUNC_ID_OUTPUT_SURFACE_DESTROY,
&VdpauOutputSurfaceDestroy, "OutputSurfaceDestroy");
VdpauGetProc(VDP_FUNC_ID_OUTPUT_SURFACE_GET_PARAMETERS,
&VdpauOutputSurfaceGetParameters, "OutputSurfaceGetParameters");
VdpauGetProc(VDP_FUNC_ID_OUTPUT_SURFACE_GET_BITS_NATIVE,
&VdpauOutputSurfaceGetBitsNative, "OutputSurfaceGetBitsNative");
VdpauGetProc(VDP_FUNC_ID_OUTPUT_SURFACE_PUT_BITS_NATIVE,
&VdpauOutputSurfacePutBitsNative, "OutputSurfacePutBitsNative");
#if 0
VdpauGetProc(VDP_FUNC_ID_OUTPUT_SURFACE_PUT_BITS_INDEXED, &, "");
VdpauGetProc(VDP_FUNC_ID_OUTPUT_SURFACE_PUT_BITS_Y_CB_CR, &, "");
#endif
VdpauGetProc(VDP_FUNC_ID_BITMAP_SURFACE_QUERY_CAPABILITIES,
&VdpauBitmapSurfaceQueryCapabilities,
"BitmapSurfaceQueryCapabilities");
VdpauGetProc(VDP_FUNC_ID_BITMAP_SURFACE_CREATE, &VdpauBitmapSurfaceCreate,
"BitmapSurfaceCreate");
VdpauGetProc(VDP_FUNC_ID_BITMAP_SURFACE_DESTROY,
&VdpauBitmapSurfaceDestroy, "BitmapSurfaceDestroy");
// VdpauGetProc(VDP_FUNC_ID_BITMAP_SURFACE_GET_PARAMETERS, &VdpauBitmapSurfaceGetParameters, "BitmapSurfaceGetParameters");
VdpauGetProc(VDP_FUNC_ID_BITMAP_SURFACE_PUT_BITS_NATIVE,
&VdpauBitmapSurfacePutBitsNative, "BitmapSurfacePutBitsNative");
VdpauGetProc(VDP_FUNC_ID_OUTPUT_SURFACE_RENDER_OUTPUT_SURFACE,
&VdpauOutputSurfaceRenderOutputSurface,
"OutputSurfaceRenderOutputSurface");
VdpauGetProc(VDP_FUNC_ID_OUTPUT_SURFACE_RENDER_BITMAP_SURFACE,
&VdpauOutputSurfaceRenderBitmapSurface,
"OutputSurfaceRenderBitmapSurface");
#if 0
VdpauGetProc(VDP_FUNC_ID_OUTPUT_SURFACE_RENDER_VIDEO_SURFACE_LUMA, &, "");
#endif
VdpauGetProc(VDP_FUNC_ID_DECODER_QUERY_CAPABILITIES,
&VdpauDecoderQueryCapabilities, "DecoderQueryCapabilities");
VdpauGetProc(VDP_FUNC_ID_DECODER_CREATE, &VdpauDecoderCreate,
"DecoderCreate");
VdpauGetProc(VDP_FUNC_ID_DECODER_DESTROY, &VdpauDecoderDestroy,
"DecoderDestroy");
#if 0
VdpauGetProc(VDP_FUNC_ID_DECODER_GET_PARAMETERS,
&VdpauDecoderGetParameters, "DecoderGetParameters");
#endif
VdpauGetProc(VDP_FUNC_ID_DECODER_RENDER, &VdpauDecoderRender,
"DecoderRender");
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_QUERY_FEATURE_SUPPORT,
&VdpauVideoMixerQueryFeatureSupport, "VideoMixerQueryFeatureSupport");
#if 0
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_QUERY_PARAMETER_SUPPORT, &, "");
#endif
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_QUERY_ATTRIBUTE_SUPPORT,
&VdpauVideoMixerQueryAttributeSupport,
"VideoMixerQueryAttributeSupport");
#if 0
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_QUERY_PARAMETER_VALUE_RANGE, &, "");
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_QUERY_ATTRIBUTE_VALUE_RANGE, &, "");
#endif
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_CREATE, &VdpauVideoMixerCreate,
"VideoMixerCreate");
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_SET_FEATURE_ENABLES,
&VdpauVideoMixerSetFeatureEnables, "VideoMixerSetFeatureEnables");
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_SET_ATTRIBUTE_VALUES,
&VdpauVideoMixerSetAttributeValues, "VideoMixerSetAttributeValues");
#if 0
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_GET_FEATURE_SUPPORT, &, "");
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_GET_FEATURE_ENABLES, &, "");
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_GET_PARAMETER_VALUES, &, "");
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_GET_ATTRIBUTE_VALUES, &, "");
#endif
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_DESTROY, &VdpauVideoMixerDestroy,
"VideoMixerDestroy");
VdpauGetProc(VDP_FUNC_ID_VIDEO_MIXER_RENDER, &VdpauVideoMixerRender,
"VideoMixerRender");
VdpauGetProc(VDP_FUNC_ID_PRESENTATION_QUEUE_TARGET_DESTROY,
&VdpauPresentationQueueTargetDestroy,
"PresentationQueueTargetDestroy");
VdpauGetProc(VDP_FUNC_ID_PRESENTATION_QUEUE_CREATE,
&VdpauPresentationQueueCreate, "PresentationQueueCreate");
VdpauGetProc(VDP_FUNC_ID_PRESENTATION_QUEUE_DESTROY,
&VdpauPresentationQueueDestroy, "PresentationQueueDestroy");
VdpauGetProc(VDP_FUNC_ID_PRESENTATION_QUEUE_SET_BACKGROUND_COLOR,
&VdpauPresentationQueueSetBackgroundColor,
"PresentationQueueSetBackgroundColor");
#if 0
VdpauGetProc(VDP_FUNC_ID_PRESENTATION_QUEUE_GET_BACKGROUND_COLOR,
&VdpauPresentationQueueGetBackgroundColor,
"PresentationQueueGetBackgroundColor");
#endif
VdpauGetProc(VDP_FUNC_ID_PRESENTATION_QUEUE_GET_TIME,
&VdpauPresentationQueueGetTime, "PresentationQueueGetTime");
VdpauGetProc(VDP_FUNC_ID_PRESENTATION_QUEUE_DISPLAY,
&VdpauPresentationQueueDisplay, "PresentationQueueDisplay");
VdpauGetProc(VDP_FUNC_ID_PRESENTATION_QUEUE_BLOCK_UNTIL_SURFACE_IDLE,
&VdpauPresentationQueueBlockUntilSurfaceIdle,
"PresentationQueueBlockUntilSurfaceIdle");
VdpauGetProc(VDP_FUNC_ID_PRESENTATION_QUEUE_QUERY_SURFACE_STATUS,
&VdpauPresentationQueueQuerySurfaceStatus,
"PresentationQueueQuerySurfaceStatus");
VdpauGetProc(VDP_FUNC_ID_PREEMPTION_CALLBACK_REGISTER,
&VdpauPreemptionCallbackRegister, "PreemptionCallbackRegister");
VdpauGetProc(VDP_FUNC_ID_PRESENTATION_QUEUE_TARGET_CREATE_X11,
&VdpauPresentationQueueTargetCreateX11,
"PresentationQueueTargetCreateX11");
status =
VdpauPreemptionCallbackRegister(VdpauDevice, VdpauPreemptionCallback,
NULL);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't register preemption callback: %s\n"),
VdpauGetErrorString(status));
}
//
// Look which levels of high quality scaling are supported
//
for (i = 0; i < 9; ++i) {
status =
VdpauVideoMixerQueryFeatureSupport(VdpauDevice,
VDP_VIDEO_MIXER_FEATURE_HIGH_QUALITY_SCALING_L1 + i, &flag);
if (status != VDP_STATUS_OK) {
Warning(_("video/vdpau: can't query feature '%s': %s\n"),
"high-quality-scaling", VdpauGetErrorString(status));
break;
}
if (!flag) {
break;
}
VdpauHqScalingMax =
VDP_VIDEO_MIXER_FEATURE_HIGH_QUALITY_SCALING_L1 + i;
}
//
// Cache some features
//
status =
VdpauVideoMixerQueryFeatureSupport(VdpauDevice,
VDP_VIDEO_MIXER_FEATURE_DEINTERLACE_TEMPORAL, &flag);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query feature '%s': %s\n"),
"deinterlace-temporal", VdpauGetErrorString(status));
} else {
VdpauTemporal = flag;
}
status =
VdpauVideoMixerQueryFeatureSupport(VdpauDevice,
VDP_VIDEO_MIXER_FEATURE_DEINTERLACE_TEMPORAL_SPATIAL, &flag);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query feature '%s': %s\n"),
"deinterlace-temporal-spatial", VdpauGetErrorString(status));
} else {
VdpauTemporalSpatial = flag;
}
status =
VdpauVideoMixerQueryFeatureSupport(VdpauDevice,
VDP_VIDEO_MIXER_FEATURE_INVERSE_TELECINE, &flag);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query feature '%s': %s\n"),
"inverse-telecine", VdpauGetErrorString(status));
} else {
VdpauInverseTelecine = flag;
}
status =
VdpauVideoMixerQueryFeatureSupport(VdpauDevice,
VDP_VIDEO_MIXER_FEATURE_NOISE_REDUCTION, &flag);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query feature '%s': %s\n"),
"noise-reduction", VdpauGetErrorString(status));
} else {
VdpauNoiseReduction = flag;
}
status =
VdpauVideoMixerQueryFeatureSupport(VdpauDevice,
VDP_VIDEO_MIXER_FEATURE_SHARPNESS, &flag);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query feature '%s': %s\n"), "sharpness",
VdpauGetErrorString(status));
} else {
VdpauSharpness = flag;
}
status =
VdpauVideoMixerQueryAttributeSupport(VdpauDevice,
VDP_VIDEO_MIXER_ATTRIBUTE_SKIP_CHROMA_DEINTERLACE, &flag);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query feature '%s': %s\n"),
"skip-chroma-deinterlace", VdpauGetErrorString(status));
} else {
VdpauSkipChroma = flag;
}
// VDP_VIDEO_MIXER_ATTRIBUTE_BACKGROUND_COLOR
Info(_("video/vdpau: highest supported high quality scaling %d\n"),
VdpauHqScalingMax - VDP_VIDEO_MIXER_FEATURE_HIGH_QUALITY_SCALING_L1 +
1);
Info(_("video/vdpau: feature deinterlace temporal %s\n"),
VdpauTemporal ? _("supported") : _("unsupported"));
Info(_("video/vdpau: feature deinterlace temporal spatial %s\n"),
VdpauTemporalSpatial ? _("supported") : _("unsupported"));
Info(_("video/vdpau: attribute skip chroma deinterlace %s\n"),
VdpauSkipChroma ? _("supported") : _("unsupported"));
//
// video formats
//
flag = VDP_FALSE;
status =
VdpauVideoSurfaceQueryCapabilities(VdpauDevice, VDP_CHROMA_TYPE_420,
&flag, &max_width, &max_height);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query video surface: %s\n"),
VdpauGetErrorString(status));
}
if (flag) {
Info(_("video/vdpau: 4:2:0 chroma format with %dx%d supported\n"),
max_width, max_height);
}
flag = VDP_FALSE;
status =
VdpauVideoSurfaceQueryCapabilities(VdpauDevice, VDP_CHROMA_TYPE_422,
&flag, &max_width, &max_height);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query video surface: %s\n"),
VdpauGetErrorString(status));
}
if (flag) {
Info(_("video/vdpau: 4:2:2 chroma format with %dx%d supported\n"),
max_width, max_height);
}
flag = VDP_FALSE;
status =
VdpauVideoSurfaceQueryCapabilities(VdpauDevice, VDP_CHROMA_TYPE_444,
&flag, &max_width, &max_height);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query video surface: %s\n"),
VdpauGetErrorString(status));
}
if (flag) {
Info(_("video/vdpau: 4:4:4 chroma format with %dx%d supported\n"),
max_width, max_height);
}
// FIXME: does only check for chroma formats, but no action
status =
VdpauVideoSurfaceQueryGetPutBitsYCbCrCapabilities(VdpauDevice,
VDP_CHROMA_TYPE_422, VDP_YCBCR_FORMAT_YUYV, &flag);
if (status != VDP_STATUS_OK || !flag) {
Error(_("video/vdpau: doesn't support yuvy video surface\n"));
}
status =
VdpauVideoSurfaceQueryGetPutBitsYCbCrCapabilities(VdpauDevice,
VDP_CHROMA_TYPE_420, VDP_YCBCR_FORMAT_YV12, &flag);
if (status != VDP_STATUS_OK || !flag) {
Error(_("video/vdpau: doesn't support yv12 video surface\n"));
}
flag = VDP_FALSE;
status =
VdpauOutputSurfaceQueryCapabilities(VdpauDevice,
VDP_RGBA_FORMAT_B8G8R8A8, &flag, &max_width, &max_height);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query output surface: %s\n"),
VdpauGetErrorString(status));
}
if (flag) {
Info(_("video/vdpau: 8bit BGRA format with %dx%d supported\n"),
max_width, max_height);
}
flag = VDP_FALSE;
status =
VdpauOutputSurfaceQueryCapabilities(VdpauDevice,
VDP_RGBA_FORMAT_R8G8B8A8, &flag, &max_width, &max_height);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query output surface: %s\n"),
VdpauGetErrorString(status));
}
if (flag) {
Info(_("video/vdpau: 8bit RGBA format with %dx%d supported\n"),
max_width, max_height);
}
flag = VDP_FALSE;
status =
VdpauOutputSurfaceQueryCapabilities(VdpauDevice,
VDP_RGBA_FORMAT_R10G10B10A2, &flag, &max_width, &max_height);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query output surface: %s\n"),
VdpauGetErrorString(status));
}
if (flag) {
Info(_("video/vdpau: 10bit RGBA format with %dx%d supported\n"),
max_width, max_height);
}
flag = VDP_FALSE;
status =
VdpauOutputSurfaceQueryCapabilities(VdpauDevice,
VDP_RGBA_FORMAT_B10G10R10A2, &flag, &max_width, &max_height);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query output surface: %s\n"),
VdpauGetErrorString(status));
}
if (flag) {
Info(_("video/vdpau: 8bit BRGA format with %dx%d supported\n"),
max_width, max_height);
}
// FIXME: does only check for rgba formats, but no action
//
// Create presentation queue, only one queue pro window
//
VdpauInitOutputQueue();
return 1;
}
///
/// VDPAU cleanup.
///
static void VdpauExit(void)
{
int i;
for (i = 0; i < VdpauDecoderN; ++i) {
if (VdpauDecoders[i]) {
VdpauDelDecoder(VdpauDecoders[i]);
VdpauDecoders[i] = NULL;
}
}
if (VdpauDevice) {
VdpauExitOutputQueue();
// FIXME: more VDPAU cleanups...
if (VdpauDeviceDestroy) {
VdpauDeviceDestroy(VdpauDevice);
}
VdpauDevice = 0;
}
}
///
/// Update output for new size or aspect ratio.
///
/// @param decoder VDPAU hw decoder
///
static void VdpauUpdateOutput(VdpauDecoder * decoder)
{
VideoUpdateOutput(decoder->InputAspect, decoder->InputWidth,
decoder->InputHeight, &decoder->OutputX, &decoder->OutputY,
&decoder->OutputWidth, &decoder->OutputHeight, &decoder->CropX,
&decoder->CropY, &decoder->CropWidth, &decoder->CropHeight);
#ifdef USE_AUTOCROP
decoder->AutoCrop->State = 0;
decoder->AutoCrop->Count = AutoCropDelay;
#endif
}
///
/// Configure VDPAU for new video format.
///
/// @param decoder VDPAU hw decoder
///
static void VdpauSetupOutput(VdpauDecoder * decoder)
{
VdpStatus status;
VdpChromaType chroma_type;
uint32_t width;
uint32_t height;
// FIXME: need only to create and destroy surfaces for size changes
// or when number of needed surfaces changed!
decoder->Resolution =
VideoResolutionGroup(decoder->InputWidth, decoder->InputHeight,
decoder->Interlaced);
VdpauCreateSurfaces(decoder, decoder->InputWidth, decoder->InputHeight);
VdpauMixerCreate(decoder);
VdpauUpdateOutput(decoder); // update aspect/scaling
// get real surface size
status =
VdpauVideoSurfaceGetParameters(decoder->SurfacesFree[0], &chroma_type,
&width, &height);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't get video surface parameters: %s\n"),
VdpauGetErrorString(status));
return;
}
// vdpau can choose different sizes, must use them for putbits
if (chroma_type != decoder->ChromaType
|| width != (uint32_t) decoder->InputWidth
|| height != (uint32_t) decoder->InputHeight) {
// FIXME: must rewrite the code to support this case
Fatal(_("video/vdpau: video surface type/size mismatch\n"));
}
}
///
/// Check profile supported.
///
/// @param decoder VDPAU hw decoder
/// @param profile VDPAU profile requested
///
static VdpDecoderProfile VdpauCheckProfile(VdpauDecoder * decoder,
VdpDecoderProfile profile)
{
VdpStatus status;
VdpBool is_supported;
uint32_t max_level;
uint32_t max_macroblocks;
uint32_t max_width;
uint32_t max_height;
status =
VdpauDecoderQueryCapabilities(decoder->Device, profile, &is_supported,
&max_level, &max_macroblocks, &max_width, &max_height);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't query decoder capabilities: %s\n"),
VdpauGetErrorString(status));
return VDP_INVALID_HANDLE;
}
Debug(3,
"video/vdpau: profile %d with level %d, macro blocks %d, width %d, height %d %ssupported\n",
profile, max_level, max_macroblocks, max_width, max_height,
is_supported ? "" : "not ");
return is_supported ? profile : VDP_INVALID_HANDLE;
}
///
/// Callback to negotiate the PixelFormat.
///
/// @param fmt is the list of formats which are supported by the codec,
/// it is terminated by -1 as 0 is a valid format, the
/// formats are ordered by quality.
///
static enum PixelFormat Vdpau_get_format(VdpauDecoder * decoder,
AVCodecContext * video_ctx, const enum PixelFormat *fmt)
{
const enum PixelFormat *fmt_idx;
VdpDecoderProfile profile;
VdpStatus status;
int max_refs;
Debug(3, "video: new stream format %d\n", GetMsTicks() - VideoSwitch);
VdpauCleanup(decoder);
if (!VideoHardwareDecoder || (video_ctx->codec_id == CODEC_ID_MPEG2VIDEO
&& VideoHardwareDecoder == 1)
) { // hardware disabled by config
Debug(3, "codec: hardware acceleration disabled\n");
goto slow_path;
}
//
// look through formats
//
Debug(3, "%s: codec %d fmts:\n", __FUNCTION__, video_ctx->codec_id);
for (fmt_idx = fmt; *fmt_idx != PIX_FMT_NONE; fmt_idx++) {
Debug(3, "\t%#010x %s\n", *fmt_idx, av_get_pix_fmt_name(*fmt_idx));
// check supported pixel format with entry point
switch (*fmt_idx) {
case PIX_FMT_VDPAU_H264:
case PIX_FMT_VDPAU_MPEG1:
case PIX_FMT_VDPAU_MPEG2:
case PIX_FMT_VDPAU_WMV3:
case PIX_FMT_VDPAU_VC1:
case PIX_FMT_VDPAU_MPEG4:
break;
default:
continue;
}
break;
}
if (*fmt_idx == PIX_FMT_NONE) {
Error(_("video/vdpau: no valid vdpau pixfmt found\n"));
goto slow_path;
}
max_refs = CODEC_SURFACES_DEFAULT;
// check profile
switch (video_ctx->codec_id) {
case CODEC_ID_MPEG1VIDEO:
max_refs = 2;
profile = VdpauCheckProfile(decoder, VDP_DECODER_PROFILE_MPEG1);
break;
case CODEC_ID_MPEG2VIDEO:
max_refs = 2;
profile =
VdpauCheckProfile(decoder, VDP_DECODER_PROFILE_MPEG2_MAIN);
break;
case CODEC_ID_MPEG4:
case CODEC_ID_H263:
/*
p = VaapiFindProfile(profiles, profile_n,
VAProfileMPEG4AdvancedSimple);
*/
goto slow_path;
case CODEC_ID_H264:
// FIXME: can calculate level 4.1 limits
max_refs = 16;
// try more simple formats, fallback to better
if (video_ctx->profile == FF_PROFILE_H264_BASELINE) {
profile =
VdpauCheckProfile(decoder,
VDP_DECODER_PROFILE_H264_BASELINE);
if (profile == VDP_INVALID_HANDLE) {
profile =
VdpauCheckProfile(decoder,
VDP_DECODER_PROFILE_H264_MAIN);
}
if (profile == VDP_INVALID_HANDLE) {
profile =
VdpauCheckProfile(decoder,
VDP_DECODER_PROFILE_H264_HIGH);
}
} else if (video_ctx->profile == FF_PROFILE_H264_MAIN) {
profile =
VdpauCheckProfile(decoder, VDP_DECODER_PROFILE_H264_MAIN);
if (profile == VDP_INVALID_HANDLE) {
profile =
VdpauCheckProfile(decoder,
VDP_DECODER_PROFILE_H264_HIGH);
}
} else {
profile =
VdpauCheckProfile(decoder, VDP_DECODER_PROFILE_H264_MAIN);
}
break;
case CODEC_ID_WMV3:
/*
p = VaapiFindProfile(profiles, profile_n, VAProfileVC1Main);
*/
goto slow_path;
case CODEC_ID_VC1:
/*
p = VaapiFindProfile(profiles, profile_n, VAProfileVC1Advanced);
*/
goto slow_path;
default:
goto slow_path;
}
if (profile == VDP_INVALID_HANDLE) {
Error(_("video/vdpau: no valid profile found\n"));
goto slow_path;
}
Debug(3, "video/vdpau: create decoder profile=%d %dx%d #%d refs\n",
profile, video_ctx->width, video_ctx->height, max_refs);
decoder->Profile = profile;
decoder->SurfacesNeeded = max_refs + VIDEO_SURFACES_MAX;
status =
VdpauDecoderCreate(VdpauDevice, profile, video_ctx->width,
video_ctx->height, max_refs, &decoder->VideoDecoder);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't create decoder: %s\n"),
VdpauGetErrorString(status));
goto slow_path;
}
// FIXME: combine this with VdpauSetupOutput and software decoder part
decoder->CropX = 0;
decoder->CropY = VideoSkipLines;
decoder->CropWidth = video_ctx->width;
decoder->CropHeight = video_ctx->height - VideoSkipLines * 2;
decoder->PixFmt = *fmt_idx;
decoder->InputWidth = video_ctx->width;
decoder->InputHeight = video_ctx->height;
decoder->InputAspect = video_ctx->sample_aspect_ratio;
VdpauSetupOutput(decoder);
Debug(3, "\t%#010x %s\n", fmt_idx[0], av_get_pix_fmt_name(fmt_idx[0]));
return *fmt_idx;
slow_path:
// no accelerated format found
decoder->SurfacesNeeded = VIDEO_SURFACES_MAX + 2;
decoder->InputWidth = 0;
decoder->InputHeight = 0;
video_ctx->hwaccel_context = NULL;
return avcodec_default_get_format(video_ctx, fmt);
}
#ifdef USE_GRAB
///
/// Grab video surface.
///
/// @param decoder VDPAU hw decoder
///
static void VdpauGrabVideoSurface(VdpauDecoder * decoder)
{
VdpVideoSurface surface;
VdpStatus status;
VdpChromaType chroma_type;
uint32_t size;
uint32_t width;
uint32_t height;
void *base;
void *data[3];
uint32_t pitches[3];
VdpYCbCrFormat format;
// FIXME: test function to grab output surface content
// for screen shots, atom light and auto crop.
surface = decoder->SurfacesRb[(decoder->SurfaceRead + 1)
% VIDEO_SURFACES_MAX];
// get real surface size
status =
VdpauVideoSurfaceGetParameters(surface, &chroma_type, &width, &height);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't get video surface parameters: %s\n"),
VdpauGetErrorString(status));
return;
}
switch (chroma_type) {
case VDP_CHROMA_TYPE_420:
case VDP_CHROMA_TYPE_422:
case VDP_CHROMA_TYPE_444:
size = width * height + ((width + 1) / 2) * ((height + 1) / 2)
+ ((width + 1) / 2) * ((height + 1) / 2);
base = malloc(size);
if (!base) {
Error(_("video/vdpau: out of memory\n"));
return;
}
pitches[0] = width;
pitches[1] = width / 2;
pitches[2] = width / 2;
data[0] = base;
data[1] = base + width * height;
data[2] = base + width * height + width * height / 4;
format = VDP_YCBCR_FORMAT_YV12;
break;
default:
Error(_("video/vdpau: unsupported chroma type %d\n"), chroma_type);
return;
}
status = VdpauVideoSurfaceGetBitsYCbCr(surface, format, data, pitches);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't get video surface bits: %s\n"),
VdpauGetErrorString(status));
return;
}
free(base);
}
///
/// Grab output surface.
///
/// @param ret_size[out] size of allocated surface copy
/// @param ret_width[in,out] width of output
/// @param ret_height[in,out] height of output
///
static uint8_t *VdpauGrabOutputSurface(int *ret_size, int *ret_width,
int *ret_height)
{
VdpOutputSurface surface;
VdpStatus status;
VdpRGBAFormat rgba_format;
uint32_t size;
uint32_t width;
uint32_t height;
void *base;
void *data[1];
uint32_t pitches[1];
VdpRect source_rect;
// FIXME: test function to grab output surface content
surface = VdpauSurfacesRb[VdpauSurfaceIndex];
// get real surface size
status =
VdpauOutputSurfaceGetParameters(surface, &rgba_format, &width,
&height);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't get output surface parameters: %s\n"),
VdpauGetErrorString(status));
return NULL;
}
Debug(3, "video/vdpau: grab %dx%d format %d\n", width, height,
rgba_format);
// FIXME: scale surface to requested size with
// VdpauOutputSurfaceRenderOutputSurface
switch (rgba_format) {
case VDP_RGBA_FORMAT_B8G8R8A8:
case VDP_RGBA_FORMAT_R8G8B8A8:
size = width * height * sizeof(uint32_t);
base = malloc(size);
if (!base) {
Error(_("video/vdpau: out of memory\n"));
return NULL;
}
pitches[0] = width * sizeof(uint32_t);
data[0] = base;
break;
case VDP_RGBA_FORMAT_R10G10B10A2:
case VDP_RGBA_FORMAT_B10G10R10A2:
case VDP_RGBA_FORMAT_A8:
default:
Error(_("video/vdpau: unsupported rgba format %d\n"), rgba_format);
return NULL;
}
source_rect.x0 = 0;
source_rect.y0 = 0;
source_rect.x1 = source_rect.x0 + width;
source_rect.y1 = source_rect.y0 + height;
status =
VdpauOutputSurfaceGetBitsNative(surface, &source_rect, data, pitches);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't get video surface bits native: %s\n"),
VdpauGetErrorString(status));
free(base);
return NULL;
}
if (ret_size) {
*ret_size = size;
}
if (ret_width) {
*ret_width = width;
}
if (ret_height) {
*ret_height = height;
}
return base;
}
#endif
#ifdef USE_AUTOCROP
///
/// VDPAU auto-crop support.
///
/// @param decoder VDPAU hw decoder
///
static void VdpauAutoCrop(VdpauDecoder * decoder)
{
VdpVideoSurface surface;
VdpStatus status;
VdpChromaType chroma_type;
uint32_t size;
uint32_t width;
uint32_t height;
void *base;
void *data[3];
uint32_t pitches[3];
int crop14;
int crop16;
int next_state;
VdpYCbCrFormat format;
surface = decoder->SurfacesRb[(decoder->SurfaceRead + 1)
% VIDEO_SURFACES_MAX];
// get real surface size
status =
VdpauVideoSurfaceGetParameters(surface, &chroma_type, &width, &height);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't get video surface parameters: %s\n"),
VdpauGetErrorString(status));
return;
}
switch (chroma_type) {
case VDP_CHROMA_TYPE_420:
case VDP_CHROMA_TYPE_422:
case VDP_CHROMA_TYPE_444:
size = width * height + ((width + 1) / 2) * ((height + 1) / 2)
+ ((width + 1) / 2) * ((height + 1) / 2);
base = malloc(size);
if (!base) {
Error(_("video/vdpau: out of memory\n"));
return;
}
pitches[0] = width;
pitches[1] = width / 2;
pitches[2] = width / 2;
data[0] = base;
data[1] = base + width * height;
data[2] = base + width * height + width * height / 4;
format = VDP_YCBCR_FORMAT_YV12;
break;
default:
Error(_("video/vdpau: unsupported chroma type %d\n"), chroma_type);
return;
}
status = VdpauVideoSurfaceGetBitsYCbCr(surface, format, data, pitches);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't get video surface bits: %s\n"),
VdpauGetErrorString(status));
return;
}
AutoCropDetect(decoder->AutoCrop, width, height, data, pitches);
free(base);
// ignore black frames
if (decoder->AutoCrop->Y1 >= decoder->AutoCrop->Y2) {
return;
}
crop14 =
(decoder->InputWidth * decoder->InputAspect.num * 9) /
(decoder->InputAspect.den * 14);
crop14 = (decoder->InputHeight - crop14) / 2;
crop16 =
(decoder->InputWidth * decoder->InputAspect.num * 9) /
(decoder->InputAspect.den * 16);
crop16 = (decoder->InputHeight - crop16) / 2;
if (decoder->AutoCrop->Y1 >= crop16 - AutoCropTolerance
&& decoder->InputHeight - decoder->AutoCrop->Y2 >=
crop16 - AutoCropTolerance) {
next_state = 16;
} else if (decoder->AutoCrop->Y1 >= crop14 - AutoCropTolerance
&& decoder->InputHeight - decoder->AutoCrop->Y2 >=
crop14 - AutoCropTolerance) {
next_state = 14;
} else {
next_state = 0;
}
if (decoder->AutoCrop->State == next_state) {
return;
}
Debug(3, "video: crop aspect %d:%d %d/%d %d+%d\n",
decoder->InputAspect.num, decoder->InputAspect.den, crop14, crop16,
decoder->AutoCrop->Y1, decoder->InputHeight - decoder->AutoCrop->Y2);
Debug(3, "video: crop aspect %d -> %d\n", decoder->AutoCrop->State,
next_state);
switch (decoder->AutoCrop->State) {
case 16:
case 14:
if (decoder->AutoCrop->Count++ < AutoCropDelay / 2) {
return;
}
break;
case 0:
if (decoder->AutoCrop->Count++ < AutoCropDelay) {
return;
}
break;
}
decoder->AutoCrop->State = next_state;
if (next_state) {
decoder->CropX = 0;
decoder->CropY = (next_state == 16 ? crop16 : crop14) + VideoSkipLines;
decoder->CropWidth = decoder->InputWidth;
decoder->CropHeight = decoder->InputHeight - decoder->CropY * 2;
// FIXME: this overwrites user choosen output position
// FIXME: resize kills the auto crop values
// FIXME: support other 4:3 zoom modes
decoder->OutputX = 0;
decoder->OutputY = 0;
decoder->OutputWidth = (VideoWindowHeight * next_state) / 9;
decoder->OutputHeight = (VideoWindowWidth * 9) / next_state;
if ((unsigned)decoder->OutputWidth > VideoWindowWidth) {
decoder->OutputWidth = VideoWindowWidth;
decoder->OutputY = (VideoWindowHeight - decoder->OutputHeight) / 2;
} else if ((unsigned)decoder->OutputHeight > VideoWindowHeight) {
decoder->OutputHeight = VideoWindowHeight;
decoder->OutputX = (VideoWindowWidth - decoder->OutputWidth) / 2;
}
Debug(3, "video: aspect output %dx%d %dx%d+%d+%d\n",
decoder->InputWidth, decoder->InputHeight, decoder->OutputWidth,
decoder->OutputHeight, decoder->OutputX, decoder->OutputY);
} else {
decoder->CropX = 0;
decoder->CropY = VideoSkipLines;
decoder->CropWidth = decoder->InputWidth;
decoder->CropHeight = decoder->InputHeight - VideoSkipLines * 2;
// sets AutoCrop->Count
VdpauUpdateOutput(decoder);
}
decoder->AutoCrop->Count = 0;
}
///
/// VDPAU check if auto-crop todo.
///
/// @param decoder VDPAU hw decoder
///
/// @note a copy of VaapiCheckAutoCrop
/// @note auto-crop only supported with normal 4:3 display mode
///
static void VdpauCheckAutoCrop(VdpauDecoder * decoder)
{
// reduce load, check only n frames
if (Video4to3ZoomMode == VideoNormal && AutoCropInterval
&& !(decoder->FrameCounter % AutoCropInterval)) {
AVRational display_aspect_ratio;
av_reduce(&display_aspect_ratio.num, &display_aspect_ratio.den,
decoder->InputWidth * decoder->InputAspect.num,
decoder->InputHeight * decoder->InputAspect.den, 1024 * 1024);
// only 4:3 with 16:9/14:9 inside supported
if (display_aspect_ratio.num == 4 && display_aspect_ratio.den == 3) {
VdpauAutoCrop(decoder);
} else {
decoder->AutoCrop->Count = 0;
decoder->AutoCrop->State = 0;
}
}
}
///
/// VDPAU reset auto-crop.
///
static void VdpauResetAutoCrop(void)
{
int i;
for (i = 0; i < VdpauDecoderN; ++i) {
VdpauDecoders[i]->AutoCrop->State = 0;
VdpauDecoders[i]->AutoCrop->Count = 0;
}
}
#endif
///
/// Queue output surface.
///
/// @param decoder VDPAU hw decoder
/// @param surface output surface
/// @param softdec software decoder
///
/// @note we can't mix software and hardware decoder surfaces
///
static void VdpauQueueSurface(VdpauDecoder * decoder, VdpVideoSurface surface,
int softdec)
{
VdpVideoSurface old;
++decoder->FrameCounter;
if (1) { // can't wait for output queue empty
if (atomic_read(&decoder->SurfacesFilled) >= VIDEO_SURFACES_MAX) {
Warning(_
("video/vdpau: output buffer full, dropping frame (%d/%d)\n"),
++decoder->FramesDropped, decoder->FrameCounter);
if (!(decoder->FramesDisplayed % 300)) {
VdpauPrintFrames(decoder);
}
// software surfaces only
if (softdec) {
VdpauReleaseSurface(decoder, surface);
}
return;
}
#if 0
} else { // wait for output queue empty
while (atomic_read(&decoder->SurfacesFilled) >= VIDEO_SURFACES_MAX) {
VideoDisplayHandler();
}
#endif
}
//
// Check and release, old surface
//
if ((old = decoder->SurfacesRb[decoder->SurfaceWrite])
!= VDP_INVALID_HANDLE) {
// now we can release the surface, software surfaces only
if (softdec) {
VdpauReleaseSurface(decoder, old);
}
}
Debug(4, "video/vdpau: yy video surface %#08x@%d ready\n", surface,
decoder->SurfaceWrite);
decoder->SurfacesRb[decoder->SurfaceWrite] = surface;
decoder->SurfaceWrite = (decoder->SurfaceWrite + 1)
% VIDEO_SURFACES_MAX;
atomic_inc(&decoder->SurfacesFilled);
}
///
/// Render a ffmpeg frame.
///
/// @param decoder VDPAU hw decoder
/// @param video_ctx ffmpeg video codec context
/// @param frame frame to display
///
static void VdpauRenderFrame(VdpauDecoder * decoder,
const AVCodecContext * video_ctx, const AVFrame * frame)
{
VdpStatus status;
VdpVideoSurface surface;
int interlaced;
// FIXME: some tv-stations toggle interlace on/off
// frame->interlaced_frame isn't always correct set
interlaced = frame->interlaced_frame;
if (video_ctx->height == 720) {
if (interlaced && !decoder->WrongInterlacedWarned) {
Debug(3, "video/vdpau: wrong interlace flag fixed\n");
decoder->WrongInterlacedWarned = 1;
}
interlaced = 0;
} else {
if (!interlaced && !decoder->WrongInterlacedWarned) {
Debug(3, "video/vdpau: wrong interlace flag fixed\n");
decoder->WrongInterlacedWarned = 1;
}
interlaced = 1;
}
// FIXME: should be done by init video_ctx->field_order
if (decoder->Interlaced != interlaced
|| decoder->TopFieldFirst != frame->top_field_first) {
Debug(3, "video/vdpau: interlaced %d top-field-first %d\n", interlaced,
frame->top_field_first);
decoder->Interlaced = interlaced;
decoder->TopFieldFirst = frame->top_field_first;
decoder->SurfaceField = 0;
}
// update aspect ratio changes
#if LIBAVCODEC_VERSION_INT >= AV_VERSION_INT(53,60,100)
if (decoder->InputWidth && decoder->InputHeight
&& av_cmp_q(decoder->InputAspect, frame->sample_aspect_ratio)) {
Debug(3, "video/vdpau: aspect ratio changed\n");
decoder->InputAspect = frame->sample_aspect_ratio;
VdpauUpdateOutput(decoder);
}
#else
if (decoder->InputWidth && decoder->InputHeight
&& av_cmp_q(decoder->InputAspect, frame->sample_aspect_ratio)) {
Debug(3, "video/vdpau: aspect ratio changed\n");
decoder->InputAspect = video_ctx->sample_aspect_ratio;
VdpauUpdateOutput(decoder);
}
#endif
//
// Hardware render
//
// VDPAU: PIX_FMT_VDPAU_H264 .. PIX_FMT_VDPAU_VC1 PIX_FMT_VDPAU_MPEG4
if ((PIX_FMT_VDPAU_H264 <= video_ctx->pix_fmt
&& video_ctx->pix_fmt <= PIX_FMT_VDPAU_VC1)
|| video_ctx->pix_fmt == PIX_FMT_VDPAU_MPEG4) {
struct vdpau_render_state *vrs;
vrs = (struct vdpau_render_state *)frame->data[0];
surface = vrs->surface;
Debug(4, "video/vdpau: hw render hw surface %#08x\n", surface);
if (VideoDeinterlace[decoder->Resolution] == VideoDeinterlaceSoftware
&& interlaced) {
// FIXME: software deinterlace avpicture_deinterlace
// FIXME: VdpauCpuDeinterlace(decoder, surface);
} else {
VdpauQueueSurface(decoder, surface, 0);
}
//
// PutBitsYCbCr render
//
} else {
void const *data[3];
uint32_t pitches[3];
//
// Check image, format, size
//
if (decoder->PixFmt != video_ctx->pix_fmt
|| video_ctx->width != decoder->InputWidth
|| video_ctx->height != decoder->InputHeight) {
decoder->CropX = 0;
decoder->CropY = VideoSkipLines;
decoder->CropWidth = video_ctx->width;
decoder->CropHeight = video_ctx->height - VideoSkipLines * 2;
decoder->PixFmt = video_ctx->pix_fmt;
decoder->InputWidth = video_ctx->width;
decoder->InputHeight = video_ctx->height;
//
// detect interlaced input
//
Debug(3, "video/vdpau: interlaced %d top-field-first %d\n",
frame->interlaced_frame, frame->top_field_first);
// FIXME: I hope this didn't change in the middle of the stream
VdpauCleanup(decoder);
VdpauSetupOutput(decoder);
}
//
// Copy data from frame to image
//
switch (video_ctx->pix_fmt) {
case PIX_FMT_YUV420P:
break;
case PIX_FMT_YUV422P:
case PIX_FMT_YUV444P:
default:
Fatal(_("video/vdpau: pixel format %d not supported\n"),
video_ctx->pix_fmt);
}
// convert ffmpeg order to vdpau
data[0] = frame->data[0];
data[1] = frame->data[2];
data[2] = frame->data[1];
pitches[0] = frame->linesize[0];
pitches[1] = frame->linesize[2];
pitches[2] = frame->linesize[1];
surface = VdpauGetSurface(decoder);
status =
VdpauVideoSurfacePutBitsYCbCr(surface, VDP_YCBCR_FORMAT_YV12, data,
pitches);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't put video surface bits: %s\n"),
VdpauGetErrorString(status));
}
VdpauQueueSurface(decoder, surface, 1);
}
if (frame->interlaced_frame) {
++decoder->FrameCounter;
}
}
///
/// Render osd surface to output surface.
///
static void VdpauMixOsd(void)
{
VdpOutputSurfaceRenderBlendState blend_state;
VdpRect source_rect;
VdpRect output_rect;
VdpStatus status;
//uint32_t start;
//uint32_t end;
//
// blend overlay over output
//
blend_state.struct_version = VDP_OUTPUT_SURFACE_RENDER_BLEND_STATE_VERSION;
blend_state.blend_factor_source_color =
VDP_OUTPUT_SURFACE_RENDER_BLEND_FACTOR_SRC_ALPHA;
blend_state.blend_factor_source_alpha =
VDP_OUTPUT_SURFACE_RENDER_BLEND_FACTOR_ONE;
blend_state.blend_factor_destination_color =
VDP_OUTPUT_SURFACE_RENDER_BLEND_FACTOR_ONE_MINUS_SRC_ALPHA;
blend_state.blend_factor_destination_alpha =
VDP_OUTPUT_SURFACE_RENDER_BLEND_FACTOR_ONE_MINUS_SRC_ALPHA;
blend_state.blend_equation_color =
VDP_OUTPUT_SURFACE_RENDER_BLEND_EQUATION_ADD;
blend_state.blend_equation_alpha =
VDP_OUTPUT_SURFACE_RENDER_BLEND_EQUATION_ADD;
// use dirty area
if (OsdDirtyWidth && OsdDirtyHeight) {
source_rect.x0 = OsdDirtyX;
source_rect.y0 = OsdDirtyY;
source_rect.x1 = source_rect.x0 + OsdDirtyWidth;
source_rect.y1 = source_rect.y0 + OsdDirtyHeight;
output_rect.x0 = (OsdDirtyX * VideoWindowWidth) / OsdWidth;
output_rect.y0 = (OsdDirtyY * VideoWindowHeight) / OsdHeight;
output_rect.x1 =
output_rect.x0 + (OsdDirtyWidth * VideoWindowWidth) / OsdWidth;
output_rect.y1 =
output_rect.y0 + (OsdDirtyHeight * VideoWindowHeight) / OsdHeight;
} else {
source_rect.x0 = 0;
source_rect.y0 = 0;
source_rect.x1 = OsdWidth;
source_rect.y1 = OsdHeight;
output_rect.x0 = 0;
output_rect.y0 = 0;
output_rect.x1 = VideoWindowWidth;
output_rect.y1 = VideoWindowHeight;
}
//start = GetMsTicks();
// FIXME: double buffered osd disabled
VdpauOsdSurfaceIndex = 1;
#ifdef USE_BITMAP
status =
VdpauOutputSurfaceRenderBitmapSurface(VdpauSurfacesRb
[VdpauSurfaceIndex], &output_rect,
VdpauOsdBitmapSurface[!VdpauOsdSurfaceIndex], &source_rect, NULL,
VideoTransparentOsd ? &blend_state : NULL,
VDP_OUTPUT_SURFACE_RENDER_ROTATE_0);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't render bitmap surface: %s\n"),
VdpauGetErrorString(status));
}
#else
status =
VdpauOutputSurfaceRenderOutputSurface(VdpauSurfacesRb
[VdpauSurfaceIndex], &output_rect,
VdpauOsdOutputSurface[!VdpauOsdSurfaceIndex], &source_rect, NULL,
VideoTransparentOsd ? &blend_state : NULL,
VDP_OUTPUT_SURFACE_RENDER_ROTATE_0);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't render output surface: %s\n"),
VdpauGetErrorString(status));
}
#endif
//end = GetMsTicks();
/*
Debug(4, "video:/vdpau: osd render %d %d ms\n", VdpauOsdSurfaceIndex,
end - start);
*/
VdpauOsdSurfaceIndex = !VdpauOsdSurfaceIndex;
}
///
/// Render video surface to output surface.
///
/// @param decoder VDPAU hw decoder
///
static void VdpauMixVideo(VdpauDecoder * decoder)
{
VdpVideoSurface current;
VdpRect video_src_rect;
VdpRect dst_rect;
VdpRect dst_video_rect;
VdpStatus status;
#ifdef USE_AUTOCROP
// FIXME: can move to render frame
VdpauCheckAutoCrop(decoder);
#endif
dst_rect.x0 = 0; // window output (clip)
dst_rect.y0 = 0;
dst_rect.x1 = VideoWindowWidth;
dst_rect.y1 = VideoWindowHeight;
video_src_rect.x0 = decoder->CropX; // video source (crop)
video_src_rect.y0 = decoder->CropY;
video_src_rect.x1 = decoder->CropX + decoder->CropWidth;
video_src_rect.y1 = decoder->CropY + decoder->CropHeight;
dst_video_rect.x0 = decoder->OutputX; // video output (scale)
dst_video_rect.y0 = decoder->OutputY;
dst_video_rect.x1 = decoder->OutputX + decoder->OutputWidth;
dst_video_rect.y1 = decoder->OutputY + decoder->OutputHeight;
if (decoder->Interlaced
&& VideoDeinterlace[decoder->Resolution] != VideoDeinterlaceWeave) {
//
// Build deinterlace structures
//
VdpVideoMixerPictureStructure cps;
VdpVideoSurface past[3];
int past_n;
VdpVideoSurface future[3];
int future_n;
#ifdef DEBUG
if (atomic_read(&decoder->SurfacesFilled) < 3) {
Debug(3, "only %d\n", atomic_read(&decoder->SurfacesFilled));
}
#endif
// FIXME: can use VDP_INVALID_HANDLE to support less surface on start
if (VideoDeinterlaceSurfaces == 5) {
past_n = 2;
future_n = 2;
// FIXME: wrong for bottom-field first
// read: past: B0 T0 current T1 future B1 T2 (0 1 2)
// read: past: T1 B0 current B1 future T2 B2 (0 1 2)
if (decoder->TopFieldFirst != decoder->SurfaceField) {
cps = VDP_VIDEO_MIXER_PICTURE_STRUCTURE_TOP_FIELD;
past[1] = decoder->SurfacesRb[decoder->SurfaceRead];
past[0] = past[1];
current = decoder->SurfacesRb[(decoder->SurfaceRead + 1)
% VIDEO_SURFACES_MAX];
future[0] = current;
future[1] = decoder->SurfacesRb[(decoder->SurfaceRead + 2)
% VIDEO_SURFACES_MAX];
// FIXME: can support 1 future more
} else {
cps = VDP_VIDEO_MIXER_PICTURE_STRUCTURE_BOTTOM_FIELD;
// FIXME: can support 1 past more
past[1] = decoder->SurfacesRb[decoder->SurfaceRead];
past[0] = decoder->SurfacesRb[(decoder->SurfaceRead + 1)
% VIDEO_SURFACES_MAX];
current = past[0];
future[0] = decoder->SurfacesRb[(decoder->SurfaceRead + 2)
% VIDEO_SURFACES_MAX];
future[1] = future[0];
}
} else if (VideoDeinterlaceSurfaces == 4) {
past_n = 2;
future_n = 1;
// FIXME: wrong for bottom-field first
// read: past: B0 T0 current T1 future B1 (0 1 2)
// read: past: T1 B0 current B1 future T2 (0 1 2)
if (decoder->TopFieldFirst != decoder->SurfaceField) {
cps = VDP_VIDEO_MIXER_PICTURE_STRUCTURE_TOP_FIELD;
past[1] = decoder->SurfacesRb[decoder->SurfaceRead];
past[0] = past[1];
current = decoder->SurfacesRb[(decoder->SurfaceRead + 1)
% VIDEO_SURFACES_MAX];
future[0] = current;
} else {
cps = VDP_VIDEO_MIXER_PICTURE_STRUCTURE_BOTTOM_FIELD;
past[1] = decoder->SurfacesRb[decoder->SurfaceRead];
past[0] = decoder->SurfacesRb[(decoder->SurfaceRead + 1)
% VIDEO_SURFACES_MAX];
current = past[0];
future[0] = decoder->SurfacesRb[(decoder->SurfaceRead + 2)
% VIDEO_SURFACES_MAX];
}
} else {
Error(_("video/vdpau: %d surface deinterlace unsupported\n"),
VideoDeinterlaceSurfaces);
}
// FIXME: past_n, future_n here:
Debug(4, " %02d %02d(%c%02d) %02d %02d\n", past[1], past[0],
cps == VDP_VIDEO_MIXER_PICTURE_STRUCTURE_TOP_FIELD ? 'T' : 'B',
current, future[0], future[1]);
status =
VdpauVideoMixerRender(decoder->VideoMixer, VDP_INVALID_HANDLE,
NULL, cps, past_n, past, current, future_n, future,
&video_src_rect, VdpauSurfacesRb[VdpauSurfaceIndex], &dst_rect,
&dst_video_rect, 0, NULL);
} else {
current = decoder->SurfacesRb[decoder->SurfaceRead];
status =
VdpauVideoMixerRender(decoder->VideoMixer, VDP_INVALID_HANDLE,
NULL, VDP_VIDEO_MIXER_PICTURE_STRUCTURE_FRAME, 0, NULL, current, 0,
NULL, &video_src_rect, VdpauSurfacesRb[VdpauSurfaceIndex],
&dst_rect, &dst_video_rect, 0, NULL);
}
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't render mixer: %s\n"),
VdpauGetErrorString(status));
}
Debug(4, "video/vdpau: yy video surface %#08x@%d displayed\n", current,
decoder->SurfaceRead);
}
///
/// Create and display a black empty surface.
///
/// @param decoder VDPAU hw decoder
///
/// @FIXME: render only video area, not fullscreen!
///
static void VdpauBlackSurface(VdpauDecoder * decoder)
{
VdpStatus status;
void *image;
void const *data[1];
uint32_t pitches[1];
VdpRect dst_rect;
Debug(3, "video/vdpau: black surface\n");
// FIXME: clear video window area
(void)decoder;
image = calloc(4, VideoWindowWidth * VideoWindowHeight);
dst_rect.x0 = 0;
dst_rect.y0 = 0;
dst_rect.x1 = dst_rect.x0 + VideoWindowWidth;
dst_rect.y1 = dst_rect.y0 + VideoWindowHeight;
data[0] = image;
pitches[0] = VideoWindowWidth * 4;
status =
VdpauOutputSurfacePutBitsNative(VdpauSurfacesRb[VdpauSurfaceIndex],
data, pitches, &dst_rect);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: output surface put bits failed: %s\n"),
VdpauGetErrorString(status));
}
free(image);
}
///
/// Advance displayed frame.
///
static void VdpauAdvanceFrame(void)
{
int i;
for (i = 0; i < VdpauDecoderN; ++i) {
int filled;
VdpauDecoder *decoder;
decoder = VdpauDecoders[i];
// next field
if (decoder->Interlaced) {
decoder->SurfaceField ^= 1;
}
// next surface, if complete frame is displayed
if (!decoder->SurfaceField) {
// check decoder, if new surface is available
// need 2 frames for progressive
// need 4 frames for interlaced
filled = atomic_read(&decoder->SurfacesFilled);
if (filled <= 1 + 2 * decoder->Interlaced) {
static int last_warned_frame;
// keep use of last surface
++decoder->FramesDuped;
decoder->DropNextFrame = 0;
// FIXME: don't warn after stream start, don't warn during pause
if (last_warned_frame != decoder->FrameCounter) {
Warning(_
("video: display buffer empty, duping frame (%d/%d) %d\n"),
decoder->FramesDuped, decoder->FrameCounter,
atomic_read(&VideoPacketsFilled));
}
last_warned_frame = decoder->FrameCounter;
if (!(decoder->FramesDisplayed % 300)) {
VdpauPrintFrames(decoder);
}
decoder->SurfaceField = decoder->Interlaced;
} else {
decoder->SurfaceRead = (decoder->SurfaceRead + 1)
% VIDEO_SURFACES_MAX;
atomic_dec(&decoder->SurfacesFilled);
}
}
}
}
///
/// Display a video frame.
///
static void VdpauDisplayFrame(void)
{
VdpStatus status;
VdpTime first_time;
static VdpTime last_time;
int i;
if (VideoSurfaceModesChanged) { // handle changed modes
for (i = 0; i < VdpauDecoderN; ++i) {
if (VdpauDecoders[i]->VideoMixer != VDP_INVALID_HANDLE) {
VdpauMixerSetup(VdpauDecoders[i]);
}
}
VideoSurfaceModesChanged = 0;
}
//
// wait for surface visible (blocks max ~5ms)
//
status =
VdpauPresentationQueueBlockUntilSurfaceIdle(VdpauQueue,
VdpauSurfacesRb[VdpauSurfaceIndex], &first_time);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't block queue: %s\n"),
VdpauGetErrorString(status));
}
// check if surface was displayed for more than 1 frame
if (last_time && first_time > last_time + 21 * 1000 * 1000) {
Debug(3, "video/vdpau: %ld display time %ld\n", first_time / 1000,
(first_time - last_time) / 1000);
// FIXME: can be more than 1 frame long shown
for (i = 0; i < VdpauDecoderN; ++i) {
VdpauDecoders[i]->FramesMissed++;
Warning(_("video: missed frame (%d/%d)\n"),
VdpauDecoders[i]->FramesMissed,
VdpauDecoders[i]->FrameCounter);
if (!(VdpauDecoders[i]->FramesDisplayed % 300)) {
VdpauPrintFrames(VdpauDecoders[i]);
}
}
}
last_time = first_time;
//
// Render videos into output
//
for (i = 0; i < VdpauDecoderN; ++i) {
int filled;
VdpauDecoder *decoder;
decoder = VdpauDecoders[i];
decoder->FramesDisplayed++;
filled = atomic_read(&decoder->SurfacesFilled);
// need 1 frame for progressive, 3 frames for interlaced
if (filled < 1 + 2 * decoder->Interlaced) {
// FIXME: rewrite MixVideo to support less surfaces
VdpauBlackSurface(decoder);
continue;
}
VdpauMixVideo(decoder);
}
//
// add osd to surface
//
if (OsdShown) { // showing costs performance
VdpauMixOsd();
}
//
// place surface in presentation queue
//
status =
VdpauPresentationQueueDisplay(VdpauQueue,
VdpauSurfacesRb[VdpauSurfaceIndex], 0, 0, 0);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't queue display: %s\n"),
VdpauGetErrorString(status));
}
for (i = 0; i < VdpauDecoderN; ++i) {
clock_gettime(CLOCK_REALTIME, &VdpauDecoders[i]->FrameTime);
}
VdpauSurfaceIndex = (VdpauSurfaceIndex + 1) % OUTPUT_SURFACES_MAX;
xcb_flush(Connection);
}
///
/// Sync and display surface.
///
/// @param decoder VDPAU hw decoder
///
static void VdpauSyncDisplayFrame(VdpauDecoder * decoder)
{
int filled;
int64_t audio_clock;
int64_t video_clock;
if (!decoder->DupNextFrame && (!Video60HzMode
|| decoder->FramesDisplayed % 6)) {
VdpauAdvanceFrame();
}
VdpauDisplayFrame();
//
// audio/video sync
//
audio_clock = AudioGetClock();
video_clock = VideoGetClock();
filled = atomic_read(&decoder->SurfacesFilled);
// FIXME: audio not known assume 333ms delay
if (decoder->DupNextFrame) {
decoder->DupNextFrame--;
} else if ((uint64_t) audio_clock != AV_NOPTS_VALUE
&& (uint64_t) video_clock != AV_NOPTS_VALUE) {
// both clocks are known
if (abs(video_clock - audio_clock) > 5000 * 90) {
Debug(3, "video: pts difference too big\n");
} else if (video_clock > audio_clock + VideoAudioDelay + 80 * 90) {
Debug(3, "video: slow down video\n");
decoder->DupNextFrame += 2;
} else if (video_clock > audio_clock + VideoAudioDelay + 30 * 90) {
Debug(3, "video: slow down video\n");
decoder->DupNextFrame++;
} else if (audio_clock + VideoAudioDelay > video_clock + 40 * 90
&& filled > 1 + 2 * decoder->Interlaced) {
Debug(3, "video: speed up video\n");
decoder->DropNextFrame = 1;
}
}
#if defined(DEBUG) || defined(AV_INFO)
// debug audio/video sync
if (decoder->DupNextFrame || decoder->DropNextFrame
|| !(decoder->FramesDisplayed % (50 * 10))) {
Info("video: %s%+5" PRId64 " %4" PRId64 " %3d/\\ms %3d v-buf\n",
VideoTimeStampString(video_clock),
(video_clock - audio_clock) / 90, AudioGetDelay() / 90,
(int)VideoDeltaPTS / 90, atomic_read(&VideoPacketsFilled));
}
#endif
}
///
/// Sync and render a ffmpeg frame
///
/// @param decoder VDPAU hw decoder
/// @param video_ctx ffmpeg video codec context
/// @param frame frame to display
///
static void VdpauSyncRenderFrame(VdpauDecoder * decoder,
const AVCodecContext * video_ctx, const AVFrame * frame)
{
VideoSetPts(&decoder->PTS, decoder->Interlaced, frame);
if (VdpauPreemption) { // display preempted
return;
}
#ifdef DEBUG
if (!atomic_read(&decoder->SurfacesFilled)) {
Debug(3, "video: new stream frame %d\n", GetMsTicks() - VideoSwitch);
}
#endif
if (decoder->DropNextFrame) { // drop frame requested
++decoder->FramesDropped;
Warning(_("video: dropping frame (%d/%d)\n"), decoder->FramesDropped,
decoder->FrameCounter);
if (!(decoder->FramesDisplayed % 300)) {
VdpauPrintFrames(decoder);
}
decoder->DropNextFrame--;
return;
}
// if video output buffer is full, wait and display surface.
// loop for interlace
while (atomic_read(&decoder->SurfacesFilled) >= VIDEO_SURFACES_MAX) {
struct timespec abstime;
pthread_mutex_unlock(&VideoLockMutex);
abstime = decoder->FrameTime;
abstime.tv_nsec += 14 * 1000 * 1000;
if (abstime.tv_nsec >= 1000 * 1000 * 1000) {
// avoid overflow
abstime.tv_sec++;
abstime.tv_nsec -= 1000 * 1000 * 1000;
}
VideoPollEvent();
// fix dead-lock with VdpauExit
pthread_setcancelstate(PTHREAD_CANCEL_ENABLE, NULL);
pthread_testcancel();
pthread_mutex_lock(&VideoLockMutex);
// give osd some time slot
while (pthread_cond_timedwait(&VideoWakeupCond, &VideoLockMutex,
&abstime) != ETIMEDOUT) {
// SIGUSR1
Debug(3, "video/vdpau: pthread_cond_timedwait error\n");
}
pthread_setcancelstate(PTHREAD_CANCEL_DISABLE, NULL);
if (VdpauPreemption) { // display become preempted
return;
}
VdpauSyncDisplayFrame(decoder);
}
VdpauRenderFrame(decoder, video_ctx, frame);
}
///
/// Get VDPAU decoder video clock.
///
/// @param decoder VDPAU hw decoder
///
static int64_t VdpauGetClock(const VdpauDecoder * decoder)
{
// pts is the timestamp of the latest decoded frame
if (!decoder || (uint64_t) decoder->PTS == AV_NOPTS_VALUE) {
return AV_NOPTS_VALUE;
}
// subtract buffered decoded frames
if (decoder->Interlaced) {
return decoder->PTS -
20 * 90 * (2 * atomic_read(&decoder->SurfacesFilled)
- decoder->SurfaceField);
}
return decoder->PTS - 20 * 90 * (atomic_read(&decoder->SurfacesFilled) +
1);
}
///
/// Recover from preemption.
///
static int VdpauPreemptionRecover(void)
{
VdpStatus status;
int i;
VdpauPreemption = 0;
Debug(3, "video/vdpau: display preempted\n");
status =
vdp_device_create_x11(XlibDisplay, DefaultScreen(XlibDisplay),
&VdpauDevice, &VdpauGetProcAddress);
if (status != VDP_STATUS_OK) {
VdpauPreemption = 1;
return -1;
}
VdpauInitOutputQueue();
// mixer
for (i = 0; i < VdpauDecoderN; ++i) {
VdpauDecoders[i]->VideoDecoder = VDP_INVALID_HANDLE;
VdpauDecoders[i]->VideoMixer = VDP_INVALID_HANDLE;
VdpauDecoders[i]->SurfaceFreeN = 0;
VdpauDecoders[i]->SurfaceUsedN = 0;
}
// FIXME: codec has still some surfaces used
//
// invalid osd bitmap/output surfaces
//
for (i = 0; i < 1; ++i) {
#ifdef USE_BITMAP
VdpauOsdBitmapSurface[i] = VDP_INVALID_HANDLE;
#else
VdpauOsdOutputSurface[i] = VDP_INVALID_HANDLE;
}
#endif
VdpauOsdInit(OsdWidth, OsdHeight);
return 1;
}
///
/// Set VA-API video mode.
///
static void VdpauSetVideoMode(void)
{
int i;
VdpauExitOutputQueue();
VdpauInitOutputQueue();
for (i = 0; i < VdpauDecoderN; ++i) {
VdpauUpdateOutput(VdpauDecoders[i]);
}
}
#ifdef USE_VIDEO_THREAD
///
/// Handle a VDPAU display.
///
/// @todo FIXME: only a single decoder supported.
///
static void VdpauDisplayHandlerThread(void)
{
int err;
int filled;
struct timespec nowtime;
VdpauDecoder *decoder;
if (!(decoder = VdpauDecoders[0])) { // no stream available
return;
}
if (VdpauPreemption) { // display preempted
if (VdpauPreemptionRecover()) {
usleep(15 * 1000);
return;
}
}
//
// fill frame output ring buffer
//
filled = atomic_read(&decoder->SurfacesFilled);
err = 1;
if (filled < VIDEO_SURFACES_MAX) {
// FIXME: hot polling
pthread_mutex_lock(&VideoLockMutex);
// fetch+decode or reopen
err = VideoDecode();
pthread_mutex_unlock(&VideoLockMutex);
}
if (err) {
// FIXME: sleep on wakeup
usleep(5 * 1000); // nothing buffered
}
clock_gettime(CLOCK_REALTIME, &nowtime);
// time for one frame over?
if ( //filled<VIDEO_SURFACES_MAX &&
(nowtime.tv_sec - decoder->FrameTime.tv_sec)
* 1000 * 1000 * 1000 + (nowtime.tv_nsec - decoder->FrameTime.tv_nsec) <
15 * 1000 * 1000) {
return;
}
pthread_mutex_lock(&VideoLockMutex);
VdpauSyncDisplayFrame(decoder);
pthread_mutex_unlock(&VideoLockMutex);
}
#endif
///
/// Set video output position.
///
/// @param decoder VDPAU hw decoder
/// @param x video output x coordinate inside the window
/// @param y video output y coordinate inside the window
/// @param width video output width
/// @param height video output height
///
/// @note FIXME: need to know which stream.
///
static void VdpauSetOutputPosition(VdpauDecoder * decoder, int x, int y,
int width, int height)
{
decoder->OutputX = x;
decoder->OutputY = y;
decoder->OutputWidth = width;
decoder->OutputHeight = height;
// next video pictures are automatic rendered to correct position
}
//----------------------------------------------------------------------------
// VDPAU OSD
//----------------------------------------------------------------------------
static const uint8_t OsdZeros[1920 * 1080 * 4]; ///< 0 for clear osd
///
/// Clear subpicture image.
///
/// @note looked by caller
///
static void VdpauOsdClear(void)
{
VdpStatus status;
void const *data[1];
uint32_t pitches[1];
VdpRect dst_rect;
if (VdpauPreemption) { // display preempted
return;
}
// osd image available?
#ifdef USE_BITMAP
if (VdpauOsdBitmapSurface[VdpauOsdSurfaceIndex] == VDP_INVALID_HANDLE) {
return;
}
#else
if (VdpauOsdOutputSurface[VdpauOsdSurfaceIndex] == VDP_INVALID_HANDLE) {
return;
}
#endif
if (OsdWidth * OsdHeight > 1920 * 1080) {
Error(_("video/vdpau: osd too big: unsupported\n"));
return;
}
// have dirty area.
if (OsdDirtyWidth && OsdDirtyHeight) {
Debug(3, "video/vdpau: osd clear dirty %dx%d+%d+%d\n", OsdDirtyWidth,
OsdDirtyHeight, OsdDirtyX, OsdDirtyY);
dst_rect.x0 = OsdDirtyX;
dst_rect.y0 = OsdDirtyY;
dst_rect.x1 = dst_rect.x0 + OsdDirtyWidth;
dst_rect.y1 = dst_rect.y0 + OsdDirtyHeight;
} else {
Debug(3, "video/vdpau: osd clear image\n");
dst_rect.x0 = 0;
dst_rect.y0 = 0;
dst_rect.x1 = dst_rect.x0 + OsdWidth;
dst_rect.y1 = dst_rect.y0 + OsdHeight;
}
data[0] = OsdZeros;
pitches[0] = OsdWidth * 4;
#ifdef USE_BITMAP
status =
VdpauBitmapSurfacePutBitsNative(VdpauOsdBitmapSurface
[VdpauOsdSurfaceIndex], data, pitches, &dst_rect);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: bitmap surface put bits failed: %s\n"),
VdpauGetErrorString(status));
}
#else
status =
VdpauOutputSurfacePutBitsNative(VdpauOsdOutputSurface
[VdpauOsdSurfaceIndex], data, pitches, &dst_rect);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: output surface put bits failed: %s\n"),
VdpauGetErrorString(status));
}
#endif
}
///
/// Upload ARGB to subpicture image.
///
/// @param x x position of image in osd
/// @param y y position of image in osd
/// @param width width of image
/// @param height height of image
/// @param argb argb image
///
/// @note looked by caller
///
static void VdpauOsdDrawARGB(int x, int y, int width, int height,
const uint8_t * argb)
{
VdpStatus status;
void const *data[1];
uint32_t pitches[1];
VdpRect dst_rect;
uint32_t start;
uint32_t end;
if (VdpauPreemption) { // display preempted
return;
}
// osd image available?
#ifdef USE_BITMAP
if (VdpauOsdBitmapSurface[VdpauOsdSurfaceIndex] == VDP_INVALID_HANDLE) {
return;
}
#else
if (VdpauOsdOutputSurface[VdpauOsdSurfaceIndex] == VDP_INVALID_HANDLE) {
return;
}
#endif
start = GetMsTicks();
dst_rect.x0 = x;
dst_rect.y0 = y;
dst_rect.x1 = dst_rect.x0 + width;
dst_rect.y1 = dst_rect.y0 + height;
data[0] = argb;
pitches[0] = width * 4;
#ifdef USE_BITMAP
status =
VdpauBitmapSurfacePutBitsNative(VdpauOsdBitmapSurface
[VdpauOsdSurfaceIndex], data, pitches, &dst_rect);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: bitmap surface put bits failed: %s\n"),
VdpauGetErrorString(status));
}
#else
status =
VdpauOutputSurfacePutBitsNative(VdpauOsdOutputSurface
[VdpauOsdSurfaceIndex], data, pitches, &dst_rect);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: output surface put bits failed: %s\n"),
VdpauGetErrorString(status));
}
#endif
end = GetMsTicks();
Debug(3, "video/vdpau: osd upload %dx%d+%d+%d %d ms %d\n", width, height,
x, y, end - start, width * height * 4);
}
///
/// VDPAU initialize OSD.
///
/// @param width osd width
/// @param height osd height
///
static void VdpauOsdInit(int width, int height)
{
int i;
VdpStatus status;
if (!VdpauDevice) {
Debug(3, "video/vdpau: vdpau not setup\n");
return;
}
//
// create bitmap/surface for osd
//
#ifdef USE_BITMAP
if (VdpauOsdBitmapSurface[0] == VDP_INVALID_HANDLE) {
for (i = 0; i < 1; ++i) {
status =
VdpauBitmapSurfaceCreate(VdpauDevice, VDP_RGBA_FORMAT_B8G8R8A8,
width, height, VDP_TRUE, VdpauOsdBitmapSurface + i);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't create bitmap surface: %s\n"),
VdpauGetErrorString(status));
}
Debug(4,
"video/vdpau: created bitmap surface %dx%d with id 0x%08x\n",
width, height, VdpauOsdBitmapSurface[i]);
}
}
#else
if (VdpauOsdOutputSurface[0] == VDP_INVALID_HANDLE) {
for (i = 0; i < 1; ++i) {
status =
VdpauOutputSurfaceCreate(VdpauDevice, VDP_RGBA_FORMAT_B8G8R8A8,
width, height, VdpauOsdOutputSurface + i);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't create output surface: %s\n"),
VdpauGetErrorString(status));
}
Debug(4,
"video/vdpau: created osd output surface %dx%d with id 0x%08x\n",
width, height, VdpauOsdOutputSurface[i]);
}
}
#endif
Debug(3, "video/vdpau: osd surfaces created\n");
}
///
/// Cleanup osd.
///
static void VdpauOsdExit(void)
{
int i;
//
// destroy osd bitmap/output surfaces
//
#ifdef USE_BITMAP
for (i = 0; i < 1; ++i) {
VdpStatus status;
if (VdpauOsdBitmapSurface[i] != VDP_INVALID_HANDLE) {
status = VdpauBitmapSurfaceDestroy(VdpauOsdBitmapSurface[i]);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't destroy bitmap surface: %s\n"),
VdpauGetErrorString(status));
}
VdpauOsdBitmapSurface[i] = VDP_INVALID_HANDLE;
}
}
#else
for (i = 0; i < 1; ++i) {
VdpStatus status;
if (VdpauOsdOutputSurface[i] != VDP_INVALID_HANDLE) {
status = VdpauOutputSurfaceDestroy(VdpauOsdOutputSurface[i]);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't destroy output surface: %s\n"),
VdpauGetErrorString(status));
}
VdpauOsdOutputSurface[i] = VDP_INVALID_HANDLE;
}
}
#endif
}
///
/// VDPAU module.
///
static const VideoModule VdpauModule = {
.Name = "vdpau",
.Enabled = 1,
.NewHwDecoder = (VideoHwDecoder * (*const)(void))VdpauNewDecoder,
.DelHwDecoder = (void (*const) (VideoHwDecoder *))VdpauDelDecoder,
.GetSurface = (unsigned (*const) (VideoHwDecoder *))VdpauGetSurface,
.ReleaseSurface =
(void (*const) (VideoHwDecoder *, unsigned))VdpauReleaseSurface,
.get_format = (enum PixelFormat(*const) (VideoHwDecoder *,
AVCodecContext *, const enum PixelFormat *))Vdpau_get_format,
.RenderFrame = (void (*const) (VideoHwDecoder *,
const AVCodecContext *, const AVFrame *))VdpauSyncRenderFrame,
.GrabOutput = VdpauGrabOutputSurface,
.SetVideoMode = VdpauSetVideoMode,
.ResetAutoCrop = VdpauResetAutoCrop,
.Thread = VdpauDisplayHandlerThread,
.OsdClear = VdpauOsdClear,
.OsdDrawARGB = VdpauOsdDrawARGB,
.OsdInit = VdpauOsdInit,
.OsdExit = VdpauOsdExit,
.Init = VdpauInit,
.Exit = VdpauExit,
};
#endif
//----------------------------------------------------------------------------
// OSD
//----------------------------------------------------------------------------
///
/// Clear the OSD.
///
/// @todo I use glTexImage2D to clear the texture, are there faster and
/// better ways to clear a texture?
///
void VideoOsdClear(void)
{
if (VideoThread) {
VideoThreadLock();
}
#ifdef USE_GLX
if (GlxEnabled) {
void *texbuf;
texbuf = calloc(OsdWidth * OsdHeight, 4);
glEnable(GL_TEXTURE_2D); // 2d texture
glBindTexture(GL_TEXTURE_2D, OsdGlTextures[OsdIndex]);
// upload no image data, clears texture (on some drivers only)
glTexImage2D(GL_TEXTURE_2D, 0, GL_RGBA8, OsdWidth, OsdHeight, 0,
GL_BGRA, GL_UNSIGNED_BYTE, texbuf);
glBindTexture(GL_TEXTURE_2D, 0);
glDisable(GL_TEXTURE_2D);
GlxCheck();
free(texbuf);
}
#endif
if (VideoUsedModule) {
VideoUsedModule->OsdClear();
}
OsdDirtyX = OsdWidth;
OsdDirtyY = OsdHeight;
OsdDirtyWidth = 0;
OsdDirtyHeight = 0;
OsdShown = 0;
if (VideoThread) {
VideoThreadUnlock();
}
}
///
/// Draw an OSD ARGB image.
///
/// @param x x position of image in osd
/// @param y y position of image in osd
/// @param width width of image
/// @param height height of image
/// @param argb argb image
///
void VideoOsdDrawARGB(int x, int y, int width, int height,
const uint8_t * argb)
{
if (VideoThread) {
VideoThreadLock();
}
// update dirty area
if (x < OsdDirtyX) {
if (OsdDirtyWidth) {
OsdDirtyWidth += OsdDirtyX - x;
}
OsdDirtyX = x;
}
if (y < OsdDirtyY) {
if (OsdDirtyHeight) {
OsdDirtyHeight += OsdDirtyY - y;
}
OsdDirtyY = y;
}
if (x + width > OsdDirtyX + OsdDirtyWidth) {
OsdDirtyWidth = x + width - OsdDirtyX;
}
if (y + height > OsdDirtyY + OsdDirtyHeight) {
OsdDirtyHeight = y + height - OsdDirtyY;
}
Debug(3, "video: osd dirty %dx%d+%d+%d -> %dx%d+%d+%d\n", width, height, x,
y, OsdDirtyWidth, OsdDirtyHeight, OsdDirtyX, OsdDirtyY);
#ifdef USE_GLX
if (GlxEnabled) {
Debug(3, "video: %p <-> %p\n", glXGetCurrentContext(), GlxContext);
GlxUploadTexture(x, y, height, width, argb);
VideoThreadUnlock();
return;
}
#endif
if (VideoUsedModule) {
VideoUsedModule->OsdDrawARGB(x, y, width, height, argb);
}
OsdShown = 1;
if (VideoThread) {
VideoThreadUnlock();
}
}
///
/// Get OSD size.
///
void VideoGetOsdSize(int *width, int *height)
{
*width = 1920;
*height = 1080; // unknown default
if (OsdWidth && OsdHeight) {
*width = OsdWidth;
*height = OsdHeight;
}
}
///
/// Setup osd.
///
/// FIXME: looking for BGRA, but this fourcc isn't supported by the
/// drawing functions yet.
///
void VideoOsdInit(void)
{
OsdWidth = VideoWindowWidth; // FIXME: must be configured
OsdHeight = VideoWindowHeight;
#ifdef USE_GLX
// FIXME: make an extra function for this
if (GlxEnabled) {
int i;
Debug(3, "video/glx: %p <-> %p\n", glXGetCurrentContext(), GlxContext);
//
// create a RGBA texture.
//
glEnable(GL_TEXTURE_2D); // create 2d texture(s)
glGenTextures(2, OsdGlTextures);
for (i = 0; i < 2; ++i) {
glBindTexture(GL_TEXTURE_2D, OsdGlTextures[i]);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_MIN_FILTER, GL_LINEAR);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_MAG_FILTER, GL_LINEAR);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_WRAP_S,
GL_CLAMP_TO_EDGE);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_WRAP_T,
GL_CLAMP_TO_EDGE);
glPixelStorei(GL_UNPACK_ALIGNMENT, 4);
glTexImage2D(GL_TEXTURE_2D, 0, GL_RGBA8, OsdWidth, OsdHeight, 0,
GL_BGRA, GL_UNSIGNED_BYTE, NULL);
}
glBindTexture(GL_TEXTURE_2D, 0);
glDisable(GL_TEXTURE_2D);
return;
}
#endif
if (VideoThread) {
VideoThreadLock();
}
if (VideoUsedModule) {
VideoUsedModule->OsdInit(OsdWidth, OsdHeight);
}
if (VideoThread) {
VideoThreadUnlock();
}
VideoOsdClear();
}
///
/// Cleanup OSD.
///
void VideoOsdExit(void)
{
if (VideoThread) {
VideoThreadLock();
}
if (VideoUsedModule) {
VideoUsedModule->OsdExit();
}
if (VideoThread) {
VideoThreadUnlock();
}
OsdDirtyWidth = 0;
OsdDirtyHeight = 0;
}
#if 0
//----------------------------------------------------------------------------
// Overlay
//----------------------------------------------------------------------------
///
/// Render osd surface.
///
void VideoRenderOverlay(void)
{
#ifdef USE_GLX
if (GlxEnabled) {
GlxRender(OsdWidth, OsdHeight);
} else
#endif
{
}
}
///
/// Display overlay surface.
///
void VideoDisplayOverlay(void)
{
#ifdef USE_GLX
if (GlxEnabled) {
int osd_x1;
int osd_y1;
osd_x1 = 0;
osd_y1 = 0;
#ifdef noDEBUG
osd_x1 = 100;
osd_y1 = 100;
#endif
GlxRenderTexture(OsdGlTextures[OsdIndex], osd_x1, osd_y1,
VideoWindowWidth, VideoWindowHeight);
return;
}
#endif
#ifdef USE_VAAPI
{
void *image_buffer;
static int counter;
// upload needs long time
if (counter == 5) {
//return;
}
// osd image available?
if (VaOsdImage.image_id == VA_INVALID_ID) {
return;
}
// FIXME: this version hangups
//return;
// map osd surface/image into memory.
if (vaMapBuffer(VaDisplay, VaOsdImage.buf,
&image_buffer) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't map osd image buffer\n"));
return;
}
// 100% transparent
memset(image_buffer, 0x80 | counter++, VaOsdImage.data_size);
// convert internal osd to VA-API image
//GfxConvert(image_buffer, VaOsdImage.offsets[0], VaOsdImage.pitches[0]);
if (vaUnmapBuffer(VaDisplay, VaOsdImage.buf) != VA_STATUS_SUCCESS) {
Error(_("video/vaapi: can't unmap osd image buffer\n"));
}
}
#endif
}
#endif
//----------------------------------------------------------------------------
// Frame
//----------------------------------------------------------------------------
#if 0
///
/// Display a single frame.
///
static void VideoDisplayFrame(void)
{
#ifdef USE_GLX
if (GlxEnabled) {
VideoDisplayOverlay();
#ifdef USE_DOUBLEBUFFER
glXSwapBuffers(XlibDisplay, VideoWindow);
#else
glFinish(); // wait for all execution finished
#endif
GlxCheck();
glClear(GL_COLOR_BUFFER_BIT);
}
#endif
if (VideoUsedModule) {
VideoUsedModule->DisplayFrame();
}
}
#endif
//----------------------------------------------------------------------------
// Events
//----------------------------------------------------------------------------
/// C callback feed key press
extern void FeedKeyPress(const char *, const char *, int, int);
///
/// Handle X11 events.
///
/// @todo Signal WmDeleteMessage to application.
///
static void VideoEvent(void)
{
XEvent event;
KeySym keysym;
//char buf[32];
XNextEvent(XlibDisplay, &event);
switch (event.type) {
case ClientMessage:
Debug(3, "video/event: ClientMessage\n");
if (event.xclient.data.l[0] == (long)WmDeleteWindowAtom) {
Debug(3, "video/event: wm-delete-message\n");
FeedKeyPress("XKeySym", "Close", 0, 0);
}
break;
case MapNotify:
Debug(3, "video/event: MapNotify\n");
// <20>wm workaround
xcb_change_window_attributes(Connection, VideoWindow,
XCB_CW_CURSOR, &VideoBlankCursor);
break;
case Expose:
//Debug(3, "video/event: Expose\n");
break;
case ReparentNotify:
Debug(3, "video/event: ReparentNotify\n");
break;
case ConfigureNotify:
//Debug(3, "video/event: ConfigureNotify\n");
VideoSetVideoMode(event.xconfigure.x, event.xconfigure.y,
event.xconfigure.width, event.xconfigure.height);
break;
case ButtonPress:
VideoSetFullscreen(-1);
break;
case KeyPress:
keysym = XLookupKeysym(&event.xkey, 0);
#if 0
switch (keysym) {
case XK_d:
break;
case XK_S:
break;
}
#endif
if (keysym == NoSymbol) {
Warning(_("video/event: No symbol for %d\n"),
event.xkey.keycode);
}
FeedKeyPress("XKeySym", XKeysymToString(keysym), 0, 0);
/*
if (XLookupString(&event.xkey, buf, sizeof(buf), &keysym, NULL)) {
FeedKeyPress("XKeySym", buf, 0, 0);
} else {
FeedKeyPress("XKeySym", XKeysymToString(keysym), 0, 0);
}
*/
case KeyRelease:
break;
default:
#if 0
if (XShmGetEventBase(XlibDisplay) + ShmCompletion == event.type) {
// printf("ShmCompletion\n");
}
#endif
Debug(3, "Unsupported event type %d\n", event.type);
break;
}
}
///
/// Poll all x11 events.
///
void VideoPollEvent(void)
{
while (XPending(XlibDisplay)) {
VideoEvent();
}
}
//----------------------------------------------------------------------------
// Thread
//----------------------------------------------------------------------------
#ifdef USE_VIDEO_THREAD
#ifdef USE_GLX
static GLXContext GlxThreadContext; ///< our gl context for the thread
#endif
///
/// Lock video thread.
///
static void VideoThreadLock(void)
{
if (pthread_mutex_lock(&VideoLockMutex)) {
Error(_("video: can't lock thread\n"));
}
}
///
/// Unlock video thread.
///
static void VideoThreadUnlock(void)
{
if (pthread_mutex_unlock(&VideoLockMutex)) {
Error(_("video: can't unlock thread\n"));
}
}
///
/// Video render thread.
///
static void *VideoDisplayHandlerThread(void *dummy)
{
Debug(3, "video: display thread started\n");
#ifdef USE_GLX
if (GlxEnabled) {
Debug(3, "video: %p <-> %p\n", glXGetCurrentContext(),
GlxThreadContext);
GlxThreadContext =
glXCreateContext(XlibDisplay, GlxVisualInfo, GlxContext, GL_TRUE);
if (!GlxThreadContext) {
Error(_("video/glx: can't create glx context\n"));
return NULL;
}
// set glx context
if (!glXMakeCurrent(XlibDisplay, VideoWindow, GlxThreadContext)) {
GlxCheck();
Error(_("video/glx: can't make glx context current\n"));
return NULL;
}
}
#endif
for (;;) {
// fix dead-lock with VdpauExit
pthread_setcancelstate(PTHREAD_CANCEL_ENABLE, NULL);
pthread_testcancel();
pthread_setcancelstate(PTHREAD_CANCEL_DISABLE, NULL);
VideoPollEvent();
if (VideoUsedModule) {
VideoUsedModule->Thread();
} else {
XEvent event;
// FIXME: move into noop module
// avoid 100% cpu use
XPeekEvent(XlibDisplay, &event);
}
}
return dummy;
}
///
/// Initialize video threads.
///
static void VideoThreadInit(void)
{
pthread_mutex_init(&VideoMutex, NULL);
pthread_mutex_init(&VideoLockMutex, NULL);
pthread_cond_init(&VideoWakeupCond, NULL);
pthread_create(&VideoThread, NULL, VideoDisplayHandlerThread, NULL);
pthread_setname_np(VideoThread, "softhddev video");
}
///
/// Exit and cleanup video threads.
///
static void VideoThreadExit(void)
{
if (VideoThread) {
void *retval;
Debug(3, "video: video thread canceled\n");
//VideoThreadLock();
// FIXME: can't cancel locked
if (pthread_cancel(VideoThread)) {
Error(_("video: can't queue cancel video display thread\n"));
}
//VideoThreadUnlock();
if (pthread_join(VideoThread, &retval) || retval != PTHREAD_CANCELED) {
Error(_("video: can't cancel video display thread\n"));
}
pthread_cond_destroy(&VideoWakeupCond);
pthread_mutex_destroy(&VideoLockMutex);
pthread_mutex_destroy(&VideoMutex);
VideoThread = 0;
}
}
///
/// Video display wakeup.
///
/// New video arrived, wakeup video thread.
///
void VideoDisplayWakeup(void)
{
if (!XlibDisplay) { // not yet started
return;
}
if (!VideoThread) { // start video thread, if needed
VideoThreadInit();
}
}
#endif
//----------------------------------------------------------------------------
// Video API
//----------------------------------------------------------------------------
//----------------------------------------------------------------------------
///
/// Table of all audio modules.
///
static const VideoModule *VideoModules[] = {
#ifdef USE_VDPAU
&VdpauModule,
#endif
#ifdef USE_VAAPI
&VaapiModule,
#endif
//&NoopModule
};
///
/// Video hardware decoder
///
struct _video_hw_decoder_
{
union
{
#ifdef USE_VAAPI
VaapiDecoder Vaapi; ///< VA-API decoder structure
#endif
#ifdef USE_VDPAU
VdpauDecoder Vdpau; ///< vdpau decoder structure
#endif
};
};
///
/// Allocate new video hw decoder.
///
/// @returns a new initialized video hardware decoder.
///
VideoHwDecoder *VideoNewHwDecoder(void)
{
if (!XlibDisplay || !VideoUsedModule) { // waiting for x11 start
return NULL;
}
return VideoUsedModule->NewHwDecoder();
}
///
/// Destroy a video hw decoder.
///
/// @param decoder video hardware decoder
///
void VideoDelHwDecoder(VideoHwDecoder * decoder)
{
if (decoder && VideoUsedModule) {
VideoUsedModule->DelHwDecoder(decoder);
}
}
///
/// Get a free hardware decoder surface.
///
/// @param decoder video hardware decoder
///
/// @returns the oldest free surface or invalid surface
///
unsigned VideoGetSurface(VideoHwDecoder * decoder)
{
if (VideoUsedModule) {
return VideoUsedModule->GetSurface(decoder);
}
return -1;
}
///
/// Release a hardware decoder surface.
///
/// @param decoder VDPAU video hardware decoder
/// @param surface surface no longer used
///
void VideoReleaseSurface(VideoHwDecoder * decoder, unsigned surface)
{
// FIXME: must be guarded against calls, after VideoExit
if (!XlibDisplay) { // no init or failed
return;
}
if (VideoUsedModule) {
VideoUsedModule->ReleaseSurface(decoder, surface);
}
}
///
/// Callback to negotiate the PixelFormat.
///
/// @param fmt is the list of formats which are supported by the codec,
/// it is terminated by -1 as 0 is a valid format, the
/// formats are ordered by quality.
///
enum PixelFormat Video_get_format(VideoHwDecoder * decoder,
AVCodecContext * video_ctx, const enum PixelFormat *fmt)
{
if (VideoUsedModule) {
return VideoUsedModule->get_format(decoder, video_ctx, fmt);
}
return fmt[0];
}
///
/// Display a ffmpeg frame
///
/// @param decoder VDPAU video hardware decoder
/// @param video_ctx ffmpeg video codec context
/// @param frame frame to display
///
void VideoRenderFrame(VideoHwDecoder * decoder,
const AVCodecContext * video_ctx, const AVFrame * frame)
{
if (frame->repeat_pict) {
Warning(_("video: repeated pict found, but not handled\n"));
}
if (VideoUsedModule) {
VideoUsedModule->RenderFrame(decoder, video_ctx, frame);
}
}
///
/// Get VA-API ffmpeg context
///
/// @param decoder VA-API decoder
///
struct vaapi_context *VideoGetVaapiContext(VideoHwDecoder * decoder)
{
#ifdef USE_VAAPI
if (VideoUsedModule == &VaapiModule) {
return decoder->Vaapi.VaapiContext;
}
#endif
(void)decoder;
Error(_("video/vaapi: get vaapi context, without vaapi enabled\n"));
return NULL;
}
#ifdef USE_VDPAU
///
/// Draw ffmpeg vdpau render state.
///
/// @param decoder video hw decoder
/// @param vrs vdpau render state
///
void VideoDrawRenderState(VideoHwDecoder * hw_decoder,
struct vdpau_render_state *vrs)
{
if (VideoUsedModule == &VdpauModule) {
VdpStatus status;
uint32_t start;
uint32_t end;
VdpauDecoder *decoder;
decoder = &hw_decoder->Vdpau;
if (decoder->VideoDecoder == VDP_INVALID_HANDLE) {
Debug(3, "video/vdpau: recover preemption\n");
status =
VdpauDecoderCreate(VdpauDevice, decoder->Profile,
decoder->InputWidth, decoder->InputHeight,
decoder->SurfacesNeeded - VIDEO_SURFACES_MAX,
&decoder->VideoDecoder);
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: can't create decoder: %s\n"),
VdpauGetErrorString(status));
}
VdpauSetupOutput(decoder);
return;
}
Debug(4, "video/vdpau: decoder render to %#010x\n", vrs->surface);
start = GetMsTicks();
status =
VdpauDecoderRender(decoder->VideoDecoder, vrs->surface,
(VdpPictureInfo const *)&vrs->info, vrs->bitstream_buffers_used,
vrs->bitstream_buffers);
end = GetMsTicks();
if (status != VDP_STATUS_OK) {
Error(_("video/vdpau: decoder rendering failed: %s\n"),
VdpauGetErrorString(status));
}
if (end - start > 35) {
// report this
Info(_("video/vdpau: decoder render too slow %u ms\n"),
end - start);
}
return;
}
Error(_("video/vdpau: draw render state, without vdpau enabled\n"));
return;
}
#endif
#ifndef USE_VIDEO_THREAD
///
/// Video render.
///
/// @FIXME: old, not used and not uptodate code path
///
void VideoDisplayHandler(void)
{
uint32_t now;
if (!XlibDisplay) { // not yet started
return;
}
now = GetMsTicks();
if (now < VaapiDecoders[0]->LastFrameTick) {
return;
}
if (now - VaapiDecoders[0]->LastFrameTick < 500) {
return;
}
VideoPollEvent();
VaapiBlackSurface(VaapiDecoders[0]);
return;
VideoDisplayFrame();
}
#endif
///
/// Get video clock.
///
/// @note this isn't monoton, decoding reorders frames,
/// setter keeps it monotonic
/// @todo we have multiple clocks, for multiple stream
///
int64_t VideoGetClock(void)
{
#ifdef USE_VDPAU
if (VideoUsedModule == &VdpauModule) {
return VdpauGetClock(VdpauDecoders[0]);
}
#endif
#ifdef USE_VAAPI
if (VideoUsedModule == &VaapiModule) {
return VaapiGetClock(VaapiDecoders[0]);
}
#endif
return 0L;
}
///
/// Grab full screen image.
///
/// @param size[out] size of allocated image
/// @param width[in,out] width of image
/// @param height[in,out] height of image
///
uint8_t *VideoGrab(int *size, int *width, int *height, int write_header)
{
Debug(3, "video: grab\n");
#ifdef USE_GRAB
if (VideoUsedModule && VideoUsedModule->GrabOutput) {
uint8_t *data;
uint8_t *rgb;
char buf[64];
int i;
int n;
int scale_width;
int scale_height;
int x;
int y;
double src_x;
double src_y;
double scale_x;
double scale_y;
scale_width = *width;
scale_height = *height;
data = VideoUsedModule->GrabOutput(size, width, height);
if (scale_width <= 0) {
scale_width = *width;
}
if (scale_height <= 0) {
scale_height = *height;
}
// hardware didn't scale for us, use simple software scaler
if (scale_width != *width && scale_height != *height) {
n = 0;
if (write_header) {
n = snprintf(buf, sizeof(buf), "P6\n%d\n%d\n255\n",
scale_width, scale_height);
}
rgb = malloc(scale_width * scale_height * 3 + n);
if (!rgb) {
Error(_("video: out of memory\n"));
free(data);
return NULL;
}
*size = scale_width * scale_height * 3 + n;
memcpy(rgb, buf, n); // header
scale_x = (double)*width / scale_width;
scale_y = (double)*height / scale_height;
src_y = 0.0;
for (y = 0; y < scale_height; y++) {
int o;
src_x = 0.0;
o = (int)src_y **width;
for (x = 0; x < scale_width; x++) {
i = 4 * (o + (int)src_x);
rgb[n + (x + y * scale_width) * 3 + 0] = data[i + 2];
rgb[n + (x + y * scale_width) * 3 + 1] = data[i + 1];
rgb[n + (x + y * scale_width) * 3 + 2] = data[i + 0];
src_x += scale_x;
}
src_y += scale_y;
}
*width = scale_width;
*height = scale_height;
// grabed image of correct size convert BGRA -> RGB
} else {
n = snprintf(buf, sizeof(buf), "P6\n%d\n%d\n255\n", *width,
*height);
rgb = malloc(*width * *height * 3 + n);
if (!rgb) {
Error(_("video: out of memory\n"));
free(data);
return NULL;
}
memcpy(rgb, buf, n); // header
for (i = 0; i < *size / 4; ++i) { // convert bgra -> rgb
rgb[n + i * 3 + 0] = data[i * 4 + 2];
rgb[n + i * 3 + 1] = data[i * 4 + 1];
rgb[n + i * 3 + 2] = data[i * 4 + 0];
}
*size = *width * *height * 3 + n;
}
free(data);
return rgb;
}
#endif
(void)size;
(void)width;
(void)height;
(void)write_header;
return NULL;
}
//----------------------------------------------------------------------------
// Setup
//----------------------------------------------------------------------------
///
/// Create main window.
///
/// @param parent parent of new window
/// @param visual visual of parent
/// @param depth depth of parent
///
static void VideoCreateWindow(xcb_window_t parent, xcb_visualid_t visual,
uint8_t depth)
{
uint32_t values[4];
xcb_intern_atom_reply_t *reply;
xcb_pixmap_t pixmap;
xcb_cursor_t cursor;
Debug(3, "video: visual %#0x depth %d\n", visual, depth);
// Color map
VideoColormap = xcb_generate_id(Connection);
xcb_create_colormap(Connection, XCB_COLORMAP_ALLOC_NONE, VideoColormap,
parent, visual);
values[0] = 0;
values[1] = 0;
values[2] =
XCB_EVENT_MASK_KEY_PRESS | XCB_EVENT_MASK_KEY_RELEASE |
XCB_EVENT_MASK_BUTTON_PRESS | XCB_EVENT_MASK_BUTTON_RELEASE |
XCB_EVENT_MASK_EXPOSURE | XCB_EVENT_MASK_STRUCTURE_NOTIFY;
values[3] = VideoColormap;
VideoWindow = xcb_generate_id(Connection);
xcb_create_window(Connection, depth, VideoWindow, parent, VideoWindowX,
VideoWindowY, VideoWindowWidth, VideoWindowHeight, 0,
XCB_WINDOW_CLASS_INPUT_OUTPUT, visual,
XCB_CW_BACK_PIXEL | XCB_CW_BORDER_PIXEL | XCB_CW_EVENT_MASK |
XCB_CW_COLORMAP, values);
// define only available with xcb-utils-0.3.8
#ifdef XCB_ICCCM_NUM_WM_SIZE_HINTS_ELEMENTS
// FIXME: utf _NET_WM_NAME
xcb_icccm_set_wm_name(Connection, VideoWindow, XCB_ATOM_STRING, 8,
sizeof("softhddevice") - 1, "softhddevice");
xcb_icccm_set_wm_icon_name(Connection, VideoWindow, XCB_ATOM_STRING, 8,
sizeof("softhddevice") - 1, "softhddevice");
#endif
// define only available with xcb-utils-0.3.6
#ifdef XCB_NUM_WM_HINTS_ELEMENTS
// FIXME: utf _NET_WM_NAME
xcb_set_wm_name(Connection, VideoWindow, XCB_ATOM_STRING,
sizeof("softhddevice") - 1, "softhddevice");
xcb_set_wm_icon_name(Connection, VideoWindow, XCB_ATOM_STRING,
sizeof("softhddevice") - 1, "softhddevice");
#endif
// FIXME: size hints
// register interest in the delete window message
if ((reply =
xcb_intern_atom_reply(Connection, xcb_intern_atom(Connection, 0,
sizeof("WM_DELETE_WINDOW") - 1, "WM_DELETE_WINDOW"),
NULL))) {
WmDeleteWindowAtom = reply->atom;
free(reply);
if ((reply =
xcb_intern_atom_reply(Connection, xcb_intern_atom(Connection,
0, sizeof("WM_PROTOCOLS") - 1, "WM_PROTOCOLS"),
NULL))) {
#ifdef XCB_ICCCM_NUM_WM_SIZE_HINTS_ELEMENTS
xcb_icccm_set_wm_protocols(Connection, VideoWindow, reply->atom, 1,
&WmDeleteWindowAtom);
#endif
#ifdef XCB_NUM_WM_HINTS_ELEMENTS
xcb_set_wm_protocols(Connection, reply->atom, VideoWindow, 1,
&WmDeleteWindowAtom);
#endif
free(reply);
}
}
//
// prepare fullscreen.
//
if ((reply =
xcb_intern_atom_reply(Connection, xcb_intern_atom(Connection, 0,
sizeof("_NET_WM_STATE") - 1, "_NET_WM_STATE"), NULL))) {
NetWmState = reply->atom;
free(reply);
}
if ((reply =
xcb_intern_atom_reply(Connection, xcb_intern_atom(Connection, 0,
sizeof("_NET_WM_STATE_FULLSCREEN") - 1,
"_NET_WM_STATE_FULLSCREEN"), NULL))) {
NetWmStateFullscreen = reply->atom;
free(reply);
}
xcb_map_window(Connection, VideoWindow);
//
// hide cursor
//
pixmap = xcb_generate_id(Connection);
xcb_create_pixmap(Connection, 1, pixmap, parent, 1, 1);
cursor = xcb_generate_id(Connection);
xcb_create_cursor(Connection, cursor, pixmap, pixmap, 0, 0, 0, 0, 0, 0, 1,
1);
values[0] = cursor;
xcb_change_window_attributes(Connection, VideoWindow, XCB_CW_CURSOR,
values);
VideoBlankCursor = cursor;
// FIXME: free cursor/pixmap needed?
}
///
/// Set video geometry.
///
/// @param geometry [=][<width>{xX}<height>][{+-}<xoffset>{+-}<yoffset>]
///
int VideoSetGeometry(const char *geometry)
{
int flags;
flags =
XParseGeometry(geometry, &VideoWindowX, &VideoWindowY,
&VideoWindowWidth, &VideoWindowHeight);
return 0;
}
///
/// Set video output position.
///
/// @param x video output x coordinate inside the window
/// @param y video output y coordinate inside the window
/// @param width video output width
/// @param height video output height
///
/// @note FIXME: need to know which stream.
///
void VideoSetOutputPosition(int x, int y, int width, int height)
{
// FIXME: high level, currently works osd relative
if (!OsdWidth || !OsdHeight) {
return;
}
x = (x * VideoWindowWidth) / OsdWidth;
y = (y * VideoWindowHeight) / OsdHeight;
width = (width * VideoWindowWidth) / OsdWidth;
height = (height * VideoWindowHeight) / OsdHeight;
if (VideoThread) {
VideoThreadLock();
}
if (VideoUsedModule) {
// FIXME: what stream?
}
#ifdef USE_VDPAU
if (VideoUsedModule == &VdpauModule) {
VdpauSetOutputPosition(VdpauDecoders[0], x, y, width, height);
}
#endif
#ifdef USE_VAPI
// FIXME: not supported by vaapi without unscaled OSD,
// FIXME: if used to position video inside osd
#endif
if (VideoThread) {
VideoThreadUnlock();
}
}
///
/// Set video window position.
///
/// @param x window x coordinate
/// @param y window y coordinate
/// @param width window width
/// @param height window height
///
/// @note no need to lock, only called from inside the video thread
///
void VideoSetVideoMode( __attribute__ ((unused))
int x, __attribute__ ((unused))
int y, int width, int height)
{
Debug(4, "video: %s %dx%d%+d%+d\n", __FUNCTION__, width, height, x, y);
if ((unsigned)width == VideoWindowWidth
&& (unsigned)height == VideoWindowHeight) {
return; // same size nothing todo
}
VideoOsdExit();
// FIXME: must tell VDR that the OsdSize has been changed!
if (VideoThread) {
VideoThreadLock();
}
VideoWindowWidth = width;
VideoWindowHeight = height;
if (VideoUsedModule) {
VideoUsedModule->SetVideoMode();
}
if (VideoThread) {
VideoThreadUnlock();
}
VideoOsdInit();
}
///
/// Set video display format.
///
void VideoSetDisplayFormat(int format)
{
VideoOsdExit();
// FIXME: must tell VDR that the OsdSize has been changed!
if (VideoThread) {
VideoThreadLock();
}
switch (format) {
case 0: // pan&scan (we have no pan&scan)
Video4to3ZoomMode = VideoStretch;
break;
case 1: // letter box
Video4to3ZoomMode = VideoNormal;
break;
case 2: // center cut-out
Video4to3ZoomMode = VideoCenterCutOut;
break;
}
if (VideoUsedModule) {
VideoUsedModule->SetVideoMode();
}
if (VideoThread) {
VideoThreadUnlock();
}
VideoOsdInit();
}
///
/// Send fullscreen message to window.
///
/// @param onoff -1 toggle, true turn on, false turn off
///
void VideoSetFullscreen(int onoff)
{
xcb_client_message_event_t event;
memset(&event, 0, sizeof(event));
event.response_type = XCB_CLIENT_MESSAGE;
event.format = 32;
event.window = VideoWindow;
event.type = NetWmState;
if (onoff < 0) {
event.data.data32[0] = XCB_EWMH_WM_STATE_TOGGLE;
} else if (onoff) {
event.data.data32[0] = XCB_EWMH_WM_STATE_ADD;
} else {
event.data.data32[0] = XCB_EWMH_WM_STATE_REMOVE;
}
event.data.data32[1] = NetWmStateFullscreen;
xcb_send_event(Connection, XCB_SEND_EVENT_DEST_POINTER_WINDOW,
DefaultRootWindow(XlibDisplay),
XCB_EVENT_MASK_SUBSTRUCTURE_NOTIFY |
XCB_EVENT_MASK_SUBSTRUCTURE_REDIRECT, (void *)&event);
Debug(3, "video/x11: send fullscreen message %x %x\n",
event.data.data32[0], event.data.data32[1]);
}
///
/// Set deinterlace mode.
///
void VideoSetDeinterlace(int mode[VideoResolutionMax])
{
VideoDeinterlace[0] = mode[0];
VideoDeinterlace[1] = mode[1];
VideoDeinterlace[2] = mode[2];
VideoDeinterlace[3] = mode[3];
VideoSurfaceModesChanged = 1;
}
///
/// Set skip chroma deinterlace on/off.
///
void VideoSetSkipChromaDeinterlace(int onoff[VideoResolutionMax])
{
VideoSkipChromaDeinterlace[0] = onoff[0];
VideoSkipChromaDeinterlace[1] = onoff[1];
VideoSkipChromaDeinterlace[2] = onoff[2];
VideoSkipChromaDeinterlace[3] = onoff[3];
VideoSurfaceModesChanged = 1;
}
///
/// Set denoise level (0 .. 1000).
///
void VideoSetDenoise(int level[VideoResolutionMax])
{
VideoDenoise[0] = level[0];
VideoDenoise[1] = level[1];
VideoDenoise[2] = level[2];
VideoDenoise[3] = level[3];
VideoSurfaceModesChanged = 1;
}
///
/// Set sharpness level (-1000 .. 1000).
///
void VideoSetSharpen(int level[VideoResolutionMax])
{
VideoSharpen[0] = level[0];
VideoSharpen[1] = level[1];
VideoSharpen[2] = level[2];
VideoSharpen[3] = level[3];
VideoSurfaceModesChanged = 1;
}
///
/// Set scaling mode.
///
/// @param mode table with VideoResolutionMax values
///
void VideoSetScaling(int mode[VideoResolutionMax])
{
VideoScaling[0] = mode[0];
VideoScaling[1] = mode[1];
VideoScaling[2] = mode[2];
VideoScaling[3] = mode[3];
VideoSurfaceModesChanged = 1;
}
///
/// Set skip lines.
///
/// @param lines lines in pixel
///
void VideoSetSkipLines(int lines)
{
VideoSkipLines = lines;
}
///
/// Set audio delay.
///
/// @param ms delay in ms
///
void VideoSetAudioDelay(int ms)
{
VideoAudioDelay = ms * 90;
}
///
/// Set auto-crop parameters.
///
void VideoSetAutoCrop(int interval, int delay, int tolerance)
{
#ifdef USE_AUTOCROP
AutoCropInterval = interval;
AutoCropDelay = delay;
AutoCropTolerance = tolerance;
if (VideoThread) {
VideoThreadLock();
}
if (VideoUsedModule) {
VideoUsedModule->ResetAutoCrop();
}
if (VideoThread) {
VideoThreadUnlock();
}
#else
(void)interval;
(void)delay;
(void)tolerance;
#endif
}
///
/// Initialize video output module.
///
/// @param display_name X11 display name
///
void VideoInit(const char *display_name)
{
int screen_nr;
int i;
xcb_screen_iterator_t screen_iter;
xcb_screen_t *screen;
if (XlibDisplay) { // allow multiple calls
Debug(3, "video: x11 already setup\n");
return;
}
// Open the connection to the X server.
// use the DISPLAY environment variable as the default display name
if (!display_name) {
display_name = getenv("DISPLAY");
if (!display_name) {
// use :0.0 as default display name
display_name = ":0.0";
}
}
if (!(XlibDisplay = XOpenDisplay(display_name))) {
Fatal(_("video: Can't connect to X11 server on '%s'"), display_name);
// FIXME: we need to retry connection
}
// XInitThreads();
// Convert XLIB display to XCB connection
if (!(Connection = XGetXCBConnection(XlibDisplay))) {
Fatal(_("video: Can't convert XLIB display to XCB connection"));
}
// prefetch extensions
//xcb_prefetch_extension_data(Connection, &xcb_big_requests_id);
//xcb_prefetch_extension_data(Connection, &xcb_dpms_id);
//xcb_prefetch_extension_data(Connection, &xcb_glx_id);
//xcb_prefetch_extension_data(Connection, &xcb_randr_id);
//xcb_prefetch_extension_data(Connection, &xcb_screensaver_id);
//xcb_prefetch_extension_data(Connection, &xcb_shm_id);
//xcb_prefetch_extension_data(Connection, &xcb_xv_id);
// Get the requested screen number
screen_nr = DefaultScreen(XlibDisplay);
screen_iter = xcb_setup_roots_iterator(xcb_get_setup(Connection));
for (i = 0; i < screen_nr; ++i) {
xcb_screen_next(&screen_iter);
}
screen = screen_iter.data;
//
// Default window size
//
if (!VideoWindowHeight) {
if (VideoWindowWidth) {
VideoWindowHeight = (VideoWindowWidth * 9) / 16;
}
VideoWindowHeight = 576;
}
if (!VideoWindowWidth) {
VideoWindowWidth = (VideoWindowHeight * 16) / 9;
}
//
// prepare opengl
//
#ifdef USE_GLX
if (GlxEnabled) {
GlxInit();
// FIXME: use root window?
VideoCreateWindow(screen->root, GlxVisualInfo->visualid,
GlxVisualInfo->depth);
GlxSetupWindow(VideoWindow, VideoWindowWidth, VideoWindowHeight);
} else
#endif
//
// Create output window
//
if (1) { // FIXME: use window mode
VideoCreateWindow(screen->root, screen->root_visual,
screen->root_depth);
} else {
// FIXME: support embedded mode
VideoWindow = screen->root;
// FIXME: VideoWindowHeight VideoWindowWidth
}
Debug(3, "video: window prepared\n");
//
// prepare hardware decoder VA-API/VDPAU
// FIXME: make the used output modules configurable
//
for (i = 0; i < (int)(sizeof(VideoModules) / sizeof(*VideoModules)); ++i) {
if (VideoModules[i]->Enabled) {
if (VideoModules[i]->Init(display_name)) {
VideoUsedModule = VideoModules[i];
break;
}
}
}
// FIXME: make it configurable from gui
VideoHardwareDecoder = -1;
if (getenv("NO_MPEG_HW")) {
VideoHardwareDecoder = 1;
}
if (getenv("NO_HW")) {
VideoHardwareDecoder = 0;
}
//xcb_prefetch_maximum_request_length(Connection);
xcb_flush(Connection);
}
///
/// Cleanup video output module.
///
void VideoExit(void)
{
if (!XlibDisplay) { // no init or failed
return;
}
#ifdef USE_VIDEO_THREAD
VideoThreadExit();
// VDPAU cleanup hangs in XLockDisplay every 100 exits
// XUnlockDisplay(XlibDisplay);
// xcb_flush(Connection);
#endif
if (VideoUsedModule) {
VideoUsedModule->Exit();
}
#ifdef USE_GLX
if (GlxEnabled) {
GlxExit();
}
#endif
//
// Reenable screensaver / DPMS.
//
//X11SuspendScreenSaver(XlibDisplay, False);
//X11DPMSEnable(XlibDisplay);
//
// FIXME: cleanup.
//
//RandrExit();
//
// X11/xcb cleanup
//
if (VideoWindow != XCB_NONE) {
xcb_destroy_window(Connection, VideoWindow);
VideoWindow = XCB_NONE;
}
if (XlibDisplay) {
if (XCloseDisplay(XlibDisplay)) {
Error(_("video: error closing display\n"));
}
XlibDisplay = NULL;
}
}
#endif
#ifdef VIDEO_TEST
#include <getopt.h>
int SysLogLevel; ///< show additional debug informations
uint32_t VideoSwitch; ///< required
uint64_t AudioGetDelay(void) ///< required
{
return 0UL;
}
int64_t AudioGetClock(void) ///< required
{
return AV_NOPTS_VALUE;
}
void FeedKeyPress( __attribute__ ((unused))
const char *x, __attribute__ ((unused))
const char *y, __attribute__ ((unused))
int a, __attribute__ ((unused))
int b)
{
}
int VideoDecode(void)
{
return -1;
}
///
/// Print version.
///
static void PrintVersion(void)
{
printf("video_test: video tester Version " VERSION
#ifdef GIT_REV
"(GIT-" GIT_REV ")"
#endif
",\n\t(c) 2009 - 2012 by Johns\n"
"\tLicense AGPLv3: GNU Affero General Public License version 3\n");
}
///
/// Print usage.
///
static void PrintUsage(void)
{
printf("Usage: video_test [-?dhv]\n"
"\t-d\tenable debug, more -d increase the verbosity\n"
"\t-? -h\tdisplay this message\n" "\t-v\tdisplay version information\n"
"Only idiots print usage on stderr!\n");
}
///
/// Main entry point.
///
/// @param argc number of arguments
/// @param argv arguments vector
///
/// @returns -1 on failures, 0 clean exit.
///
int main(int argc, char *const argv[])
{
uint32_t start_tick;
uint32_t tick;
int n;
VideoHwDecoder *video_hw_decoder;
SysLogLevel = 0;
//
// Parse command line arguments
//
for (;;) {
switch (getopt(argc, argv, "hv?-c:dg:")) {
case 'd': // enabled debug
++SysLogLevel;
continue;
case 'g': // geometry
if (VideoSetGeometry(optarg) < 0) {
fprintf(stderr,
_
("Bad formated geometry please use: [=][<width>{xX}<height>][{+-}<xoffset>{+-}<yoffset>]\n"));
return 0;
}
continue;
case EOF:
break;
case 'v': // print version
PrintVersion();
return 0;
case '?':
case 'h': // help usage
PrintVersion();
PrintUsage();
return 0;
case '-':
PrintVersion();
PrintUsage();
fprintf(stderr, "\nWe need no long options\n");
return -1;
case ':':
PrintVersion();
fprintf(stderr, "Missing argument for option '%c'\n", optopt);
return -1;
default:
PrintVersion();
fprintf(stderr, "Unkown option '%c'\n", optopt);
return -1;
}
break;
}
if (optind < argc) {
PrintVersion();
while (optind < argc) {
fprintf(stderr, "Unhandled argument '%s'\n", argv[optind++]);
}
return -1;
}
//
// main loop
//
VideoInit(NULL);
VideoOsdInit();
video_hw_decoder = VideoNewHwDecoder();
start_tick = GetMsTicks();
n = 0;
for (;;) {
#if 0
VideoRenderOverlay();
VideoDisplayOverlay();
glXSwapBuffers(XlibDisplay, VideoWindow);
GlxCheck();
glClear(GL_COLOR_BUFFER_BIT);
XSync(XlibDisplay, False);
XFlush(XlibDisplay);
#endif
#ifdef USE_VAAPI
if (VideoVaapiEnabled) {
VaapiDisplayFrame();
}
#endif
#ifdef USE_VDPAU
if (VideoVdpauEnabled) {
VdpauDisplayFrame();
}
#endif
tick = GetMsTicks();
n++;
if (!(n % 100)) {
printf("%d ms / frame\n", (tick - start_tick) / n);
}
usleep(2 * 1000);
}
VideoExit();
return 0;
}
#endif
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