int vpuInit(void)
{
int err;
vpu_versioninfo ver;
err = vpu_Init(NULL);
if (err) {
err_msg("VPU Init Failure.\n");
return -1;
}
err = vpu_GetVersionInfo(&ver);
if (err) {
err_msg("Cannot get version info, err:%d\n", err);
vpu_UnInit();
return -1;
}
info_msg("VPU firmware version: %d.%d.%d_r%d\n",
ver.fw_major, ver.fw_minor,
ver.fw_release, ver.fw_code);
info_msg("VPU library version: %d.%d.%d\n", ver.lib_major,
ver.lib_minor, ver.lib_release);
info_msg("VPU: Init framebuffer pool\n");
framebuf_init();
info_msg("VPU was successfully initialized\n\n");
return 0;
}
vpu_t::vpu_t(void)
: worked_( false )
{
RetCode rc = vpu_Init(0);
worked_ = (RETCODE_SUCCESS == rc);
if( !worked_ )
fprintf(stderr, "Error %d initializing VPU\n", rc );
}
int vpu_init(void)
{
vpu_versioninfo ver;
framebuf_init();
vpu_Init(NULL);
vpu_GetVersionInfo(&ver);
pthread_mutex_init(&vpu_mutex, NULL);
fprintf(stderr, "VPU firmware version: %d.%d.%d\n", ver.fw_major, ver.fw_minor, ver.fw_release);
fprintf(stderr, "VPU library version: %d.%d.%d\n", ver.lib_major, ver.lib_minor, ver.lib_release);
return 0;
}
iMX27RtpInterface::iMX27RtpInterface(SkypeVideoRTPInterfaceCb *pCallback) :
m_BitRate(0),
m_pCb(pCallback),
m_ReceiveBStat(3000000),
m_SendBStat(3000000),
m_KeyFrameRequested(0),
m_RecordingStarted(false),
m_ReceivePcnt(0),
m_SendPcnt(0),
m_ReceiveFcnt(0),
m_SendFcnt(0),
m_PayloadFormat(FORMAT_FRAMES),
m_pSendWrapper(NULL),
m_pReceiveWrapper(NULL)
{
RTP_FUNCLOG;
if (!Configuration::GetCfg()->IsInitialized())
Configuration::GetCfg()->Init("RTPTestEngine.conf");
m_PayloadFormat = (PayloadFmtType)Configuration::GetCfg()->GetIntVal("PayloadFormat");
#ifndef MINIMAL_MODE
if ((Configuration::GetCfg()->GetIntVal("SendPacketsFromAnxbFile") || Configuration::GetCfg()->GetIntVal("SendPacketsFromPcapFile")) && !Configuration::GetCfg()->GetIntVal("RenderVideo")) {
return;
}
vpu_versioninfo vpuVersion;
RetCode ret = RETCODE_SUCCESS;
pMutexLock scopedLock(m_VpuMutex); // Scoped lock on VPU mutex
// Initialize VPU hardware and data structures/resources
ret = vpu_Init(NULL);
if (ret != RETCODE_SUCCESS) {
FATAL("%s: vpu_Init() failed. Return code: %d", ret);
}
// Read out the version information running on the system
ret = vpu_GetVersionInfo(&vpuVersion);
scopedLock.mutex.Release(); // VPU access - unlock
if (ret != RETCODE_SUCCESS) {
if (ret != RETCODE_NOT_INITIALIZED) {
vpu_UnInit();
}
FATAL("vpu_GetVersionInfo() failed. Return code: %d\n", ret);
}
RTP_DBG("i.MX%x Silicon Revision: %x.%x", mxc_cpu(), ((mxc_cpu_rev() >> 4) & 0xF), (mxc_cpu_rev() & 0xF));
RTP_DBG("i.MX%x VPU Firmware version: %d.%d.%d", mxc_cpu(), vpuVersion.fw_major, vpuVersion.fw_minor, vpuVersion.fw_release);
RTP_DBG("i.MX%x VPU Library version: %d.%d.%d", mxc_cpu(), vpuVersion.lib_major, vpuVersion.lib_minor, vpuVersion.lib_release);
#endif
}
static void enc_init(MSFilter *f){
EncData *d=ms_new(EncData,1);
d->enc=NULL;
d->keyframe_int=10; /*10 seconds */
d->mode=0;
d->framenum=0;
d->generate_keyframe=FALSE;
d->packer=NULL;
d->vconf_list = &x264_conf_list[0];
d->vconf = ms_video_find_best_configuration_for_bitrate(d->vconf_list, 384000);
d->flv = newFLVStream(2*1024*1024);
d->enc = ms_new0(struct x264_encode,1);
f->data=d;
if(vpu_Init(NULL)!=0)
{
ms_error("MSH264Enc: VPU Init error\n");
return ;
}
d->mem_desc.size = STREAM_BUF_SIZE;
if(IOGetPhyMem(&d->mem_desc)!=0) {
ms_error("MSH264Enc: Unable to obtain physical memory\n");
return ;
}
/* mmap that physical buffer */
d->enc->virt_bsbuf_addr = IOGetVirtMem(&d->mem_desc);
if (d->enc->virt_bsbuf_addr <= 0) {
IOFreePhyMem(&d->mem_desc);
ms_error("MSH264Enc: Unable to map physical memory\n");
return ;
}
d->enc->phy_bsbuf_addr = d->mem_desc.phy_addr;
}
bool video_imx_init() {
return vpu_Init(NULL) == RETCODE_SUCCESS;
}
main(int argc, char *argv[])
#endif
{
int err, nargc, i, ret = 0;
char *pargv[32] = {0}, *dbg_env;
pthread_t sigtid;
#ifdef COMMON_INIT
vpu_versioninfo ver;
#endif
int ret_thr;
#ifndef COMMON_INIT
srand((unsigned)time(0)); /* init seed of rand() */
#endif
dbg_env=getenv("VPU_TEST_DBG");
if (dbg_env)
vpu_test_dbg_level = atoi(dbg_env);
else
vpu_test_dbg_level = 0;
err = parse_main_args(argc, argv);
if (err) {
goto usage;
}
if (!instance) {
goto usage;
}
info_msg("VPU test program built on %s %s\n", __DATE__, __TIME__);
#ifndef _FSL_VTS_
sigemptyset(&sigset);
sigaddset(&sigset, SIGINT);
pthread_sigmask(SIG_BLOCK, &sigset, NULL);
pthread_create(&sigtid, NULL, (void *)&signal_thread, NULL);
#endif
#ifdef COMMON_INIT
err = vpu_Init(NULL);
if (err) {
err_msg("VPU Init Failure.\n");
return -1;
}
err = vpu_GetVersionInfo(&ver);
if (err) {
err_msg("Cannot get version info, err:%d\n", err);
vpu_UnInit();
return -1;
}
info_msg("VPU firmware version: %d.%d.%d_r%d\n", ver.fw_major, ver.fw_minor,
ver.fw_release, ver.fw_code);
info_msg("VPU library version: %d.%d.%d\n", ver.lib_major, ver.lib_minor,
ver.lib_release);
#else
// just to enable cpu_is_xx() to be used in command line parsing
err = vpu_Init(NULL);
if (err) {
err_msg("VPU Init Failure.\n");
return -1;
}
vpu_UnInit();
#endif
if (instance > 1) {
for (i = 0; i < instance; i++) {
#ifndef COMMON_INIT
/* sleep roughly a frame interval to test multi-thread race
especially vpu_Init/vpu_UnInit */
usleep((int)(rand()%ONE_FRAME_INTERV));
#endif
if (using_config_file == 0) {
get_arg(input_arg[i].line, &nargc, pargv);
err = parse_args(nargc, pargv, i);
if (err) {
vpu_UnInit();
goto usage;
}
}
if (check_params(&input_arg[i].cmd,
input_arg[i].mode) == 0) {
if (open_files(&input_arg[i].cmd) == 0) {
if (input_arg[i].mode == DECODE) {
pthread_create(&input_arg[i].tid,
NULL,
(void *)&decode_test,
(void *)&input_arg[i].cmd);
} else if (input_arg[i].mode ==
ENCODE) {
pthread_create(&input_arg[i].tid,
NULL,
(void *)&encode_test,
(void *)&input_arg[i].cmd);
}
}
}
}
} else {
if (using_config_file == 0) {
get_arg(input_arg[0].line, &nargc, pargv);
err = parse_args(nargc, pargv, 0);
if (err) {
vpu_UnInit();
goto usage;
}
}
if (check_params(&input_arg[0].cmd, input_arg[0].mode) == 0) {
if (open_files(&input_arg[0].cmd) == 0) {
if (input_arg[0].mode == DECODE) {
ret = decode_test(&input_arg[0].cmd);
} else if (input_arg[0].mode == ENCODE) {
ret = encode_test(&input_arg[0].cmd);
} else if (input_arg[0].mode == TRANSCODE) {
ret = transcode_test(&input_arg[0].cmd);
}
close_files(&input_arg[0].cmd);
} else {
ret = -1;
}
} else {
ret = -1;
}
if (input_arg[0].mode == LOOPBACK) {
encdec_test(&input_arg[0].cmd);
}
}
if (instance > 1) {
for (i = 0; i < instance; i++) {
if (input_arg[i].tid != 0) {
pthread_join(input_arg[i].tid, (void *)&ret_thr);
if (ret_thr)
ret = -1;
close_files(&input_arg[i].cmd);
}
}
}
#ifdef COMMON_INIT
vpu_UnInit();
#endif
return ret;
usage:
info_msg("\n%s", usage);
return -1;
}
int main(void){
int ret = 0, i;
vpu_versioninfo ver; // vpu version information
vpu_mem_desc bit_stream_buf; // input bit stream allocated memory
vpu_mem_desc source_buf; // source buffer allocated memory
FrameBuffer source_frame; // source framebuffer
// VPU specific members defined in vpu_lib.h
EncHandle *handle = malloc(sizeof(EncHandle));
EncOpenParam *encOP = malloc(sizeof(EncOpenParam));
EncInitialInfo *initialInfo = malloc(sizeof(EncInitialInfo));
EncOutputInfo *outputInfo = malloc(sizeof(EncOutputInfo));
EncParam *encParam = malloc(sizeof(EncParam));
// Set allocated memory to zero
memset (initialInfo, 0, sizeof (EncInitialInfo));
memset (encParam, 0, sizeof (EncParam));
memset (encOP, 0, sizeof (EncOpenParam));
memset (outputInfo, 0, sizeof (EncOutputInfo));
memset (&bit_stream_buf, 0, sizeof (vpu_mem_desc));
// Init VPU
if(vpu_Init (NULL) < 0) {
printf(">> failed to call vpu_Init()\n");
ret = -1;
goto free;
}
vpu_GetVersionInfo(&ver);
printf("VPU Version: firmware %d.%d.%d; libvpu: %d.%d.%d \n", ver.fw_major,
ver.fw_minor, ver.fw_release, ver.lib_major, ver.lib_minor,
ver.lib_release);
// Allocate input buffer
bit_stream_buf.size = BUFF_FILL_SIZE;
IOGetPhyMem (&bit_stream_buf);
if(bit_stream_buf.phy_addr == 0) {
printf(">> error allocating encoder bitstream buffer\n");
ret = -1;
goto free;
}
IOGetVirtMem (&bit_stream_buf);
// Set up encoder operation parameters
encOP->bitstreamBuffer = bit_stream_buf.phy_addr;
encOP->bitstreamBufferSize = BUFF_FILL_SIZE;
encOP->bitstreamFormat = STD_AVC;
encOP->gopSize = DEFAULT_GOP_SIZE;
encOP->rcIntraQp = VPU_DEFAULT_H264_QP;
encOP->userQpMaxEnable = 1;
encOP->userQpMax = H264_QP_MAX;
encOP->userQpMinEnable = 1;
encOP->userQpMin = H264_QP_MIN;
encOP->frameRateInfo = DEFAULT_FRAME_RATE;
encOP->picWidth = DEFAULT_WIDTH;
encOP->picHeight = DEFAULT_HEIGHT;
encOP->ringBufferEnable = 0;
// Open encoder
vpu_EncOpen (handle, encOP);
// Configure IRAM memory
SearchRamParam search_pa = { 0 };
iram_t iram;
int ram_size;
memset (&iram, 0, sizeof (iram_t));
ram_size = ((DEFAULT_WIDTH + 15) & ~15) * 36 + 2048;
IOGetIramBase (&iram);
if ((iram.end - iram.start) < ram_size)
ram_size = iram.end - iram.start;
search_pa.searchRamAddr = iram.start;
search_pa.SearchRamSize = ram_size;
vpu_EncGiveCommand (*handle, ENC_SET_SEARCHRAM_PARAM, &search_pa);
vpu_EncGetInitialInfo (*handle, initialInfo);
// Disable rotation/mirroring
vpu_EncGiveCommand (*handle, DISABLE_ROTATION, 0);
vpu_EncGiveCommand (*handle, DISABLE_MIRRORING, 0);
// Allocate memory for source frame buffer
source_buf.size = DEFAULT_WIDTH * DEFAULT_HEIGHT * 3/2;
IOGetPhyMem (&source_buf);
if(source_buf.phy_addr == 0) {
printf(">> error allocating source frame buffer\n");
ret = -1;
goto close;
}
IOGetVirtMem(&source_buf);
source_frame.strideY = DEFAULT_WIDTH;
source_frame.strideC = DEFAULT_WIDTH >> 1;
source_frame.bufY = source_buf.phy_addr;
source_frame.bufCb = source_frame.bufY + DEFAULT_WIDTH * DEFAULT_HEIGHT;
source_frame.bufCr = source_frame.bufCb + (DEFAULT_WIDTH * DEFAULT_HEIGHT >> 2);
printf("source frame buffer %i phys(%p) virt(%p)\n", 0, source_buf.phy_addr, source_buf.virt_uaddr);
// Get number of destination frame buffers and allocate
int num = initialInfo->minFrameBufferCount;
printf("number of needed frame buffers: %d\n", num);
vpu_mem_desc *framedesc = malloc(sizeof(vpu_mem_desc) * num);
FrameBuffer *frame = malloc(sizeof(FrameBuffer) * num);
memset (framedesc, 0, (sizeof (vpu_mem_desc) * num));
memset (frame, 0, (sizeof (FrameBuffer) * num));
// Allocate each destination frame buffer
for (i = 0; i < num; i++) {
framedesc[i].size = DEFAULT_WIDTH * DEFAULT_HEIGHT * 3/2;
IOGetPhyMem (&(framedesc[i]));
if (framedesc[i].phy_addr == 0) {
printf(">> error allocating destination frame buffers\n");
ret = -1;
goto frame;
}
IOGetVirtMem (&(framedesc[i]));
frame[i].strideY = DEFAULT_WIDTH;
frame[i].strideC = DEFAULT_WIDTH >> 1;
frame[i].bufY = framedesc[i].phy_addr;
frame[i].bufCb = frame[i].bufY + (DEFAULT_WIDTH * DEFAULT_HEIGHT);
frame[i].bufCr = frame[i].bufCb + ((DEFAULT_WIDTH * DEFAULT_HEIGHT) >> 2);
printf("destination frame buffer %i phys(%p) virt(%p)\n", i, framedesc[i].phy_addr, framedesc[i].virt_uaddr);
}
// Register allocated frame buffers
vpu_EncRegisterFrameBuffer (*handle, frame, num, DEFAULT_WIDTH, DEFAULT_WIDTH, 0, 0, NULL);
encParam->forceIPicture = 0;
encParam->skipPicture = 0;
encParam->enableAutoSkip = 0;
encParam->quantParam = VPU_DEFAULT_H264_QP;
// Get encoding Headers
EncHeaderParam enchdr_param = { 0 };
uint8_t *ptr;
uint8_t *header[NUM_INPUT_BUF];
uint32_t headersize[NUM_INPUT_BUF]; // size for each header element
enchdr_param.headerType = SPS_RBSP;
vpu_EncGiveCommand (*handle, ENC_PUT_AVC_HEADER, &enchdr_param);
headersize[SPS_HDR] = enchdr_param.size;
header[SPS_HDR] = malloc (enchdr_param.size);
if (header[SPS_HDR] == NULL) {
printf (">> error in allocating memory for SPS_RBSP Header" );
ret = -1;
goto frame;
}
ptr = (uint8_t*) (bit_stream_buf.virt_uaddr + enchdr_param.buf - bit_stream_buf.phy_addr);
memcpy (header[SPS_HDR], ptr, enchdr_param.size);
printf("header[SPS_HDR]: %d bytes\n", headersize[SPS_HDR]);
enchdr_param.headerType = PPS_RBSP;
vpu_EncGiveCommand (*handle, ENC_PUT_AVC_HEADER, &enchdr_param);
headersize[PPS_HDR] = enchdr_param.size;
header[PPS_HDR] = malloc (enchdr_param.size);
if (header[PPS_HDR] == NULL) {
printf (">> error in allocating memory for PPS_HDR Header" );
ret = -1;
goto frame;
}
ptr = (uint8_t*) (bit_stream_buf.virt_uaddr + enchdr_param.buf - bit_stream_buf.phy_addr);
memcpy (header[PPS_HDR], ptr, enchdr_param.size);
printf("header[PPS_HDR]: %d bytes\n", headersize[PPS_HDR]);
// Open output file and write headers
FILE *out = fopen ("BigBuckBunny_640x360_small.h264", "w"); //stdout
fwrite(header[SPS_HDR], 1, headersize[SPS_HDR], out);
fwrite(header[PPS_HDR], 1, headersize[PPS_HDR], out);
// Copy and Encode
FILE *in = fopen ("BigBuckBunny_640x360_small.yuv", "r");
while(fread((void*) source_buf.virt_uaddr, 1, DEFAULT_WIDTH * DEFAULT_HEIGHT * 3/2, in)) {
encParam->sourceFrame = &source_frame;
// Encode a single frame
vpu_EncStartOneFrame (*handle, encParam);
while(vpu_IsBusy()) {
vpu_WaitForInt (100);
}
vpu_EncGetOutputInfo (*handle, outputInfo);
// Write bitstream to file
fwrite((void*) bit_stream_buf.virt_uaddr, 1, outputInfo->bitstreamSize, out);
}
printf("\n");
fclose(in);
fclose(out);
frame:
for (i = 0; i < num; i++) {
IOFreeVirtMem(&(framedesc[i]));
IOFreePhyMem(&(framedesc[i]));
}
free(frame);
free(framedesc);
close:
// Close encoder
vpu_EncClose (*handle);
// Free alocated input buffer
IOFreeVirtMem (&bit_stream_buf);
IOFreePhyMem (&bit_stream_buf);
free:
free(encOP);
free(initialInfo);
free(outputInfo);
free(encParam);
free(handle);
return ret;
}
