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android / platform / frameworks / av / dd184a4824acc31160895e2c6f8d93a7facfc2c8 / . / libvideoeditor / vss / mcs / src / M4MCS_API.c
blob: c056ef0a4bb5e4bea436b9e5abb01e955cdc2d8d [file] [log] [blame]
/*
* Copyright (C) 2011 The Android Open Source Project
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
/**
*************************************************************************
* @file M4MCS_API.c
* @brief MCS implementation (Video Compressor Service)
* @note This file implements the API and the processing of the MCS
*************************************************************************
**/
/**
********************************************************************
* Includes
********************************************************************
*/
/**
* OSAL headers */
#include "M4OSA_Memory.h" /**< OSAL memory management */
#include "M4OSA_Debug.h" /**< OSAL debug management */
/* PCM samples */
#include "VideoEditorResampler.h"
/**
* Decoder interface */
#include "M4DECODER_Common.h"
/* Encoder interface*/
#include "M4ENCODER_common.h"
/* Enable for DEBUG logging */
//#define MCS_DUMP_PCM_TO_FILE
#ifdef MCS_DUMP_PCM_TO_FILE
#include <stdio.h>
FILE *file_au_reader = NULL;
FILE *file_pcm_decoder = NULL;
FILE *file_pcm_encoder = NULL;
#endif
/* Core headers */
#include "M4MCS_API.h"
#include "M4MCS_ErrorCodes.h"
#include "M4MCS_InternalTypes.h"
#include "M4MCS_InternalConfig.h"
#include "M4MCS_InternalFunctions.h"
#ifdef M4MCS_SUPPORT_STILL_PICTURE
#include "M4MCS_StillPicture.h"
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
/* Common headers (for aac) */
#include "M4_Common.h"
#include "NXPSW_CompilerSwitches.h"
#ifdef M4VSS_ENABLE_EXTERNAL_DECODERS
#include "M4VD_EXTERNAL_Interface.h"
#endif /* M4VSS_ENABLE_EXTERNAL_DECODERS */
#include "M4AIR_API.h"
#include "OMX_Video.h"
/* Version */
#define M4MCS_VERSION_MAJOR 3
#define M4MCS_VERSION_MINOR 4
#define M4MCS_VERSION_REVISION 3
/**
********************************************************************
* Static local functions
********************************************************************
*/
static M4OSA_ERR M4MCS_intStepSet( M4MCS_InternalContext *pC );
static M4OSA_ERR M4MCS_intPrepareVideoDecoder(
M4MCS_InternalContext *pC );
static M4OSA_ERR M4MCS_intPrepareVideoEncoder(
M4MCS_InternalContext *pC );
static M4OSA_ERR M4MCS_intPrepareAudioProcessing(
M4MCS_InternalContext *pC );
static M4OSA_ERR M4MCS_intPrepareWriter( M4MCS_InternalContext *pC );
static M4OSA_ERR M4MCS_intPrepareAudioBeginCut(
M4MCS_InternalContext *pC );
static M4OSA_ERR M4MCS_intStepEncoding(
M4MCS_InternalContext *pC,
M4OSA_UInt8 *pTranscodedTime );
static M4OSA_ERR M4MCS_intStepBeginVideoJump(
M4MCS_InternalContext *pC );
static M4OSA_ERR M4MCS_intStepBeginVideoDecode(
M4MCS_InternalContext *pC );
static M4OSA_ERR M4MCS_intAudioNullEncoding( M4MCS_InternalContext *pC );
static M4OSA_ERR M4MCS_intAudioTranscoding( M4MCS_InternalContext *pC );
static M4OSA_ERR M4MCS_intVideoNullEncoding( M4MCS_InternalContext *pC );
static M4OSA_ERR M4MCS_intVideoTranscoding( M4MCS_InternalContext *pC );
static M4OSA_ERR M4MCS_intGetInputClipProperties(
M4MCS_InternalContext *pContext );
static M4OSA_UInt32 M4MCS_intGetFrameSize_AMRNB(
M4OSA_MemAddr8 pAudioFrame );
static M4OSA_UInt32 M4MCS_intGetFrameSize_EVRC(
M4OSA_MemAddr8 pAudioFrame );
static M4OSA_ERR M4MCS_intCheckMaxFileSize( M4MCS_Context pContext );
static M4VIDEOEDITING_Bitrate M4MCS_intGetNearestBitrate(
M4OSA_Int32 freebitrate,
M4OSA_Int8 mode );
static M4OSA_ERR M4MCS_intCleanUp_ReadersDecoders(
M4MCS_InternalContext *pC );
static M4OSA_ERR M4MCS_intReallocTemporaryAU(
M4OSA_MemAddr8 *addr,
M4OSA_UInt32 newSize );
static M4OSA_ERR M4MCS_intCheckAndGetCodecProperties(
M4MCS_InternalContext *pC);
static M4OSA_ERR M4MCS_intLimitBitratePerCodecProfileLevel(
M4ENCODER_AdvancedParams* EncParams);
static M4OSA_Int32 M4MCS_intLimitBitrateForH263Enc(M4OSA_Int32 profile,
M4OSA_Int32 level, M4OSA_Int32 bitrate);
static M4OSA_Int32 M4MCS_intLimitBitrateForMpeg4Enc(M4OSA_Int32 profile,
M4OSA_Int32 level, M4OSA_Int32 bitrate);
static M4OSA_Int32 M4MCS_intLimitBitrateForH264Enc(M4OSA_Int32 profile,
M4OSA_Int32 level, M4OSA_Int32 bitrate);
/**
**********************************************************************
* External function used only by VideoEditor and that does not appear
* in the API
**********************************************************************
*/
M4OSA_ERR M4MCS_open_normalMode( M4MCS_Context pContext,
M4OSA_Void *pFileIn,
M4VIDEOEDITING_FileType InputFileType,
M4OSA_Void *pFileOut,
M4OSA_Void *pTempFile );
/* All errors are fatal in the MCS */
#define M4ERR_CHECK_RETURN(err) if(M4NO_ERROR!=err) return err;
/* A define used with SSRC 1.04 and above to avoid taking blocks smaller
* that the minimal block size
*/
#define M4MCS_SSRC_MINBLOCKSIZE 100
static M4OSA_UChar Tab_MCS[8] =
{
17, 5, 3, 3, 1, 1, 1, 1
};
M4OSA_ERR H264MCS_Getinstance( NSWAVC_MCS_t ** instance )
{
NSWAVC_MCS_t *p_bs = M4OSA_NULL;
M4OSA_ERR err = M4NO_ERROR;
p_bs = (NSWAVC_MCS_t *)M4OSA_32bitAlignedMalloc(sizeof(NSWAVC_MCS_t), M4MCS,
(M4OSA_Char *)"NSWAVC_MCS_t");
if( M4OSA_NULL == p_bs )
{
M4OSA_TRACE1_0("H264MCS_Getinstance: allocation error");
return M4ERR_ALLOC;
}
p_bs->prev_frame_num = 0;
p_bs->cur_frame_num = 0;
p_bs->log2_max_frame_num_minus4 = 0;
p_bs->prev_new_frame_num = 0;
p_bs->is_done = 0;
p_bs->is_first = 1;
p_bs->m_pDecoderSpecificInfo = M4OSA_NULL;
p_bs->m_decoderSpecificInfoSize = 0;
p_bs->m_pEncoderSPS = M4OSA_NULL;
p_bs->m_encoderSPSSize = 0;
p_bs->m_pEncoderPPS = M4OSA_NULL;
p_bs->m_encoderPPSSize = 0;
p_bs->m_pFinalDSI = M4OSA_NULL;
p_bs->m_pFinalDSISize = 0;
p_bs->p_clip_sps = M4OSA_NULL;
p_bs->m_encoder_SPS_Cnt = 0;
p_bs->p_clip_pps = M4OSA_NULL;
p_bs->m_encoder_PPS_Cnt = 0;
p_bs->p_encoder_sps = M4OSA_NULL;
p_bs->p_encoder_pps = M4OSA_NULL;
p_bs->encoder_pps.slice_group_id = M4OSA_NULL;
*instance = (NSWAVC_MCS_t *)p_bs;
return err;
}
M4OSA_UInt32 H264MCS_getBits( ComBitStreamMCS_t *p_bs, M4OSA_UInt32 numBits )
{
M4OSA_UInt32 ui32RetBits;
M4OSA_UInt8 *pbs;
M4OSA_Int32 bcnt;
p_bs->i8BitCnt -= numBits;
bcnt = p_bs->i8BitCnt;
/* Measure the quantity of bits to be read in ui32TempBuff */
ui32RetBits = p_bs->ui32TempBuff >> (32 - numBits);
/* Read numBits in ui32TempBuff */
p_bs->ui32TempBuff <<= numBits;
p_bs->bitPos += numBits;
if( bcnt > 24 )
{
return (ui32RetBits);
}
else
{ /* at least one byte can be buffered in ui32TempBuff */
pbs = (M4OSA_UInt8 *)p_bs->pui8BfrPtr;
if( bcnt < (int)(p_bs->numBitsInBuffer - p_bs->bitPos) )
{ /* not enough remaining bits in ui32TempBuff: need to be filled */
do
{
/* On the fly detection of EPB byte */
if( ( *(pbs) == 0x03)
&& (!(( pbs[-1])
| (pbs[-2])))) //(p_bs->ui32LastTwoBytes & 0x0000FFFF) == 0)
{
/* EPB byte found: skip it and update bitPos accordingly */
(pbs)++;
p_bs->bitPos += 8;
}
p_bs->ui32TempBuff |= *(pbs)++ << (24 - bcnt);
bcnt += 8;
} while ( bcnt <= 24 );
p_bs->pui8BfrPtr = (M4OSA_Int8 *)pbs;
p_bs->i8BitCnt = bcnt;
return (ui32RetBits);
}
}
if( p_bs->bitPos <= p_bs->numBitsInBuffer )
{
return (ui32RetBits);
}
else
{
return (0);
}
}
M4OSA_Void H264MCS_flushBits( ComBitStreamMCS_t *p_bs, M4OSA_UInt32 numBits )
{
M4OSA_UInt8 *pbs;
M4OSA_UInt32 bcnt;
p_bs->i8BitCnt -= numBits;
bcnt = p_bs->i8BitCnt;
p_bs->ui32TempBuff <<= numBits;
p_bs->bitPos += numBits;
if( bcnt > 24 )
{
return;
}
else
{ /* at least one byte can be buffered in ui32TempBuff */
pbs = (M4OSA_UInt8 *)p_bs->pui8BfrPtr;
if( bcnt < (p_bs->numBitsInBuffer - p_bs->bitPos) )
{ /* Not enough remaining bits in ui32TempBuff: need to be filled */
do
{
/* On the fly detection of EPB byte */
if( ( *(pbs) == 0x03) && (!(( pbs[-1]) | (pbs[-2]))) )
{ /* JC: EPB byte found: skip it and update bitPos accordingly */
(pbs)++;
p_bs->bitPos += 8;
}
p_bs->ui32TempBuff |= *(pbs)++ << (24 - bcnt);
bcnt += 8;
} while ( bcnt <= 24 );
p_bs->pui8BfrPtr = (M4OSA_Int8 *)pbs;
p_bs->i8BitCnt = bcnt;
}
}
return;
}
M4OSA_UInt32 H264MCS_DecVLCReadExpGolombCode( ComBitStreamMCS_t *p_bs )
{
M4OSA_UInt32 code, l0 = 0, l1;
/* Reading 32 Bits from local cache buffer of Bitstream structure*/
code = p_bs->ui32TempBuff;
/* Checking in first 3 bits*/
if( code >> 29 )
{
l0 = Tab_MCS[(code >> 29)];
code = code >> (32 - l0);
H264MCS_flushBits(p_bs, l0);
}
else
{
if( code )
{
code <<= 3;
for ( l0 = 3; code < 0x80000000; code <<= 1, l0++ );
if( l0 < 16 ) /*all useful bits are inside the 32 bits read */
{
code = code >> (31 - l0);
H264MCS_flushBits(p_bs, 2 * l0 + 1);
}
else
{ /* Read the useful bits in 2 parts */
l1 = ( l0 << 1) - 31;
code >>= l0;
H264MCS_flushBits(p_bs, 32);
code = ( code << l1) | H264MCS_getBits(p_bs, l1);
}
}
else
{
H264MCS_flushBits(p_bs, 32);
if( H264MCS_getBits(p_bs, 1) )
{
/* if number of leading 0's is 32, the only code allowed is 1 followed
by 32 0's */
/*reading 32 more bits from bitstream buffer*/
code = H264MCS_getBits(p_bs, 32);
if( code == 0 )
{
return (code - 1);
}
}
/*if number of leading 0's is >32, then symbol is >32 bits,
which is an error */
//p_bs->state = _BS_ERR;
//p_bs->flags |= _BF_SYM_ERR;
return (0);
}
}
if( 1 ) //(p_bs->state == _BS_OK)
{
return (code - 1);
}
else
{
return (0);
}
}
M4OSA_Int32 H264MCS_DecVLCReadSignedExpGolombCode( ComBitStreamMCS_t *p_bs )
{
M4OSA_Int32 codeNo, ret;
/* read the unsigned code number */
codeNo = H264MCS_DecVLCReadExpGolombCode(p_bs);
/* map to the signed value, if value is odd then it's positive,
if even then it's negative, formula is (-1)^(k+1)*CEIL(k/2) */
ret = (codeNo & 0x01) ? (( codeNo + 1) >> 1) : (( -codeNo) >> 1);
return ret;
}
M4OSA_Void DecBitStreamReset_MCS( ComBitStreamMCS_t *p_bs,
M4OSA_UInt32 bytes_read )
{
p_bs->bitPos = 0;
p_bs->lastTotalBits = 0;
p_bs->numBitsInBuffer = bytes_read << 3;
p_bs->readableBytesInBuffer = bytes_read;
//p_bs->state = M4NO_ERROR;//_BS_OK;
//p_bs->flags = 0;
p_bs->ui32TempBuff = 0;
p_bs->i8BitCnt = 0;
p_bs->pui8BfrPtr = (M4OSA_Int8 *)p_bs->Buffer;
p_bs->ui32LastTwoBytes = 0xFFFFFFFF;
H264MCS_getBits(p_bs, 0);
}
M4OSA_ERR NSWAVCMCS_initBitstream( NSWAVC_bitStream_t_MCS *bS )
{
bS->bitPos = 0;
bS->byteCnt = 0;
bS->currBuff = 0;
bS->prevByte = 0xff;
bS->prevPrevByte = 0xff;
return M4NO_ERROR;
}
M4OSA_ERR NSWAVCMCS_putBits( NSWAVC_bitStream_t_MCS *bS, M4OSA_UInt32 value,
M4OSA_UInt8 length )
{
M4OSA_UInt32 maskedValue = 0, temp = 0;
M4OSA_UInt8 byteOne;
M4OSA_UInt32 len1 = (length == 32) ? 31 : length;
if( !(length) )
{
/* Length = 0, return OK*/
return M4NO_ERROR;
}
maskedValue = (M4OSA_UInt32)(value &(( 1 << len1) - 1));
if( 32 > (length + bS->bitPos) )
{
bS->bitPos += length;
bS->currBuff |= maskedValue << (32 - bS->bitPos);
}
else
{
temp = (( bS->bitPos + length) - 32);
bS->currBuff |= (maskedValue >> (temp));
byteOne =
bS->streamBuffer[bS->byteCnt++] = (M4OSA_UInt8)(bS->currBuff >> 24);
if( (( bS->prevPrevByte
== 0) & (bS->prevByte == 0) & (!(byteOne & 0xFC))) )
{
bS->byteCnt -= 1;
bS->prevPrevByte = bS->streamBuffer[bS->byteCnt++] = 0x03;
bS->prevByte = bS->streamBuffer[bS->byteCnt++] = byteOne;
}
else
{
bS->prevPrevByte = bS->prevByte;
bS->prevByte = byteOne;
}
byteOne = bS->streamBuffer[bS->byteCnt++] =
(M4OSA_UInt8)(( bS->currBuff >> 16) & 0xff);
if( (( bS->prevPrevByte
== 0) & (bS->prevByte == 0) & (!(byteOne & 0xFC))) )
{
bS->byteCnt -= 1;
bS->prevPrevByte = bS->streamBuffer[bS->byteCnt++] = 0x03;
bS->prevByte = bS->streamBuffer[bS->byteCnt++] = byteOne;
}
else
{
bS->prevPrevByte = bS->prevByte;
bS->prevByte = byteOne;
}
byteOne = bS->streamBuffer[bS->byteCnt++] =
(M4OSA_UInt8)(( bS->currBuff >> 8) & 0xff);
if( (( bS->prevPrevByte
== 0) & (bS->prevByte == 0) & (!(byteOne & 0xFC))) )
{
bS->byteCnt -= 1;
bS->prevPrevByte = bS->streamBuffer[bS->byteCnt++] = 0x03;
bS->prevByte = bS->streamBuffer[bS->byteCnt++] = byteOne;
}
else
{
bS->prevPrevByte = bS->prevByte;
bS->prevByte = byteOne;
}
byteOne = bS->streamBuffer[bS->byteCnt++] =
(M4OSA_UInt8)((bS->currBuff) &0xff);
if( (( bS->prevPrevByte
== 0) & (bS->prevByte == 0) & (!(byteOne & 0xFC))) )
{
bS->byteCnt -= 1;
bS->prevPrevByte = bS->streamBuffer[bS->byteCnt++] = 0x03;
bS->prevByte = bS->streamBuffer[bS->byteCnt++] = byteOne;
}
else
{
bS->prevPrevByte = bS->prevByte;
bS->prevByte = byteOne;
}
bS->currBuff = 0;
bS->currBuff |= ( maskedValue &(( 1 << temp) - 1)) << (32 - temp);
bS->bitPos = temp;
}
return M4NO_ERROR;
}
M4OSA_ERR NSWAVCMCS_putBit( NSWAVC_bitStream_t_MCS *bS, M4OSA_UInt32 value )
{
M4OSA_UInt32 maskedValue = 0, temp = 0;
M4OSA_UInt8 byteOne;
maskedValue = (value ? 1 : 0);
if( 32 > (1 + bS->bitPos) )
{
bS->bitPos += 1;
bS->currBuff |= maskedValue << (32 - bS->bitPos);
}
else
{
temp = 0;
bS->currBuff |= (maskedValue);
/* writing it to memory*/
byteOne =
bS->streamBuffer[bS->byteCnt++] =
(M4OSA_UInt8)(bS->currBuff >> 24);
if( (( bS->prevPrevByte
== 0) & (bS->prevByte == 0) & (!(byteOne & 0xFC))) )
{
bS->byteCnt -= 1;
bS->prevPrevByte = bS->streamBuffer[bS->byteCnt++] = 0x03;
bS->prevByte = bS->streamBuffer[bS->byteCnt++] = byteOne;
}
else
{
bS->prevPrevByte = bS->prevByte;
bS->prevByte = byteOne;
}
byteOne = bS->streamBuffer[bS->byteCnt++] =
(M4OSA_UInt8)(( bS->currBuff >> 16) & 0xff);
if( (( bS->prevPrevByte
== 0) & (bS->prevByte == 0) & (!(byteOne & 0xFC))) )
{
bS->byteCnt -= 1;
bS->prevPrevByte = bS->streamBuffer[bS->byteCnt++] = 0x03;
bS->prevByte = bS->streamBuffer[bS->byteCnt++] = byteOne;
}
else
{
bS->prevPrevByte = bS->prevByte;
bS->prevByte = byteOne;
}
byteOne = bS->streamBuffer[bS->byteCnt++] =
(M4OSA_UInt8)(( bS->currBuff >> 8) & 0xff);
if( (( bS->prevPrevByte
== 0) & (bS->prevByte == 0) & (!(byteOne & 0xFC))) )
{
bS->byteCnt -= 1;
bS->prevPrevByte = bS->streamBuffer[bS->byteCnt++] = 0x03;
bS->prevByte = bS->streamBuffer[bS->byteCnt++] = byteOne;
}
else
{
bS->prevPrevByte = bS->prevByte;
bS->prevByte = byteOne;
}
byteOne = bS->streamBuffer[bS->byteCnt++] =
(M4OSA_UInt8)((bS->currBuff) &0xff);
if( (( bS->prevPrevByte
== 0) & (bS->prevByte == 0) & (!(byteOne & 0xFC))) )
{
bS->byteCnt -= 1;
bS->prevPrevByte = bS->streamBuffer[bS->byteCnt++] = 0x03;
bS->prevByte = bS->streamBuffer[bS->byteCnt++] = byteOne;
}
else
{
bS->prevPrevByte = bS->prevByte;
bS->prevByte = byteOne;
}
bS->currBuff = 0;
bS->bitPos = 0;
}
return M4NO_ERROR;
}
M4OSA_Int32 NSWAVCMCS_putRbspTbits( NSWAVC_bitStream_t_MCS *bS )
{
M4OSA_UInt8 trailBits = 0;
M4OSA_UInt8 byteCnt = 0;
trailBits = (M4OSA_UInt8)(bS->bitPos % 8);
/* Already in the byte aligned position,
RBSP trailing bits will be 1000 0000 */
if( 0 == trailBits )
{
trailBits = (1 << 7);
NSWAVCMCS_putBits(bS, trailBits, 8);
}
else
{
trailBits = (8 - trailBits);
NSWAVCMCS_putBit(bS, 1);
trailBits--;
if( trailBits )
{ /* put trailBits times zeros */
NSWAVCMCS_putBits(bS, 0, trailBits);
}
}
/* For writting the currBuff in streamBuff 4byte alignment is required*/
byteCnt = (M4OSA_UInt8)(( bS->bitPos + 4) / 8);
switch( byteCnt )
{
case 1:
bS->streamBuffer[bS->byteCnt++] = (M4OSA_UInt8)(bS->currBuff >> 24);
break;
case 2:
bS->streamBuffer[bS->byteCnt++] = (M4OSA_UInt8)(bS->currBuff >> 24);
bS->streamBuffer[bS->byteCnt++] =
(M4OSA_UInt8)(( bS->currBuff >> 16) & 0xff);
break;
case 3:
bS->streamBuffer[bS->byteCnt++] = (M4OSA_UInt8)(bS->currBuff >> 24);
bS->streamBuffer[bS->byteCnt++] =
(M4OSA_UInt8)(( bS->currBuff >> 16) & 0xff);
bS->streamBuffer[bS->byteCnt++] =
(M4OSA_UInt8)(( bS->currBuff >> 8) & 0xff);
break;
default:
/* It will not come here */
break;
}
// bS->bitPos =0;
// bS->currBuff = 0;
return M4NO_ERROR;
}
M4OSA_ERR NSWAVCMCS_uExpVLC( NSWAVC_bitStream_t_MCS *bS, M4OSA_Int32 codeNum )
{
M4OSA_Int32 loop, temp;
M4OSA_Int32 data = 0;
M4OSA_UInt8 codeLen = 0;
/* The codeNum cannot be less than zero for this ue(v) */
if( codeNum < 0 )
{
return 0;
}
/* Implementation for Encoding of the Table 9-1 in the Standard */
temp = codeNum + 1;
for ( loop = 0; temp != 0; loop++ )
{
temp /= 2;
}
codeLen = (( loop * 2) - 1);
data = codeNum + 1;
NSWAVCMCS_putBits(bS, data, codeLen);
return M4NO_ERROR;
}
M4OSA_ERR NSWAVCMCS_sExpVLC( NSWAVC_bitStream_t_MCS *bS, M4OSA_Int32 codeNum )
{
M4OSA_Int32 loop, temp1, temp2;
M4OSA_Int32 data = 0;
M4OSA_UInt8 codeLen = 0, isPositive = 0;
M4OSA_UInt32 abscodeNum;
if( codeNum > 0 )
{
isPositive = 1;
}
if( codeNum > 0 )
{
abscodeNum = codeNum;
}
else
{
abscodeNum = -codeNum;
}
temp1 = ( ( ( abscodeNum) << 1) - isPositive) + 1;
temp2 = temp1;
for ( loop = 0; loop < 16 && temp2 != 0; loop++ )
{
temp2 /= 2;
}
codeLen = ( loop * 2) - 1;
data = temp1;
NSWAVCMCS_putBits(bS, data, codeLen);
return M4NO_ERROR;
}
M4OSA_ERR H264MCS_ProcessEncodedNALU( M4OSA_Void *ainstance,
M4OSA_UInt8 *inbuff,
M4OSA_Int32 inbuf_size,
M4OSA_UInt8 *outbuff,
M4OSA_Int32 *outbuf_size )
{
ComBitStreamMCS_t *p_bs, bs;
NSWAVC_MCS_t *instance;
M4OSA_UInt8 nalu_info;
M4OSA_Int32 forbidden_bit, nal_ref_idc, nal_unit_type;
M4OSA_Int32 first_mb_in_slice, slice_type, pic_parameter_set_id, frame_num;
M4OSA_Int32 seq_parameter_set_id;
M4OSA_UInt8 temp1, temp2, temp3, temp4;
M4OSA_Int32 temp_frame_num;
M4OSA_Int32 bitstoDiacard, bytes;
M4OSA_UInt32 mask_bits = 0xFFFFFFFF;
M4OSA_Int32 new_bytes, init_bit_pos;
M4OSA_UInt32 nal_size;
M4OSA_UInt32 cnt;
M4OSA_UInt32 outbuffpos = 0;
M4OSA_UInt32 nal_size_low16, nal_size_high16;
M4OSA_UInt32 frame_size = 0;
M4OSA_UInt32 temp = 0;
// StageFright encoder does not provide the size in the first 4 bytes of the AU, add it
M4OSA_Int8 *pTmpBuff1 = M4OSA_NULL;
M4OSA_Int8 *pTmpBuff2 = M4OSA_NULL;
p_bs = &bs;
instance = (NSWAVC_MCS_t *)ainstance;
M4OSA_TRACE1_2(
"In H264MCS_ProcessEncodedNALU with FrameSize = %d inBuf_Size=%d",
frame_size, inbuf_size);
// StageFright codecs may add a start code, make sure it is not present
if( !memcmp((void *)inbuff,
"\x00\x00\x00\x01", 4) )
{
M4OSA_TRACE1_3(
"H264MCS_ProcessNALU ERROR : NALU start code has not been removed %d "
"0x%X 0x%X", inbuf_size, ((M4OSA_UInt32 *)inbuff)[0],
((M4OSA_UInt32 *)inbuff)[1]);
return M4ERR_PARAMETER;
}
// StageFright encoder does not provide the size in the first 4 bytes of the AU, add it
pTmpBuff1 = (M4OSA_Int8 *)M4OSA_32bitAlignedMalloc(inbuf_size + 4, M4MCS,
(M4OSA_Char *)"tmpNALU");
memcpy((void *)(pTmpBuff1 + 4), (void *)inbuff,
inbuf_size);
pTmpBuff1[3] = ( (M4OSA_UInt32)inbuf_size) & 0x000000FF;
pTmpBuff1[2] = ( (M4OSA_UInt32)inbuf_size >> 8) & 0x000000FF;
pTmpBuff1[1] = ( (M4OSA_UInt32)inbuf_size >> 16) & 0x000000FF;
pTmpBuff1[0] = ( (M4OSA_UInt32)inbuf_size >> 24) & 0x000000FF;
pTmpBuff2 = (M4OSA_Int8 *)inbuff;
inbuff = (M4OSA_UInt8 *)pTmpBuff1;
inbuf_size += 4;
// Make sure the available size was set
if( inbuf_size >= *outbuf_size )
{
M4OSA_TRACE1_1(
"!!! H264MCS_ProcessNALU ERROR : specified available size is incorrect %d ",
*outbuf_size);
return M4ERR_PARAMETER;
}
while( (M4OSA_Int32)frame_size < inbuf_size )
{
mask_bits = 0xFFFFFFFF;
p_bs->Buffer = (M4OSA_UInt8 *)(inbuff + frame_size);
// Use unsigned value to fix errors due to bit sign extension, this fix should be generic
nal_size_high16 = ( ( (M4OSA_UInt8 *)p_bs->Buffer)[0] << 8)
+ ((M4OSA_UInt8 *)p_bs->Buffer)[1];
nal_size_low16 = ( ( (M4OSA_UInt8 *)p_bs->Buffer)[2] << 8)
+ ((M4OSA_UInt8 *)p_bs->Buffer)[3];
nalu_info = (unsigned char)p_bs->Buffer[4];
outbuff[outbuffpos] = p_bs->Buffer[4];
p_bs->Buffer = p_bs->Buffer + 5;
p_bs->bitPos = 0;
p_bs->lastTotalBits = 0;
p_bs->numBitsInBuffer = ( inbuf_size - frame_size - 5) << 3;
p_bs->readableBytesInBuffer = inbuf_size - frame_size - 5;
p_bs->ui32TempBuff = 0;
p_bs->i8BitCnt = 0;
p_bs->pui8BfrPtr = (M4OSA_Int8 *)p_bs->Buffer;
p_bs->ui32LastTwoBytes = 0xFFFFFFFF;
H264MCS_getBits(p_bs, 0);
nal_size = ( nal_size_high16 << 16) + nal_size_low16;
frame_size += nal_size + 4;
forbidden_bit = ( nalu_info >> 7) & 1;
nal_ref_idc = ( nalu_info >> 5) & 3;
nal_unit_type = (nalu_info) &0x1f;
NSWAVCMCS_initBitstream(&instance->encbs);
instance->encbs.streamBuffer = outbuff + outbuffpos + 1;
if( nal_unit_type == 8 )
{
M4OSA_TRACE1_0("Error : PPS");
return 0;
}
if( nal_unit_type == 7 )
{
/*SPS Packet */
M4OSA_TRACE1_0("Error : SPS");
return 0;
}
if( (nal_unit_type == 5) )
{
instance->frame_count = 0;
instance->POC_lsb = 0;
}
if( ( nal_unit_type == 1) || (nal_unit_type == 5) )
{
first_mb_in_slice = H264MCS_DecVLCReadExpGolombCode(p_bs);
slice_type = H264MCS_DecVLCReadExpGolombCode(p_bs);
pic_parameter_set_id = H264MCS_DecVLCReadExpGolombCode(p_bs);
/* First MB in slice */
NSWAVCMCS_uExpVLC(&instance->encbs, first_mb_in_slice);
/* Slice Type */
NSWAVCMCS_uExpVLC(&instance->encbs, slice_type);
/* Picture Parameter set Id */
pic_parameter_set_id = instance->encoder_pps.pic_parameter_set_id;
NSWAVCMCS_uExpVLC(&instance->encbs, pic_parameter_set_id);
temp = H264MCS_getBits(p_bs,
instance->encoder_sps.log2_max_frame_num_minus4 + 4);
NSWAVCMCS_putBits(&instance->encbs, instance->frame_count,
instance->clip_sps.log2_max_frame_num_minus4 + 4);
// In Baseline Profile: frame_mbs_only_flag should be ON
if( nal_unit_type == 5 )
{
temp = H264MCS_DecVLCReadExpGolombCode(p_bs);
NSWAVCMCS_uExpVLC(&instance->encbs, temp);
}
if( instance->encoder_sps.pic_order_cnt_type == 0 )
{
temp = H264MCS_getBits(p_bs,
instance->encoder_sps.log2_max_pic_order_cnt_lsb_minus4
+ 4);
// in baseline profile field_pic_flag should be off.
if( instance->encoder_pps.pic_order_present_flag )
{
temp = H264MCS_DecVLCReadSignedExpGolombCode(p_bs);
}
}
if( ( instance->encoder_sps.pic_order_cnt_type == 1)
&& (instance->encoder_sps.delta_pic_order_always_zero_flag) )
{
temp = H264MCS_DecVLCReadSignedExpGolombCode(p_bs);
// in baseline profile field_pic_flag should be off.
if( instance->encoder_pps.pic_order_present_flag )
{
temp = H264MCS_DecVLCReadSignedExpGolombCode(p_bs);
}
}
if( instance->clip_sps.pic_order_cnt_type == 0 )
{
NSWAVCMCS_putBits(&instance->encbs, instance->POC_lsb,
instance->clip_sps.log2_max_pic_order_cnt_lsb_minus4 + 4);
// in baseline profile field_pic_flag should be off.
if( instance->encoder_pps.pic_order_present_flag )
{
NSWAVCMCS_sExpVLC(&instance->encbs, 0);
}
}
if( ( instance->clip_sps.pic_order_cnt_type == 1)
&& (instance->clip_sps.delta_pic_order_always_zero_flag) )
{
NSWAVCMCS_sExpVLC(&instance->encbs, 0);
// in baseline profile field_pic_flag should be off.
if( instance->encoder_pps.pic_order_present_flag )
{
NSWAVCMCS_sExpVLC(&instance->encbs, 0);
}
}
cnt = p_bs->bitPos & 0x7;
if( cnt )
{
cnt = 8 - cnt;
temp = H264MCS_getBits(p_bs, cnt);
NSWAVCMCS_putBits(&instance->encbs, temp, cnt);
}
cnt = p_bs->bitPos >> 3;
while( cnt < (nal_size - 2) )
{
temp = H264MCS_getBits(p_bs, 8);
NSWAVCMCS_putBits(&instance->encbs, temp, 8);
cnt = p_bs->bitPos >> 3;
}
temp = H264MCS_getBits(p_bs, 8);
if( temp != 0 )
{
cnt = 0;
while( ( temp & 0x1) == 0 )
{
cnt++;
temp = temp >> 1;
}
cnt++;
temp = temp >> 1;
if( 8 - cnt )
{
NSWAVCMCS_putBits(&instance->encbs, temp, (8 - cnt));
}
NSWAVCMCS_putRbspTbits(&instance->encbs);
}
else
{
M4OSA_TRACE1_1(
"H264MCS_ProcessEncodedNALU : 13 temp = 0 trailing bits = %d",
instance->encbs.bitPos % 8);
if( instance->encbs.bitPos % 8 )
{
NSWAVCMCS_putBits(&instance->encbs, 0,
(8 - instance->encbs.bitPos % 8));
}
}
temp = instance->encbs.byteCnt;
temp = temp + 1;
outbuffpos = outbuffpos + temp;
}
}
*outbuf_size = outbuffpos;
instance->POC_lsb = instance->POC_lsb + 1;
if( instance->POC_lsb == instance->POC_lsb_mod )
{
instance->POC_lsb = 0;
}
instance->frame_count = instance->frame_count + 1;
if( instance->frame_count == instance->frame_mod_count )
{
instance->frame_count = 0;
}
// StageFright encoder does not provide the size in the first 4 bytes of the AU, add it
free(pTmpBuff1);
pTmpBuff1 = M4OSA_NULL;
inbuff = (M4OSA_UInt8 *)pTmpBuff2;
return M4NO_ERROR;
}
M4OSA_Int32 DecSPSMCS( ComBitStreamMCS_t *p_bs,
ComSequenceParameterSet_t_MCS *sps )
{
M4OSA_UInt32 i;
M4OSA_Int32 temp_max_dpb_size;
M4OSA_Int32 nb_ignore_bits;
M4OSA_Int32 error;
M4OSA_UInt8 profile_idc, level_idc, reserved_zero_4bits,
seq_parameter_set_id;
M4OSA_UInt8 constraint_set0_flag, constraint_set1_flag,
constraint_set2_flag, constraint_set3_flag;
sps->profile_idc = (M4OSA_UInt8)H264MCS_getBits(p_bs, 8);
sps->constraint_set0_flag = (M4OSA_Bool)H264MCS_getBits(p_bs, 1);
sps->constraint_set1_flag = (M4OSA_Bool)H264MCS_getBits(p_bs, 1);
sps->constraint_set2_flag = (M4OSA_Bool)H264MCS_getBits(p_bs, 1);
sps->constraint_set3_flag = (M4OSA_Bool)H264MCS_getBits(p_bs, 1);
reserved_zero_4bits = (M4OSA_UInt8)H264MCS_getBits(p_bs, 4);
sps->level_idc = (M4OSA_UInt8)H264MCS_getBits(p_bs, 8);
sps->seq_parameter_set_id =
(M4OSA_UInt8)H264MCS_DecVLCReadExpGolombCode(p_bs);
sps->log2_max_frame_num_minus4 =
(M4OSA_UInt8)H264MCS_DecVLCReadExpGolombCode(p_bs);
sps->MaxFrameNum = 1 << (sps->log2_max_frame_num_minus4 + 4);
sps->pic_order_cnt_type =
(M4OSA_UInt8)H264MCS_DecVLCReadExpGolombCode(p_bs);
if (sps->pic_order_cnt_type == 0)
{
sps->log2_max_pic_order_cnt_lsb_minus4 =
(M4OSA_UInt8)H264MCS_DecVLCReadExpGolombCode(p_bs);
sps->MaxPicOrderCntLsb =
1 << (sps->log2_max_pic_order_cnt_lsb_minus4 + 4);
}
else if( sps->pic_order_cnt_type == 1 )
{
sps->delta_pic_order_always_zero_flag =
(M4OSA_Bool)H264MCS_getBits(p_bs, 1);
// This fix should be generic to remove codec dependency
sps->offset_for_non_ref_pic =
H264MCS_DecVLCReadSignedExpGolombCode(p_bs);
sps->offset_for_top_to_bottom_field =
H264MCS_DecVLCReadSignedExpGolombCode(p_bs);
/*num_ref_frames_in_pic_order_cnt_cycle must be in the range 0, 255*/
sps->num_ref_frames_in_pic_order_cnt_cycle =
(M4OSA_UInt8)H264MCS_DecVLCReadExpGolombCode(p_bs);
/* compute deltaPOC */
sps->expectedDeltaPerPicOrderCntCycle = 0;
for ( i = 0; i < sps->num_ref_frames_in_pic_order_cnt_cycle; i++ )
{
// This fix should be generic to remove codec dependency
sps->offset_for_ref_frame[i] =
H264MCS_DecVLCReadSignedExpGolombCode(p_bs);
sps->expectedDeltaPerPicOrderCntCycle +=
sps->offset_for_ref_frame[i];
}
}
/* num_ref_frames must be in the range 0,16 */
sps->num_ref_frames = (M4OSA_UInt8)H264MCS_DecVLCReadExpGolombCode(p_bs);
sps->gaps_in_frame_num_value_allowed_flag =
(M4OSA_Bool)H264MCS_getBits(p_bs, 1);
sps->pic_width_in_mbs_minus1 =
(M4OSA_UInt16)H264MCS_DecVLCReadExpGolombCode(p_bs);
sps->pic_height_in_map_units_minus1 =
(M4OSA_UInt16)H264MCS_DecVLCReadExpGolombCode(p_bs);
sps->frame_mbs_only_flag = (M4OSA_Bool)H264MCS_getBits(p_bs, 1);
if (!sps->frame_mbs_only_flag)
{
sps->mb_adaptive_frame_field_flag =
(M4OSA_Bool)H264MCS_getBits(p_bs, 1);
}
else
{
sps->mb_adaptive_frame_field_flag = 0;
}
sps->PicWidthInMbs = sps->pic_width_in_mbs_minus1 + 1;
sps->FrameHeightInMbs = ( 2 - sps->frame_mbs_only_flag) * \
(sps->pic_height_in_map_units_minus1 + 1);
#ifdef _CAP_FMO_
sps->NumSliceGroupMapUnits =
sps->PicWidthInMbs * (sps->pic_height_in_map_units_minus1 + 1);
sps->MaxPicSizeInMbs = sps->PicWidthInMbs * sps->FrameHeightInMbs;
#endif /*_CAP_FMO_*/
sps->direct_8x8_inference_flag = (M4OSA_Bool)H264MCS_getBits(p_bs, 1);
if( sps->frame_mbs_only_flag == 0 )
sps->direct_8x8_inference_flag = 1;
sps->frame_cropping_flag = (M4OSA_Bool)H264MCS_getBits(p_bs, 1);
if( sps->frame_cropping_flag )
{
sps->frame_crop_left_offset = H264MCS_DecVLCReadExpGolombCode(p_bs);
sps->frame_crop_right_offset = H264MCS_DecVLCReadExpGolombCode(p_bs);
sps->frame_crop_top_offset = H264MCS_DecVLCReadExpGolombCode(p_bs);
sps->frame_crop_bottom_offset = H264MCS_DecVLCReadExpGolombCode(p_bs);
}
else
{
sps->frame_crop_left_offset = 0;
sps->frame_crop_right_offset = 0;
sps->frame_crop_top_offset = 0;
sps->frame_crop_bottom_offset = 0;
}
sps->vui_parameters_present_flag = (M4OSA_Bool)H264MCS_getBits(p_bs, 1);
if (sps->vui_parameters_present_flag) {
/* no error message as stream can be decoded without VUI messages */
}
return M4NO_ERROR;
}
M4OSA_Int32 DecPPSMCS( ComBitStreamMCS_t *p_bs,
ComPictureParameterSet_t_MCS *pps )
{
M4OSA_Int32 error;
M4OSA_UInt32 pic_parameter_set_id;
#ifdef _CAP_FMO_
M4OSA_UInt32 i, length, v;
#endif
M4OSA_Int32 nb_ignore_bits;
pic_parameter_set_id = H264MCS_DecVLCReadExpGolombCode(p_bs);
pps->pic_parameter_set_id = (M4OSA_UInt8)pic_parameter_set_id;
pps->seq_parameter_set_id =
(M4OSA_UInt8)H264MCS_DecVLCReadExpGolombCode(p_bs);
/* entropy_coding_mode_flag must be 0 or 1 */
pps->entropy_coding_mode_flag = (M4OSA_Bool)H264MCS_getBits(p_bs, 1);
pps->pic_order_present_flag = (M4OSA_Bool)H264MCS_getBits(p_bs, 1);
pps->num_slice_groups_minus1 =
(M4OSA_UInt8)H264MCS_DecVLCReadExpGolombCode(p_bs);
#ifdef _CAP_FMO_
/* FMO stuff begins here */
pps->map_initialized = FALSE;
if( pps->num_slice_groups_minus1 > 0 )
{
pps->slice_group_map_type =
(M4OSA_UInt8)H264MCS_DecVLCReadExpGolombCode(p_bs);
switch( pps->slice_group_map_type )
{
case 0:
for ( i = 0; i <= pps->num_slice_groups_minus1; i++ )
{
pps->run_length_minus1[i] =
(M4OSA_UInt16)H264MCS_DecVLCReadExpGolombCode(p_bs);
}
break;
case 2:
for ( i = 0; i < pps->num_slice_groups_minus1; i++ )
{
pps->top_left[i] =
(M4OSA_UInt16)H264MCS_DecVLCReadExpGolombCode(p_bs);
pps->bottom_right[i] =
(M4OSA_UInt16)H264MCS_DecVLCReadExpGolombCode(p_bs);
}
break;
case 3:
case 4:
case 5:
pps->slice_group_change_direction_flag =
(M4OSA_Bool)H264MCS_getBits(p_bs, 1);
pps->slice_group_change_rate_minus1 =
(M4OSA_UInt16)H264MCS_DecVLCReadExpGolombCode(p_bs);
break;
case 6:
pps->pic_size_in_map_units_minus1 =
(M4OSA_UInt16)H264MCS_DecVLCReadExpGolombCode(p_bs);
pps->slice_group_id = (H264UInt8
*)M4H264Dec_malloc((pps->pic_size_in_map_units_minus1
+ 1), M4H264_COREID, (M4OSA_Char *)"PPS");
if (M4OSA_NULL == pps->slice_group_id)
{
M4OSA_TRACE1_0("DecPPSMCS: allocation error");
return M4ERR_ALLOC;
}
for ( length = 0, v = pps->num_slice_groups_minus1 + 1; v != 0;
v >>= 1, length++ );
for ( i = 0; i <= pps->pic_size_in_map_units_minus1; i++ )
{
pps->slice_group_id[i] =
(M4OSA_UInt8)getBits(p_vlc_engine->p_bs, length);
}
break;
}
}
else
{
pps->slice_group_map_type = 0;
}
/* End of FMO stuff */
#else
#endif /* _CAP_FMO_ */
/* num_ref_idx_l0_active_minus1 must be in the range 0, 31 */
pps->num_ref_idx_l0_active_minus1 =
(M4OSA_UInt8)H264MCS_DecVLCReadExpGolombCode(p_bs);
/* num_ref_idx_l1_active_minus1 must be in the range 0, 31 */
pps->num_ref_idx_l1_active_minus1 =
(M4OSA_UInt8)H264MCS_DecVLCReadExpGolombCode(p_bs);
pps->weighted_pred_flag = (M4OSA_Bool)H264MCS_getBits(p_bs, 1);
/* weighted_bipred_idc must be in the range 0,2 */
pps->weighted_bipred_idc = (M4OSA_Bool)H264MCS_getBits(p_bs, 2);
/* pic_init_qp_minus26 must be in the range -26,25 */
pps->pic_init_qp_minus26 =
(M4OSA_Int16)H264MCS_DecVLCReadSignedExpGolombCode(p_bs);
/* pic_init_qs_minus26 must be in the range -26,25 */
pps->pic_init_qs_minus26 =
(M4OSA_Int16)H264MCS_DecVLCReadSignedExpGolombCode(p_bs);
/* chroma_qp_index_offset must be in the range -12,+12 */
pps->chroma_qp_index_offset =
(M4OSA_Int16)H264MCS_DecVLCReadSignedExpGolombCode(p_bs);
pps->deblocking_filter_control_present_flag =
(M4OSA_Bool)H264MCS_getBits(p_bs, 1);
pps->constrained_intra_pred_flag = (M4OSA_Bool)H264MCS_getBits(p_bs, 1);
pps->redundant_pic_cnt_present_flag = (M4OSA_Bool)H264MCS_getBits(p_bs, 1);
return M4NO_ERROR;
}
M4OSA_ERR H264MCS_ProcessSPS_PPS( NSWAVC_MCS_t *instance, M4OSA_UInt8 *inbuff,
M4OSA_Int32 inbuf_size )
{
ComBitStreamMCS_t *p_bs, bs;
ComBitStreamMCS_t *p_bs1, bs1;
M4OSA_UInt8 nalu_info = 0;
M4OSA_Int32 forbidden_bit, nal_ref_idc, nal_unit_type;
M4OSA_Int32 first_mb_in_slice, slice_type, pic_parameter_set_id = 0,
frame_num;
M4OSA_Int32 seq_parameter_set_id;
M4OSA_UInt8 temp1, temp2, temp3, temp4;
M4OSA_Int32 temp_frame_num;
M4OSA_Int32 bitstoDiacard, bytes;
M4OSA_UInt32 mask_bits = 0xFFFFFFFF;
M4OSA_Int32 new_bytes, init_bit_pos;
M4OSA_UInt32 nal_size = 0;
M4OSA_UInt32 cnt, cnt1;
M4OSA_UInt32 outbuffpos = 0;
M4OSA_UInt32 nal_size_low16, nal_size_high16;
M4OSA_UInt32 frame_size = 0;
M4OSA_UInt32 temp = 0;
M4OSA_UInt8 *lClipDSI;
M4OSA_UInt8 *lClipDSI_PPS_start;
M4OSA_UInt32 lClipDSI_PPS_offset = 0;
M4OSA_UInt8 *lPPS_Buffer = M4OSA_NULL;
M4OSA_UInt32 lPPS_Buffer_Size = 0;
M4OSA_UInt32 lSize, lSize1;
M4OSA_UInt32 lActiveSPSID_Clip;
M4OSA_UInt32 lClipPPSRemBits = 0;
M4OSA_UInt32 lEncoder_SPSID = 0;
M4OSA_UInt32 lEncoder_PPSID = 0;
M4OSA_UInt32 lEncoderPPSRemBits = 0;
M4OSA_UInt32 lFound = 0;
M4OSA_UInt32 size;
M4OSA_UInt8 Clip_SPSID[32] = { 0 };
M4OSA_UInt8 Clip_UsedSPSID[32] = { 0 };
M4OSA_UInt8 Clip_PPSID[256] = { 0 };
M4OSA_UInt8 Clip_SPSID_in_PPS[256] = { 0 };
M4OSA_UInt8 Clip_UsedPPSID[256] = { 0 };
M4OSA_ERR err = M4NO_ERROR;
p_bs = &bs;
p_bs1 = &bs1;
/* Find the active SPS ID */
M4OSA_DEBUG_IF2((M4OSA_NULL == instance), M4ERR_PARAMETER,
"H264MCS_ProcessSPS_PPS: instance is M4OSA_NULL");
instance->m_Num_Bytes_NALUnitLength =
(instance->m_pDecoderSpecificInfo[4] & 0x03) + 1;
instance->m_encoder_SPS_Cnt = instance->m_pDecoderSpecificInfo[5] & 0x1F;
lClipDSI = instance->m_pDecoderSpecificInfo + 6;
lClipDSI_PPS_offset = 6;
for ( cnt = 0; cnt < instance->m_encoder_SPS_Cnt; cnt++ )
{
lSize = ( lClipDSI[0] << 8) + lClipDSI[1];
lClipDSI = lClipDSI + 2;
p_bs->Buffer = (M4OSA_UInt8 *)(lClipDSI + 4);
DecBitStreamReset_MCS(p_bs, lSize - 4);
Clip_SPSID[cnt] = H264MCS_DecVLCReadExpGolombCode(p_bs);
Clip_UsedSPSID[Clip_SPSID[cnt]] = 1;
lClipDSI = lClipDSI + lSize;
lClipDSI_PPS_offset = lClipDSI_PPS_offset + 2 + lSize;
}
instance->m_encoder_PPS_Cnt = lClipDSI[0];
lClipDSI = lClipDSI + 1;
lClipDSI_PPS_start = lClipDSI;
for ( cnt = 0; cnt < instance->m_encoder_PPS_Cnt; cnt++ )
{
lSize = ( lClipDSI[0] << 8) + lClipDSI[1];
lClipDSI = lClipDSI + 2;
p_bs->Buffer = (M4OSA_UInt8 *)(lClipDSI + 1);
DecBitStreamReset_MCS(p_bs, lSize - 1);
Clip_PPSID[cnt] = H264MCS_DecVLCReadExpGolombCode(p_bs);
Clip_UsedPPSID[Clip_PPSID[cnt]] = 1;
Clip_SPSID_in_PPS[Clip_PPSID[cnt]] =
H264MCS_DecVLCReadExpGolombCode(p_bs);
lClipDSI = lClipDSI + lSize;
}
/* Find the clip SPS ID used at the cut start frame */
while( ( (M4OSA_Int32)frame_size) < inbuf_size )
{
mask_bits = 0xFFFFFFFF;
p_bs->Buffer = (M4OSA_UInt8 *)(inbuff + frame_size);
switch( instance->m_Num_Bytes_NALUnitLength )
{
case 1:
nal_size = (unsigned char)p_bs->Buffer[0];
nalu_info = (unsigned char)p_bs->Buffer[1];
p_bs->Buffer = p_bs->Buffer + 2;
break;
case 2:
nal_size_high16 = ( p_bs->Buffer[0] << 8) + p_bs->Buffer[1];
nal_size = nal_size_high16;
nalu_info = (unsigned char)p_bs->Buffer[2];
p_bs->Buffer = p_bs->Buffer + 3;
break;
case 4:
nal_size_high16 = ( p_bs->Buffer[0] << 8) + p_bs->Buffer[1];
nal_size_low16 = ( p_bs->Buffer[2] << 8) + p_bs->Buffer[3];
nal_size = ( nal_size_high16 << 16) + nal_size_low16;
nalu_info = (unsigned char)p_bs->Buffer[4];
p_bs->Buffer = p_bs->Buffer + 5;
break;
}
if (nal_size == 0) {
M4OSA_TRACE1_1("0 size nal unit at line %d", __LINE__);
frame_size += instance->m_Num_Bytes_NALUnitLength;
continue;
}
p_bs->bitPos = 0;
p_bs->lastTotalBits = 0;
p_bs->numBitsInBuffer =
( inbuf_size - frame_size - instance->m_Num_Bytes_NALUnitLength - 1)
<< 3;
p_bs->readableBytesInBuffer =
inbuf_size - frame_size - instance->m_Num_Bytes_NALUnitLength - 1;
p_bs->ui32TempBuff = 0;
p_bs->i8BitCnt = 0;
p_bs->pui8BfrPtr = (M4OSA_Int8 *)p_bs->Buffer;
p_bs->ui32LastTwoBytes = 0xFFFFFFFF;
H264MCS_getBits(p_bs, 0);
frame_size += nal_size + instance->m_Num_Bytes_NALUnitLength;
forbidden_bit = ( nalu_info >> 7) & 1;
nal_ref_idc = ( nalu_info >> 5) & 3;
nal_unit_type = (nalu_info) &0x1f;
if( nal_unit_type == 8 )
{
M4OSA_TRACE1_0("H264MCS_ProcessSPS_PPS() Error: PPS");
return err;
}
if( nal_unit_type == 7 )
{
/*SPS Packet */
M4OSA_TRACE1_0("H264MCS_ProcessSPS_PPS() Error: SPS");
return err;
}
if( ( nal_unit_type == 1) || (nal_unit_type == 5) )
{
first_mb_in_slice = H264MCS_DecVLCReadExpGolombCode(p_bs);
slice_type = H264MCS_DecVLCReadExpGolombCode(p_bs);
pic_parameter_set_id = H264MCS_DecVLCReadExpGolombCode(p_bs);
break;
}
}
lActiveSPSID_Clip = Clip_SPSID_in_PPS[pic_parameter_set_id];
instance->final_SPS_ID = lActiveSPSID_Clip;
/* Do we need to add encoder PPS to clip PPS */
lClipDSI = lClipDSI_PPS_start;
for ( cnt = 0; cnt < instance->m_encoder_PPS_Cnt; cnt++ )
{
lSize = ( lClipDSI[0] << 8) + lClipDSI[1];
lClipDSI = lClipDSI + 2;
if( lActiveSPSID_Clip == Clip_SPSID_in_PPS[Clip_PPSID[cnt]] )
{
lPPS_Buffer = lClipDSI + 1;
lPPS_Buffer_Size = lSize - 1;
p_bs->Buffer = (M4OSA_UInt8 *)(lClipDSI + 1);
DecBitStreamReset_MCS(p_bs, lSize - 1);
Clip_PPSID[cnt] = H264MCS_DecVLCReadExpGolombCode(p_bs);
Clip_UsedPPSID[Clip_SPSID[cnt]] = 1;
Clip_SPSID_in_PPS[cnt] = H264MCS_DecVLCReadExpGolombCode(p_bs);
lClipPPSRemBits = ( lSize - 1) << 3;
lClipPPSRemBits -= p_bs->bitPos;
temp = lClipDSI[lSize - 1];
cnt1 = 0;
while( ( temp & 0x1) == 0 )
{
cnt1++;
temp = temp >> 1;
}
cnt1++;
lClipPPSRemBits -= cnt1;
lSize1 = instance->m_encoderPPSSize - 1;
p_bs1->Buffer = (M4OSA_UInt8 *)(instance->m_pEncoderPPS + 1);
DecBitStreamReset_MCS(p_bs1, lSize1);
lEncoder_PPSID = H264MCS_DecVLCReadExpGolombCode(p_bs1);
lEncoder_SPSID = H264MCS_DecVLCReadExpGolombCode(p_bs1);
lEncoderPPSRemBits = ( lSize1) << 3;
lEncoderPPSRemBits -= p_bs1->bitPos;
temp = instance->m_pEncoderPPS[lSize1];
cnt1 = 0;
while( ( temp & 0x1) == 0 )
{
cnt1++;
temp = temp >> 1;
}
cnt1++;
lEncoderPPSRemBits -= cnt1;
if( lEncoderPPSRemBits == lClipPPSRemBits )
{
while( lEncoderPPSRemBits > 8 )
{
temp1 = H264MCS_getBits(p_bs, 8);
temp2 = H264MCS_getBits(p_bs1, 8);
lEncoderPPSRemBits = lEncoderPPSRemBits - 8;
if( temp1 != temp2 )
{
break;
}
}
if( lEncoderPPSRemBits < 8 )
{
if( lEncoderPPSRemBits )
{
temp1 = H264MCS_getBits(p_bs, lEncoderPPSRemBits);
temp2 = H264MCS_getBits(p_bs1, lEncoderPPSRemBits);
if( temp1 == temp2 )
{
lFound = 1;
}
}
else
{
lFound = 1;
}
}
break;
}
}
lClipDSI = lClipDSI + lSize;
}
/* Form the final SPS and PPS data */
if( lFound == 1 )
{
/* No need to add PPS */
instance->final_PPS_ID = Clip_PPSID[cnt];
instance->m_pFinalDSI =
(M4OSA_UInt8 *)M4OSA_32bitAlignedMalloc(instance->m_decoderSpecificInfoSize,
M4MCS, (M4OSA_Char *)"instance->m_pFinalDSI");
if( instance->m_pFinalDSI == M4OSA_NULL )
{
M4OSA_TRACE1_0("instance->m_pFinalDSI: allocation error");
return M4ERR_ALLOC;
}
instance->m_pFinalDSISize = instance->m_decoderSpecificInfoSize;
memcpy((void *)instance->m_pFinalDSI,
(void *)instance->m_pDecoderSpecificInfo,
instance->m_decoderSpecificInfoSize);
}
else
{
/* ADD PPS */
/* find the free PPS ID */
cnt = 0;
while( Clip_UsedPPSID[cnt] )
{
cnt++;
}
instance->final_PPS_ID = cnt;
size = instance->m_decoderSpecificInfoSize + instance->m_encoderPPSSize
+ 10;
instance->m_pFinalDSI = (M4OSA_UInt8 *)M4OSA_32bitAlignedMalloc(size, M4MCS,
(M4OSA_Char *)"instance->m_pFinalDSI");
if( instance->m_pFinalDSI == M4OSA_NULL )
{
M4OSA_TRACE1_0("instance->m_pFinalDSI: allocation error");
return M4ERR_ALLOC;
}
memcpy((void *)instance->m_pFinalDSI,
(void *)instance->m_pDecoderSpecificInfo,
instance->m_decoderSpecificInfoSize);
temp = instance->m_pFinalDSI[lClipDSI_PPS_offset];
temp = temp + 1;
instance->m_pFinalDSI[lClipDSI_PPS_offset] = temp;
//temp = instance->m_pEncoderPPS[0];
lSize1 = instance->m_encoderPPSSize - 1;
p_bs1->Buffer = (M4OSA_UInt8 *)(instance->m_pEncoderPPS + 1);
DecBitStreamReset_MCS(p_bs1, lSize1);
lEncoder_PPSID = H264MCS_DecVLCReadExpGolombCode(p_bs1);
lEncoder_SPSID = H264MCS_DecVLCReadExpGolombCode(p_bs1);
lEncoderPPSRemBits = ( lSize1) << 3;
lEncoderPPSRemBits -= p_bs1->bitPos;
temp = instance->m_pEncoderPPS[lSize1];
cnt1 = 0;
while( ( temp & 0x1) == 0 )
{
cnt1++;
temp = temp >> 1;
}
cnt1++;
lEncoderPPSRemBits -= cnt1;
instance->m_pFinalDSI[instance->m_decoderSpecificInfoSize + 2] =
instance->m_pEncoderPPS[0];
NSWAVCMCS_initBitstream(&instance->encbs);
instance->encbs.streamBuffer =
&(instance->m_pFinalDSI[instance->m_decoderSpecificInfoSize + 3]);
lPPS_Buffer = instance->encbs.streamBuffer;
NSWAVCMCS_uExpVLC(&instance->encbs, instance->final_PPS_ID);
NSWAVCMCS_uExpVLC(&instance->encbs, instance->final_SPS_ID);
while( lEncoderPPSRemBits > 8 )
{
temp = H264MCS_getBits(p_bs1, 8);
NSWAVCMCS_putBits(&instance->encbs, temp, 8);
lEncoderPPSRemBits = lEncoderPPSRemBits - 8;
}
if( lEncoderPPSRemBits )
{
temp = H264MCS_getBits(p_bs1, lEncoderPPSRemBits);
NSWAVCMCS_putBits(&instance->encbs, temp, lEncoderPPSRemBits);
}
NSWAVCMCS_putRbspTbits(&instance->encbs);
temp = instance->encbs.byteCnt;
lPPS_Buffer_Size = temp;
temp = temp + 1;
instance->m_pFinalDSI[instance->m_decoderSpecificInfoSize] =
( temp >> 8) & 0xFF;
instance->m_pFinalDSI[instance->m_decoderSpecificInfoSize + 1] =
(temp) &0xFF;
instance->m_pFinalDSISize =
instance->m_decoderSpecificInfoSize + 2 + temp;
}
/* Decode the clip SPS */
lClipDSI = instance->m_pDecoderSpecificInfo + 6;
lClipDSI_PPS_offset = 6;
for ( cnt = 0; cnt < instance->m_encoder_SPS_Cnt; cnt++ )
{
lSize = ( lClipDSI[0] << 8) + lClipDSI[1];
lClipDSI = lClipDSI + 2;
if( Clip_SPSID[cnt] == instance->final_SPS_ID )
{
p_bs->Buffer = (M4OSA_UInt8 *)(lClipDSI + 1);
DecBitStreamReset_MCS(p_bs, lSize - 1);
err = DecSPSMCS(p_bs, &instance->clip_sps);
if(err != M4NO_ERROR) {
return M4ERR_PARAMETER;
}
//Clip_SPSID[cnt] = H264MCS_DecVLCReadExpGolombCode(p_bs);
//Clip_UsedSPSID[Clip_SPSID[cnt]] = 1;
break;
}
lClipDSI = lClipDSI + lSize;
}
/* Decode encoder SPS */
p_bs->Buffer = (M4OSA_UInt8 *)(instance->m_pEncoderSPS + 1);
DecBitStreamReset_MCS(p_bs, instance->m_encoderSPSSize - 1);
err = DecSPSMCS(p_bs, &instance->encoder_sps);
if(err != M4NO_ERROR) {
return M4ERR_PARAMETER;
}
if( instance->encoder_sps.num_ref_frames
> instance->clip_sps.num_ref_frames )
{
return 100; //not supported
}
p_bs->Buffer = (M4OSA_UInt8 *)lPPS_Buffer;
DecBitStreamReset_MCS(p_bs, lPPS_Buffer_Size);
DecPPSMCS(p_bs, &instance->encoder_pps);
instance->frame_count = 0;
instance->frame_mod_count =
1 << (instance->clip_sps.log2_max_frame_num_minus4 + 4);
instance->POC_lsb = 0;
instance->POC_lsb_mod =
1 << (instance->clip_sps.log2_max_pic_order_cnt_lsb_minus4 + 4);
return M4NO_ERROR;
}
M4OSA_ERR H264MCS_ProcessNALU( NSWAVC_MCS_t *ainstance, M4OSA_UInt8 *inbuff,
M4OSA_Int32 inbuf_size, M4OSA_UInt8 *outbuff,
M4OSA_Int32 *outbuf_size )
{
ComBitStreamMCS_t *p_bs, bs;
NSWAVC_MCS_t *instance;
M4OSA_UInt8 nalu_info;
M4OSA_Int32 forbidden_bit, nal_ref_idc, nal_unit_type;
M4OSA_Int32 first_mb_in_slice, slice_type, pic_parameter_set_id, frame_num;
M4OSA_Int32 seq_parameter_set_id;
M4OSA_UInt8 temp1, temp2, temp3, temp4;
M4OSA_Int32 temp_frame_num;
M4OSA_Int32 bitstoDiacard, bytes;
M4OSA_UInt32 mask_bits = 0xFFFFFFFF;
M4OSA_Int32 new_bytes, init_bit_pos;
M4OSA_UInt32 nal_size;
M4OSA_UInt32 cnt;
M4OSA_UInt32 outbuffpos = 0;
//#ifndef DGR_FIX // + new
M4OSA_UInt32 nal_size_low16, nal_size_high16;
//#endif // + end new
M4OSA_UInt32 frame_size = 0;
M4OSA_UInt32 temp = 0;
M4OSA_ERR err = M4NO_ERROR;
M4OSA_UInt8 *buff;
p_bs = &bs;
instance = (NSWAVC_MCS_t *)ainstance;
M4OSA_DEBUG_IF2((M4OSA_NULL == instance), M4ERR_PARAMETER,
"H264MCS_ProcessNALU: instance is M4OSA_NULL");
if( instance->is_done )
return err;
inbuff[0] = 0x00;
inbuff[1] = 0x00;
inbuff[2] = 0x00;
inbuff[3] = 0x01;
while( (M4OSA_Int32)frame_size < inbuf_size )
{
mask_bits = 0xFFFFFFFF;
p_bs->Buffer = (M4OSA_UInt8 *)(inbuff + frame_size);
nalu_info = (unsigned char)p_bs->Buffer[4];
outbuff[outbuffpos] = p_bs->Buffer[0];
outbuff[outbuffpos + 1] = p_bs->Buffer[1];
outbuff[outbuffpos + 2] = p_bs->Buffer[2];
outbuff[outbuffpos + 3] = p_bs->Buffer[3];
outbuff[outbuffpos + 4] = p_bs->Buffer[4];
p_bs->Buffer = p_bs->Buffer + 5;
p_bs->bitPos = 0;
p_bs->lastTotalBits = 0;
p_bs->numBitsInBuffer = ( inbuf_size - frame_size - 5) << 3;
p_bs->readableBytesInBuffer = inbuf_size - frame_size - 5;
p_bs->ui32TempBuff = 0;
p_bs->i8BitCnt = 0;
p_bs->pui8BfrPtr = (M4OSA_Int8 *)p_bs->Buffer;
p_bs->ui32LastTwoBytes = 0xFFFFFFFF;
H264MCS_getBits(p_bs, 0);
nal_size = inbuf_size - frame_size - 4;
buff = inbuff + frame_size + 4;
while( nal_size > 4 )
{
if( ( buff[0] == 0x00) && (buff[1] == 0x00) && (buff[2] == 0x00)
&& (buff[3] == 0x01) )
{
break;
}
buff = buff + 1;
nal_size = nal_size - 1;
}
if( nal_size <= 4 )
{
nal_size = 0;
}
nal_size = ( inbuf_size - frame_size - 4) - nal_size;
// M4OSA_TRACE1_3("H264MCS_ProcessNALU frame input buff size = %d current position
//= %d nal size = %d",
// inbuf_size, frame_size, nal_size + 4);
frame_size += nal_size + 4;
forbidden_bit = ( nalu_info >> 7) & 1;
nal_ref_idc = ( nalu_info >> 5) & 3;
nal_unit_type = (nalu_info) &0x1f;
if( nal_unit_type == 5 )
{
/*IDR/PPS Packet - Do nothing*/
instance->is_done = 1;
return err;
}
NSWAVCMCS_initBitstream(&instance->encbs);
instance->encbs.streamBuffer = outbuff + outbuffpos + 5;
if( nal_unit_type == 8 )
{
M4OSA_TRACE1_0("H264MCS_ProcessNALU() Error: PPS");
return err;
}
if( nal_unit_type == 7 )
{
/*SPS Packet */
M4OSA_TRACE1_0("H264MCS_ProcessNALU() Error: SPS");
return 0;
}
if( (nal_unit_type == 5) )
{
instance->frame_count = 0;
instance->POC_lsb = 0;
}
if( (nal_unit_type == 1) )
{
first_mb_in_slice = H264MCS_DecVLCReadExpGolombCode(p_bs);
NSWAVCMCS_uExpVLC(&instance->encbs, first_mb_in_slice);
slice_type = H264MCS_DecVLCReadExpGolombCode(p_bs);
NSWAVCMCS_uExpVLC(&instance->encbs, slice_type);
pic_parameter_set_id = H264MCS_DecVLCReadExpGolombCode(p_bs);
NSWAVCMCS_uExpVLC(&instance->encbs, pic_parameter_set_id);
temp = H264MCS_getBits(p_bs,
instance->clip_sps.log2_max_frame_num_minus4 + 4);
NSWAVCMCS_putBits(&instance->encbs, instance->frame_count,
instance->clip_sps.log2_max_frame_num_minus4 + 4);
// In Baseline Profile: frame_mbs_only_flag should be ON
if( nal_unit_type == 5 )
{
temp = H264MCS_DecVLCReadExpGolombCode(p_bs);
NSWAVCMCS_uExpVLC(&instance->encbs, temp);
}
if( instance->clip_sps.pic_order_cnt_type == 0 )
{
temp = H264MCS_getBits(p_bs,
instance->clip_sps.log2_max_pic_order_cnt_lsb_minus4
+ 4);
NSWAVCMCS_putBits(&instance->encbs, instance->POC_lsb,
instance->clip_sps.log2_max_pic_order_cnt_lsb_minus4 + 4);
}
if( ( instance->clip_sps.pic_order_cnt_type == 1)
&& (instance->clip_sps.delta_pic_order_always_zero_flag) )
{
temp = H264MCS_DecVLCReadSignedExpGolombCode(p_bs);
NSWAVCMCS_sExpVLC(&instance->encbs, temp);
}
cnt = p_bs->bitPos & 0x7;
if( cnt )
{
cnt = 8 - cnt;
temp = H264MCS_getBits(p_bs, cnt);
NSWAVCMCS_putBits(&instance->encbs, temp, cnt);
}
cnt = p_bs->bitPos >> 3;
while( cnt < (nal_size - 2) )
{
temp = H264MCS_getBits(p_bs, 8);
NSWAVCMCS_putBits(&instance->encbs, temp, 8);
cnt = p_bs->bitPos >> 3;
}
temp = H264MCS_getBits(p_bs, 8);
if( temp != 0 )
{
cnt = 0;
while( ( temp & 0x1) == 0 )
{
cnt++;
temp = temp >> 1;
}
cnt++;
temp = temp >> 1;
if( 8 - cnt )
{
NSWAVCMCS_putBits(&instance->encbs, temp, (8 - cnt));
}
NSWAVCMCS_putRbspTbits(&instance->encbs);
}
else
{
if( instance->encbs.bitPos % 8 )
{
NSWAVCMCS_putBits(&instance->encbs, 0,
(8 - instance->encbs.bitPos % 8));
}
}
temp = instance->encbs.byteCnt;
temp = temp + 1;
outbuff[outbuffpos] = (M4OSA_UInt8)(( temp >> 24) & 0xFF);
outbuff[outbuffpos + 1] = (M4OSA_UInt8)(( temp >> 16) & 0xFF);
outbuff[outbuffpos + 2] = (M4OSA_UInt8)(( temp >> 8) & 0xFF);
outbuff[outbuffpos + 3] = (M4OSA_UInt8)((temp) &0xFF);
outbuffpos = outbuffpos + temp + 4;
}
else
{
p_bs->Buffer = p_bs->Buffer - 5;
memcpy((void *) &outbuff[outbuffpos],
(void *)p_bs->Buffer, nal_size + 4);
outbuff[outbuffpos] = (M4OSA_UInt8)((nal_size >> 24)& 0xFF);
outbuff[outbuffpos + 1] = (M4OSA_UInt8)((nal_size >> 16)& 0xFF);;
outbuff[outbuffpos + 2] = (M4OSA_UInt8)((nal_size >> 8)& 0xFF);;
outbuff[outbuffpos + 3] = (M4OSA_UInt8)((nal_size)& 0xFF);;
outbuffpos = outbuffpos + nal_size + 4;
}
}
*outbuf_size = outbuffpos;
instance->POC_lsb = instance->POC_lsb + 1;
if( instance->POC_lsb == instance->POC_lsb_mod )
{
instance->POC_lsb = 0;
}
instance->frame_count = instance->frame_count + 1;
if( instance->frame_count == instance->frame_mod_count )
{
instance->frame_count = 0;
}
return M4NO_ERROR;
}
M4OSA_ERR M4MCS_convetFromByteStreamtoNALStream( M4OSA_UInt8 *inbuff,
M4OSA_UInt32 inbuf_size )
{
M4OSA_ERR err = M4NO_ERROR;
M4OSA_UInt32 framesize = 0;
M4OSA_UInt32 nal_size =0;
M4OSA_UInt8 *buff;
while(framesize < inbuf_size)
{
nal_size = inbuf_size - framesize - 4;
buff = inbuff + framesize + 4;
while(nal_size > 4){
if((buff[0] == 0x00) &&
(buff[1] == 0x00) &&
(buff[2] == 0x00) &&
(buff[3] == 0x01)){
break;
}
buff = buff + 1;
nal_size = nal_size -1;
}
if(nal_size <= 4){
nal_size = 0;
}
nal_size = (inbuf_size - framesize - 4) - nal_size;
inbuff[framesize + 0] = (M4OSA_UInt8)((nal_size >> 24)& 0xFF);
inbuff[framesize + 1] = (M4OSA_UInt8)((nal_size >> 16)& 0xFF);
inbuff[framesize + 2] = (M4OSA_UInt8)((nal_size >> 8)& 0xFF);
inbuff[framesize + 3] = (M4OSA_UInt8)((nal_size )& 0xFF);
framesize += nal_size + 4;
M4OSA_TRACE1_2("M4MCS_convetFromByteStreamtoNALStream framesize = %x nalsize = %x",
framesize, nal_size)
}
return err;
}
M4OSA_ERR H264MCS_Freeinstance( NSWAVC_MCS_t *instance )
{
M4OSA_ERR err = M4NO_ERROR;
M4OSA_DEBUG_IF2((M4OSA_NULL == instance), M4ERR_PARAMETER,
"H264MCS_Freeinstance: instance is M4OSA_NULL");
if( M4OSA_NULL != instance->encoder_pps.slice_group_id )
{
free(instance->encoder_pps.slice_group_id);
}
if( M4OSA_NULL != instance->p_encoder_sps )
{
free(instance->p_encoder_sps);
instance->p_encoder_sps = M4OSA_NULL;
}
if( M4OSA_NULL != instance->p_encoder_pps )
{
free(instance->p_encoder_pps);
instance->p_encoder_pps = M4OSA_NULL;
}
if( M4OSA_NULL != instance->m_pFinalDSI )
{
free(instance->m_pFinalDSI);
instance->m_pFinalDSI = M4OSA_NULL;
}
if( M4OSA_NULL != instance )
{
free(instance);
instance = M4OSA_NULL;
}
return err;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_getVersion(M4_VersionInfo* pVersionInfo);
* @brief Get the MCS version.
* @note Can be called anytime. Do not need any context.
* @param pVersionInfo (OUT) Pointer to a version info structure
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: pVersionInfo is M4OSA_NULL (If Debug Level >= 2)
******************************************************************************
*/
M4OSA_ERR M4MCS_getVersion( M4_VersionInfo *pVersionInfo )
{
M4OSA_TRACE3_1("M4MCS_getVersion called with pVersionInfo=0x%x",
pVersionInfo);
/**
* Check input parameters */
M4OSA_DEBUG_IF2((M4OSA_NULL == pVersionInfo), M4ERR_PARAMETER,
"M4MCS_getVersion: pVersionInfo is M4OSA_NULL");
pVersionInfo->m_major = M4MCS_VERSION_MAJOR;
pVersionInfo->m_minor = M4MCS_VERSION_MINOR;
pVersionInfo->m_revision = M4MCS_VERSION_REVISION;
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_getVersion(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* @brief Initializes the MCS (allocates an execution context).
* @note
* @param pContext (OUT) Pointer on the MCS context to allocate
* @param pFileReadPtrFct (IN) Pointer to OSAL file reader functions
* @param pFileWritePtrFct (IN) Pointer to OSAL file writer functions
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: At least one parameter is M4OSA_NULL (If Debug Level >= 2)
* @return M4ERR_ALLOC: There is no more available memory
******************************************************************************
*/
M4OSA_ERR M4MCS_init( M4MCS_Context *pContext,
M4OSA_FileReadPointer *pFileReadPtrFct,
M4OSA_FileWriterPointer *pFileWritePtrFct )
{
M4MCS_InternalContext *pC = M4OSA_NULL;
M4OSA_ERR err;
M4OSA_TRACE3_3(
"M4MCS_init called with pContext=0x%x, pFileReadPtrFct=0x%x, pFileWritePtrFct=0x%x",
pContext, pFileReadPtrFct, pFileWritePtrFct);
/**
* Check input parameters */
M4OSA_DEBUG_IF2((M4OSA_NULL == pContext), M4ERR_PARAMETER,
"M4MCS_init: pContext is M4OSA_NULL");
M4OSA_DEBUG_IF2((M4OSA_NULL == pFileReadPtrFct), M4ERR_PARAMETER,
"M4MCS_init: pFileReadPtrFct is M4OSA_NULL");
M4OSA_DEBUG_IF2((M4OSA_NULL == pFileWritePtrFct), M4ERR_PARAMETER,
"M4MCS_init: pFileWritePtrFct is M4OSA_NULL");
/**
* Allocate the MCS context and return it to the user */
pC = (M4MCS_InternalContext *)M4OSA_32bitAlignedMalloc(sizeof(M4MCS_InternalContext),
M4MCS, (M4OSA_Char *)"M4MCS_InternalContext");
*pContext = pC;
if( M4OSA_NULL == pC )
{
M4OSA_TRACE1_0(
"M4MCS_init(): unable to allocate M4MCS_InternalContext, returning M4ERR_ALLOC");
return M4ERR_ALLOC;
}
/**
* Init the context. All pointers must be initialized to M4OSA_NULL
* because CleanUp() can be called just after Init(). */
pC->State = M4MCS_kState_CREATED;
pC->pOsaFileReadPtr = pFileReadPtrFct;
pC->pOsaFileWritPtr = pFileWritePtrFct;
pC->VideoState = M4MCS_kStreamState_NOSTREAM;
pC->AudioState = M4MCS_kStreamState_NOSTREAM;
pC->noaudio = M4OSA_FALSE;
pC->novideo = M4OSA_FALSE;
pC->uiProgress = 0;
/**
* Reader stuff */
pC->pInputFile = M4OSA_NULL;
pC->InputFileType = M4VIDEOEDITING_kFileType_Unsupported;
pC->bFileOpenedInFastMode = M4OSA_FALSE;
pC->pReaderContext = M4OSA_NULL;
pC->pReaderVideoStream = M4OSA_NULL;
pC->pReaderAudioStream = M4OSA_NULL;
pC->bUnsupportedVideoFound = M4OSA_FALSE;
pC->bUnsupportedAudioFound = M4OSA_FALSE;
pC->iAudioCtsOffset = 0;
/* First temporary video AU to have more precise end video cut*/
pC->ReaderVideoAU1.m_structSize = 0;
/* Second temporary video AU to have more precise end video cut*/
pC->ReaderVideoAU2.m_structSize = 0;
pC->ReaderAudioAU1.m_structSize = 0;
pC->ReaderAudioAU2.m_structSize = 0;
pC->m_audioAUDuration = 0;
pC->m_pDataAddress1 = M4OSA_NULL;
pC->m_pDataAddress2 = M4OSA_NULL;
/* First temporary video AU data to have more precise end video cut*/
pC->m_pDataVideoAddress1 = M4OSA_NULL;
/* Second temporary video AU data to have more precise end video cut*/
pC->m_pDataVideoAddress2 = M4OSA_NULL;
/**
* Video decoder stuff */
pC->pViDecCtxt = M4OSA_NULL;
pC->dViDecStartingCts = 0.0;
pC->iVideoBeginDecIncr = 0;
pC->dViDecCurrentCts = 0.0;
pC->dCtsIncrement = 0.0;
pC->isRenderDup = M4OSA_FALSE;
/**
* Video encoder stuff */
pC->pViEncCtxt = M4OSA_NULL;
pC->pPreResizeFrame = M4OSA_NULL;
pC->uiEncVideoBitrate = 0;
pC->encoderState = M4MCS_kNoEncoder;
/**
* Audio decoder stuff */
pC->pAudioDecCtxt = M4OSA_NULL;
pC->AudioDecBufferIn.m_dataAddress = M4OSA_NULL;
pC->AudioDecBufferIn.m_bufferSize = 0;
pC->AudioDecBufferOut.m_dataAddress = M4OSA_NULL;
pC->AudioDecBufferOut.m_bufferSize = 0;
pC->pPosInDecBufferOut = M4OSA_NULL;
/**
* Ssrc stuff */
pC->pSsrcBufferIn = M4OSA_NULL;
pC->pSsrcBufferOut = M4OSA_NULL;
pC->pPosInSsrcBufferIn = M4OSA_NULL;
pC->pPosInSsrcBufferOut = M4OSA_NULL;
pC->iSsrcNbSamplIn = 0;
pC->iSsrcNbSamplOut = 0;
pC->SsrcScratch = M4OSA_NULL;
pC->pLVAudioResampler = M4OSA_NULL;
/**
* Audio encoder */
pC->pAudioEncCtxt = M4OSA_NULL;
pC->pAudioEncDSI.infoSize = 0;
pC->pAudioEncDSI.pInfo = M4OSA_NULL;
pC->pAudioEncoderBuffer = M4OSA_NULL;
pC->pPosInAudioEncoderBuffer = M4OSA_NULL;
pC->audioEncoderGranularity = 0;
/**
* Writer stuff */
pC->pOutputFile = M4OSA_NULL;
pC->pTemporaryFile = M4OSA_NULL;
pC->pWriterContext = M4OSA_NULL;
pC->uiVideoAUCount = 0;
pC->uiVideoMaxAuSize = 0;
pC->uiVideoMaxChunckSize = 0;
pC->uiAudioAUCount = 0;
pC->uiAudioMaxAuSize = 0;
pC->uiAudioCts = 0;
pC->b_isRawWriter = M4OSA_FALSE;
pC->pOutputPCMfile = M4OSA_NULL;
/* Encoding config */
pC->EncodingVideoFormat = M4ENCODER_kNULL; /**< No format set yet */
pC->EncodingWidth = 0; /**< No size set yet */
pC->EncodingHeight = 0; /**< No size set yet */
pC->EncodingVideoFramerate = 0; /**< No framerate set yet */
pC->uiBeginCutTime = 0; /**< No begin cut */
pC->uiEndCutTime = 0; /**< No end cut */
pC->uiMaxFileSize = 0; /**< No limit */
pC->uiAudioBitrate =
M4VIDEOEDITING_kUndefinedBitrate; /**< No bitrate set yet */
pC->uiVideoBitrate =
M4VIDEOEDITING_kUndefinedBitrate; /**< No bitrate set yet */
pC->WriterVideoStream.streamType = M4SYS_kVideoUnknown;
pC->WriterVideoStreamInfo.Header.pBuf = M4OSA_NULL;
pC->WriterAudioStream.streamType = M4SYS_kAudioUnknown;
pC->outputVideoTimescale = 0;
/*FB 2008/10/20: add media rendering parameter and AIR context to keep media aspect ratio*/
pC->MediaRendering = M4MCS_kResizing;
pC->m_air_context = M4OSA_NULL;
/**/
/**
* FlB 2009.03.04: add audio Effects*/
pC->pEffects = M4OSA_NULL;
pC->nbEffects = 0;
pC->pActiveEffectNumber = -1;
/**/
/*
* Reset pointers for media and codecs interfaces */
err = M4MCS_clearInterfaceTables(pC);
M4ERR_CHECK_RETURN(err);
/*
* Call the media and codecs subscription module */
err = M4MCS_subscribeMediaAndCodec(pC);
M4ERR_CHECK_RETURN(err);
#ifdef M4MCS_SUPPORT_STILL_PICTURE
/**
* Initialize the Still picture part of MCS*/
err = M4MCS_stillPicInit(pC, pFileReadPtrFct, pFileWritePtrFct);
M4ERR_CHECK_RETURN(err);
pC->m_bIsStillPicture = M4OSA_FALSE;
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
pC->m_pInstance = M4OSA_NULL;
pC->H264MCSTempBuffer = M4OSA_NULL;
pC->H264MCSTempBufferSize = 0;
pC->H264MCSTempBufferDataSize = 0;
pC->bH264Trim = M4OSA_FALSE;
/* Flag to get the last decoded frame cts */
pC->bLastDecodedFrameCTS = M4OSA_FALSE;
if( pC->m_pInstance == M4OSA_NULL )
{
err = H264MCS_Getinstance(&pC->m_pInstance);
}
pC->bExtOMXAudDecoder = M4OSA_FALSE;
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_init(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_open(M4MCS_Context pContext, M4OSA_Void* pFileIn,
* M4OSA_Void* pFileOut, M4OSA_Void* pTempFile);
* @brief Set the MCS input and output files.
* @note It opens the input file, but the output file is not created yet.
* @param pContext (IN) MCS context
* @param pFileIn (IN) Input file to transcode (The type of this parameter
* (URL, pipe...) depends on the OSAL implementation).
* @param mediaType (IN) Container type (.3gp,.amr,mp3 ...) of input file.
* @param pFileOut (IN) Output file to create (The type of this parameter
* (URL, pipe...) depends on the OSAL implementation).
* @param pTempFile (IN) Temporary file for the constant memory writer to
* store metadata ("moov.bin").
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: At least one parameter is M4OSA_NULL (debug only)
* @return M4ERR_STATE: MCS is not in an appropriate state for this function to be called
* @return M4ERR_ALLOC: There is no more available memory
* @return M4ERR_FILE_NOT_FOUND: The input file has not been found
* @return M4MCS_ERR_INVALID_INPUT_FILE: The input file is not a valid file, or is corrupted
* @return M4MCS_ERR_INPUT_FILE_CONTAINS_NO_SUPPORTED_STREAM: The input file contains no
* supported audio or video stream
******************************************************************************
*/
M4OSA_ERR M4MCS_open( M4MCS_Context pContext, M4OSA_Void *pFileIn,
M4VIDEOEDITING_FileType InputFileType, M4OSA_Void *pFileOut,
M4OSA_Void *pTempFile )
{
M4MCS_InternalContext *pC = (M4MCS_InternalContext *)(pContext);
M4OSA_ERR err;
M4READER_MediaFamily mediaFamily;
M4_StreamHandler *pStreamHandler;
M4OSA_TRACE2_3(
"M4MCS_open called with pContext=0x%x, pFileIn=0x%x, pFileOut=0x%x",
pContext, pFileIn, pFileOut);
/**
* Check input parameters */
M4OSA_DEBUG_IF2((M4OSA_NULL == pContext), M4ERR_PARAMETER,
"M4MCS_open: pContext is M4OSA_NULL");
M4OSA_DEBUG_IF2((M4OSA_NULL == pFileIn), M4ERR_PARAMETER,
"M4MCS_open: pFileIn is M4OSA_NULL");
if( ( InputFileType == M4VIDEOEDITING_kFileType_JPG)
|| (InputFileType == M4VIDEOEDITING_kFileType_PNG)
|| (InputFileType == M4VIDEOEDITING_kFileType_GIF)
|| (InputFileType == M4VIDEOEDITING_kFileType_BMP) )
{
#ifdef M4MCS_SUPPORT_STILL_PICTURE
/**
* Indicate that we must use the still picture functions*/
pC->m_bIsStillPicture = M4OSA_TRUE;
/**
* Call the still picture MCS functions*/
return M4MCS_stillPicOpen(pC, pFileIn, InputFileType, pFileOut);
#else
M4OSA_TRACE1_0(
"M4MCS_open: Still picture is not supported with this version of MCS");
return M4MCS_ERR_INPUT_FILE_CONTAINS_NO_SUPPORTED_STREAM;
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
}
/**
* Check state automaton */
if( M4MCS_kState_CREATED != pC->State )
{
M4OSA_TRACE1_1("M4MCS_open(): Wrong State (%d), returning M4ERR_STATE",
pC->State);
return M4ERR_STATE;
}
/* Copy function input parameters into our context */
pC->pInputFile = pFileIn;
pC->InputFileType = InputFileType;
pC->pOutputFile = pFileOut;
pC->pTemporaryFile = pTempFile;
pC->uiProgress = 0;
/***********************************/
/* Open input file with the reader */
/***********************************/
err = M4MCS_setCurrentReader(pContext, pC->InputFileType);
M4ERR_CHECK_RETURN(err);
/**
* Reset reader related variables */
pC->VideoState = M4MCS_kStreamState_NOSTREAM;
pC->AudioState = M4MCS_kStreamState_NOSTREAM;
pC->pReaderVideoStream = M4OSA_NULL;
pC->pReaderAudioStream = M4OSA_NULL;
/*******************************************************/
/* Initializes the reader shell and open the data file */
/*******************************************************/
err = pC->m_pReader->m_pFctCreate(&pC->pReaderContext);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1("M4MCS_open(): m_pReader->m_pFctCreate returns 0x%x",
err);
return err;
}
/**
* Link the reader interface to the reader context */
pC->m_pReaderDataIt->m_readerContext = pC->pReaderContext;
/**
* Set the reader shell file access functions */
err = pC->m_pReader->m_pFctSetOption(pC->pReaderContext,
M4READER_kOptionID_SetOsaFileReaderFctsPtr,
(M4OSA_DataOption)pC->pOsaFileReadPtr);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1("M4MCS_open(): m_pReader->m_pFctSetOption returns 0x%x",
err);
return err;
}
#ifdef M4MCS_WITH_FAST_OPEN
if( M4OSA_FALSE == pC->bFileOpenedInFastMode )
{
M4OSA_Bool trueValue = M4OSA_TRUE;
/* For first call use fast open mode */
err = pC->m_pReader->m_pFctSetOption(pC->pReaderContext,
M4READER_3GP_kOptionID_FastOpenMode, &trueValue);
if( M4NO_ERROR == err )
{
pC->bFileOpenedInFastMode = M4OSA_TRUE;
}
else
{
M4OSA_TRACE1_1(
"M4MCS_open(): M4READER_3GP_kOptionID_FastOpenMode returns 0x%x",
err);
if( ( ( (M4OSA_UInt32)M4ERR_BAD_OPTION_ID) == err)
|| (( (M4OSA_UInt32)M4ERR_PARAMETER) == err) )
{
/* Not fatal, some readers may not support fast open mode */
pC->bFileOpenedInFastMode = M4OSA_FALSE;
}
else
return err;
}
}
else
{
M4OSA_Bool falseValue = M4OSA_FALSE;
/* For second call use normal open mode */
err = pC->m_pReader->m_pFctSetOption(pC->pReaderContext,
M4READER_3GP_kOptionID_FastOpenMode, &falseValue);
}
#endif /* M4MCS_WITH_FAST_OPEN */
/**
* Open the input file */
err = pC->m_pReader->m_pFctOpen(pC->pReaderContext, pC->pInputFile);
if( M4NO_ERROR != err )
{
M4OSA_UInt32 uiDummy, uiCoreId;
M4OSA_TRACE1_1("M4MCS_open(): m_pReader->m_pFctOpen returns 0x%x", err);
/**
* If the error is from the core reader, we change it to a public VXS error */
M4OSA_ERR_SPLIT(err, uiDummy, uiCoreId, uiDummy);
if( M4MP4_READER == uiCoreId )
{
M4OSA_TRACE1_0(
"M4MCS_open(): returning M4MCS_ERR_INVALID_INPUT_FILE");
return M4MCS_ERR_INVALID_INPUT_FILE;
}
return err;
}
/**
* Get the streams from the input file */
while( M4NO_ERROR == err )
{
err =
pC->m_pReader->m_pFctGetNextStream( pC->pReaderContext,
&mediaFamily,
&pStreamHandler);
/**
* In case we found a BIFS stream or something else...*/
if( ( err == ((M4OSA_UInt32)M4ERR_READER_UNKNOWN_STREAM_TYPE))
|| (err == ((M4OSA_UInt32)M4WAR_TOO_MUCH_STREAMS)) )
{
err = M4NO_ERROR;
continue;
}
if( M4NO_ERROR == err ) /**< One stream found */
{
/**
* Found the first video stream */
if( ( M4READER_kMediaFamilyVideo == mediaFamily)
&& (M4OSA_NULL == pC->pReaderVideoStream) )
{
if( ( M4DA_StreamTypeVideoH263 == pStreamHandler->m_streamType)
|| (M4DA_StreamTypeVideoMpeg4
== pStreamHandler->m_streamType)
|| (M4DA_StreamTypeVideoMpeg4Avc
== pStreamHandler->m_streamType) )
{
M4OSA_TRACE3_0(
"M4MCS_open(): Found a H263 or MPEG-4 video stream in input 3gpp clip");
/**
* Keep pointer to the video stream */
pC->pReaderVideoStream =
(M4_VideoStreamHandler *)pStreamHandler;
pC->bUnsupportedVideoFound = M4OSA_FALSE;
pStreamHandler->m_bStreamIsOK = M4OSA_TRUE;
/**
* Init our video stream state variable */
pC->VideoState = M4MCS_kStreamState_STARTED;
/**
* Reset the stream reader */
err = pC->m_pReader->m_pFctReset(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderVideoStream);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_open():\
m_pReader->m_pFctReset(video) returns 0x%x",
err);
return err;
}
/**
* Initializes an access Unit */
err = pC->m_pReader->m_pFctFillAuStruct(pC->pReaderContext,
pStreamHandler, &pC->ReaderVideoAU);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_open():\
m_pReader->m_pFctFillAuStruct(video) returns 0x%x",
err);
return err;
}
}
else /**< Not H263 or MPEG-4 (H264, etc.) */
{
M4OSA_TRACE1_1("M4MCS_open(): Found an unsupported video stream (0x%x) in\
input 3gpp clip",
pStreamHandler->m_streamType);
pC->bUnsupportedVideoFound = M4OSA_TRUE;
pStreamHandler->m_bStreamIsOK = M4OSA_FALSE;
}
/* +CRLV6775 -H.264 Trimming */
if( M4DA_StreamTypeVideoMpeg4Avc
== pStreamHandler->m_streamType )
{
// SPS and PPS are storead as per the 3gp file format
pC->m_pInstance->m_pDecoderSpecificInfo =
pStreamHandler->m_pH264DecoderSpecificInfo;
pC->m_pInstance->m_decoderSpecificInfoSize =
pStreamHandler->m_H264decoderSpecificInfoSize;
}
/* -CRLV6775 -H.264 Trimming */
}
/**
* Found the first audio stream */
else if( ( M4READER_kMediaFamilyAudio == mediaFamily)
&& (M4OSA_NULL == pC->pReaderAudioStream) )
{
if( ( M4DA_StreamTypeAudioAmrNarrowBand
== pStreamHandler->m_streamType)
|| (M4DA_StreamTypeAudioAac == pStreamHandler->m_streamType)
|| (M4DA_StreamTypeAudioMp3
== pStreamHandler->m_streamType)
|| (M4DA_StreamTypeAudioEvrc
== pStreamHandler->m_streamType) )
{
M4OSA_TRACE3_0(
"M4MCS_open(): Found an AMR-NB, AAC or MP3 audio stream in input clip");
/**
* Keep pointer to the audio stream */
pC->pReaderAudioStream =
(M4_AudioStreamHandler *)pStreamHandler;
pStreamHandler->m_bStreamIsOK = M4OSA_TRUE;
pC->bUnsupportedAudioFound = M4OSA_FALSE;
/**
* Init our audio stream state variable */
pC->AudioState = M4MCS_kStreamState_STARTED;
/**
* Reset the stream reader */
err = pC->m_pReader->m_pFctReset(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderAudioStream);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_open():\
m_pReader->m_pFctReset(audio) returns 0x%x",
err);
return err;
}
/**
* Initializes an access Unit */
err = pC->m_pReader->m_pFctFillAuStruct(pC->pReaderContext,
pStreamHandler, &pC->ReaderAudioAU);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_open():\
m_pReader->m_pFctFillAuStruct(audio) returns 0x%x",
err);
return err;
}
/**
* Output max AU size is equal to input max AU size (this value
* will be changed if there is audio transcoding) */
pC->uiAudioMaxAuSize = pStreamHandler->m_maxAUSize;
}
else
{
/**< Not AMR-NB, AAC, MP3 nor EVRC (AMR-WB, WAV...) */
M4OSA_TRACE1_1("M4MCS_open(): Found an unsupported audio stream (0x%x) in \
input 3gpp clip", pStreamHandler->m_streamType);
pC->bUnsupportedAudioFound = M4OSA_TRUE;
pStreamHandler->m_bStreamIsOK = M4OSA_FALSE;
}
}
}
} /**< end of while (M4NO_ERROR == err) */
/**
* Check we found at least one supported stream */
if( ( M4OSA_NULL == pC->pReaderVideoStream)
&& (M4OSA_NULL == pC->pReaderAudioStream) )
{
M4OSA_TRACE1_0(
"M4MCS_open(): returning M4MCS_ERR_INPUT_FILE_CONTAINS_NO_SUPPORTED_STREAM");
return M4MCS_ERR_INPUT_FILE_CONTAINS_NO_SUPPORTED_STREAM;
}
if( pC->VideoState == M4MCS_kStreamState_STARTED )
{
err = M4MCS_setCurrentVideoDecoder(pContext,
pC->pReaderVideoStream->m_basicProperties.m_streamType);
/*FB 2009-02-09: the error is check and returned only if video codecs are compiled,
else only audio is used, that is why the editing process can continue*/
#ifndef M4MCS_AUDIOONLY
M4ERR_CHECK_RETURN(err);
#else
if( ( M4NO_ERROR != err) && (M4MCS_WAR_MEDIATYPE_NOT_SUPPORTED != err) )
{
M4ERR_CHECK_RETURN(err);
}
#endif /*M4MCS_AUDIOONLY*/
}
if( pC->AudioState == M4MCS_kStreamState_STARTED )
{
//EVRC
if( M4DA_StreamTypeAudioEvrc
!= pStreamHandler->
m_streamType ) /* decoder not supported yet, but allow to do null encoding */
{
err = M4MCS_setCurrentAudioDecoder(pContext,
pC->pReaderAudioStream->m_basicProperties.m_streamType);
M4ERR_CHECK_RETURN(err);
}
}
/**
* Get the audio and video stream properties */
err = M4MCS_intGetInputClipProperties(pC);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_open(): M4MCS_intGetInputClipProperties returns 0x%x", err);
return err;
}
/**
* Set the begin cut decoding increment according to the input frame rate */
if( 0. != pC->InputFileProperties.fAverageFrameRate ) /**< sanity check */
{
pC->iVideoBeginDecIncr = (M4OSA_Int32)(3000.
/ pC->InputFileProperties.
fAverageFrameRate); /**< about 3 frames */
}
else
{
pC->iVideoBeginDecIncr =
200; /**< default value: 200 milliseconds (3 frames @ 15fps)*/
}
/**
* Update state automaton */
pC->State = M4MCS_kState_OPENED;
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_open(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_step(M4MCS_Context pContext, M4OSA_UInt8 *pProgress);
* @brief Perform one step of trancoding.
* @note
* @param pContext (IN) MCS context
* @param pProgress (OUT) Progress percentage (0 to 100) of the transcoding
* @note pProgress must be a valid address.
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: One of the parameters is M4OSA_NULL (debug only)
* @return M4ERR_STATE: MCS is not in an appropriate state for this function to be called
* @return M4MCS_WAR_TRANSCODING_DONE: Transcoding is over, user should now call M4MCS_close()
* @return M4MCS_ERR_AUDIO_CONVERSION_FAILED: The audio conversion (AAC to AMR-NB or MP3) failed
* @return M4MCS_ERR_INVALID_AAC_SAMPLING_FREQUENCY: The input file contains an AAC audio track
* with an invalid sampling frequency (should never happen)
******************************************************************************
*/
M4OSA_ERR M4MCS_step( M4MCS_Context pContext, M4OSA_UInt8 *pProgress )
{
M4MCS_InternalContext *pC = (M4MCS_InternalContext *)(pContext);
M4OSA_TRACE3_1("M4MCS_step called with pContext=0x%x", pContext);
/**
* Check input parameters */
M4OSA_DEBUG_IF2((M4OSA_NULL == pContext), M4ERR_PARAMETER,
"M4MCS_step: pContext is M4OSA_NULL");
M4OSA_DEBUG_IF2((M4OSA_NULL == pProgress), M4ERR_PARAMETER,
"M4MCS_step: pProgress is M4OSA_NULL");
#ifdef M4MCS_SUPPORT_STILL_PICTURE
if( pC->m_bIsStillPicture )
{
/**
* Call the still picture MCS functions*/
return M4MCS_stillPicStep(pC, pProgress);
}
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
/**
* Check state automaton */
switch( pC->State )
{
case M4MCS_kState_READY:
*pProgress = 0;
return M4MCS_intStepSet(pC);
break;
case M4MCS_kState_BEGINVIDEOJUMP:
*pProgress = pC->uiProgress;
return M4MCS_intStepBeginVideoJump(pC);
break;
case M4MCS_kState_BEGINVIDEODECODE:
*pProgress = pC->uiProgress;
return M4MCS_intStepBeginVideoDecode(pC);
break;
case M4MCS_kState_PROCESSING:
{
M4OSA_ERR err = M4NO_ERROR;
err = M4MCS_intStepEncoding(pC, pProgress);
/* Save progress info in case of pause */
pC->uiProgress = *pProgress;
return err;
}
break;
default: /**< State error */
M4OSA_TRACE1_1(
"M4MCS_step(): Wrong State (%d), returning M4ERR_STATE",
pC->State);
return M4ERR_STATE;
}
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_pause(M4MCS_Context pContext);
* @brief Pause the transcoding i.e. release the (external hardware) video decoder.
* @note This function is not needed if no hardware accelerators are used.
* In that case, pausing the MCS is simply achieved by temporarily suspending
* the M4MCS_step function calls.
* @param pContext (IN) MCS context
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: pContext is M4OSA_NULL (debug only)
* @return M4ERR_STATE: MCS is not in an appropriate state for this function to be called
******************************************************************************
*/
M4OSA_ERR M4MCS_pause( M4MCS_Context pContext )
{
M4MCS_InternalContext *pC = (M4MCS_InternalContext *)(pContext);
M4OSA_ERR err;
M4OSA_TRACE2_1("M4MCS_pause called with pContext=0x%x", pContext);
/**
* Check input parameters */
M4OSA_DEBUG_IF2((M4OSA_NULL == pContext), M4ERR_PARAMETER,
"M4MCS_pause: pContext is M4OSA_NULL");
#ifdef M4MCS_SUPPORT_STILL_PICTURE
if( pC->m_bIsStillPicture )
{
/**
* Call the corresponding still picture MCS function*/
return M4MCS_stillPicPause(pC);
}
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
/**
* Check state automaton */
switch( pC->State )
{
case M4MCS_kState_BEGINVIDEOJUMP: /**< the video decoder has been created,
we must destroy it */
case M4MCS_kState_BEGINVIDEODECODE: /**< the video is being used, we must destroy it */
case M4MCS_kState_PROCESSING: /**< the video is being used, we must destroy it */
/**< OK, nothing to do here */
break;
default: /**< State error */
M4OSA_TRACE1_1(
"M4MCS_pause(): Wrong State (%d), returning M4ERR_STATE",
pC->State);
return M4ERR_STATE;
}
/**
* Set the CTS at which we will resume the decoding */
if( pC->dViDecCurrentCts > pC->dViDecStartingCts )
{
/**
* We passed the starting CTS, so the resume target is the current CTS */
pC->dViDecStartingCts = pC->dViDecCurrentCts;
}
else {
/**
* We haven't passed the starting CTS yet, so the resume target is still the starting CTS
* --> nothing to do in the else block */
}
/**
* Free video decoder stuff */
if( M4OSA_NULL != pC->pViDecCtxt )
{
err = pC->m_pVideoDecoder->m_pFctDestroy(pC->pViDecCtxt);
pC->pViDecCtxt = M4OSA_NULL;
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_pause: m_pVideoDecoder->pFctDestroy returns 0x%x", err);
return err;
}
}
/**
* State transition */
pC->State = M4MCS_kState_PAUSED;
M4OSA_TRACE3_0("M4MCS_pause(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_resume(M4MCS_Context pContext);
* @brief Resume the transcoding after a pause (see M4MCS_pause).
* @note This function is not needed if no hardware accelerators are used.
* In that case, resuming the MCS is simply achieved by calling
* the M4MCS_step function.
* @param pContext (IN) MCS context
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: pContext is M4OSA_NULL (debug only)
* @return M4ERR_STATE: MCS is not in an appropriate state for this function to be called
******************************************************************************
*/
M4OSA_ERR M4MCS_resume( M4MCS_Context pContext )
{
M4MCS_InternalContext *pC = (M4MCS_InternalContext *)(pContext);
M4OSA_ERR err;
M4OSA_TRACE2_1("M4MCS_resume called with pContext=0x%x", pContext);
/**
* Check input parameters */
M4OSA_DEBUG_IF2((M4OSA_NULL == pContext), M4ERR_PARAMETER,
"M4MCS_resume: pContext is M4OSA_NULL");
#ifdef M4MCS_SUPPORT_STILL_PICTURE
if( pC->m_bIsStillPicture )
{
/**
* Call the corresponding still picture MCS function*/
return M4MCS_stillPicResume(pC);
}
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
/**
* Check state automaton */
switch( pC->State )
{
case M4MCS_kState_PAUSED: /**< OK, nothing to do here */
break;
default: /**< State error */
M4OSA_TRACE1_1(
"M4MCS_resume(): Wrong State (%d), returning M4ERR_STATE",
pC->State);
return M4ERR_STATE;
break;
}
/**
* Prepare the video decoder */
err = M4MCS_intPrepareVideoDecoder(pC);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_resume(): M4MCS_intPrepareVideoDecoder() returns 0x%x", err);
return err;
}
/**
* State transition */
if( 0.0 == pC->dViDecStartingCts )
{
/**
* We are still at the beginning of the decoded stream, no need to jump, we can proceed */
pC->State = M4MCS_kState_PROCESSING;
}
else
{
/**
* Jumping */
pC->State = M4MCS_kState_BEGINVIDEOJUMP;
}
M4OSA_TRACE3_0("M4MCS_resume(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_close(M4MCS_Context pContext);
* @brief Finish the MCS transcoding.
* @note The output 3GPP file is ready to be played after this call
* @param pContext (IN) MCS context
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: pContext is M4OSA_NULL (If Debug Level >= 2)
* @return M4ERR_STATE: MCS is not in an appropriate state for this function to be called
******************************************************************************
*/
M4OSA_ERR M4MCS_close( M4MCS_Context pContext )
{
M4MCS_InternalContext *pC = (M4MCS_InternalContext *)(pContext);
M4ENCODER_Header *encHeader;
M4SYS_StreamIDmemAddr streamHeader;
M4OSA_ERR err = M4NO_ERROR, err2;
M4OSA_TRACE2_1("M4MCS_close called with pContext=0x%x", pContext);
/**
* Check input parameters */
M4OSA_DEBUG_IF2((M4OSA_NULL == pContext), M4ERR_PARAMETER,
"M4MCS_close: pContext is M4OSA_NULL");
#ifdef M4MCS_SUPPORT_STILL_PICTURE
if( pC->m_bIsStillPicture )
{
/**
* Indicate that current file is no longer a still picture*/
pC->m_bIsStillPicture = M4OSA_FALSE;
/**
* Call the corresponding still picture MCS function*/
return M4MCS_stillPicClose(pC);
}
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
/**
* Check state automaton */
if( M4MCS_kState_FINISHED != pC->State )
{
M4OSA_TRACE1_1("M4MCS_close(): Wrong State (%d), returning M4ERR_STATE",
pC->State);
return M4ERR_STATE;
}
/* Close the encoder before the writer to be certain all the AUs have been written and we can
get the DSI. */
/* Has the encoder actually been started? Don't stop it if that's not the case. */
if( M4MCS_kEncoderRunning == pC->encoderState )
{
if( pC->pVideoEncoderGlobalFcts->pFctStop != M4OSA_NULL )
{
err = pC->pVideoEncoderGlobalFcts->pFctStop(pC->pViEncCtxt);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_close: pVideoEncoderGlobalFcts->pFctStop returns 0x%x",
err);
/* Well... how the heck do you handle a failed cleanup? */
}
}
pC->encoderState = M4MCS_kEncoderStopped;
}
/* Has the encoder actually been opened? Don't close it if that's not the case. */
if( M4MCS_kEncoderStopped == pC->encoderState )
{
err = pC->pVideoEncoderGlobalFcts->pFctClose(pC->pViEncCtxt);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_close: pVideoEncoderGlobalFcts->pFctClose returns 0x%x",
err);
/* Well... how the heck do you handle a failed cleanup? */
}
pC->encoderState = M4MCS_kEncoderClosed;
}
/**********************************/
/******** Close the writer ********/
/**********************************/
if( M4OSA_NULL != pC->pWriterContext ) /* happens in state _SET */
{
/* HW encoder: fetch the DSI from the shell video encoder, and feed it to the writer before
closing it. */
if( pC->novideo != M4OSA_TRUE )
{
if( ( M4ENCODER_kMPEG4 == pC->EncodingVideoFormat)
|| (M4ENCODER_kH264 == pC->EncodingVideoFormat) )
{
err = pC->pVideoEncoderGlobalFcts->pFctGetOption(pC->pViEncCtxt,
M4ENCODER_kOptionID_EncoderHeader,
(M4OSA_DataOption) &encHeader);
if( ( M4NO_ERROR != err) || (M4OSA_NULL == encHeader->pBuf) )
{
M4OSA_TRACE1_1(
"M4MCS_close: failed to get the encoder header (err 0x%x)",
err);
/**< no return here, we still have stuff to deallocate after close, even
if it fails. */
}
else
{
/* set this header in the writer */
streamHeader.streamID = M4MCS_WRITER_VIDEO_STREAM_ID;
streamHeader.size = encHeader->Size;
streamHeader.addr = (M4OSA_MemAddr32)encHeader->pBuf;
}
M4OSA_TRACE1_0("calling set option");
err = pC->pWriterGlobalFcts->pFctSetOption(pC->pWriterContext,
M4WRITER_kDSI, &streamHeader);
M4OSA_TRACE1_0("set option done");
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_close: failed to set the DSI in the writer (err 0x%x)",
err);
}
}
if( ( M4OSA_TRUE == pC->bH264Trim)
&& (M4ENCODER_kNULL == pC->EncodingVideoFormat) )
{
if(pC->uiBeginCutTime == 0)
{
M4OSA_TRACE1_1("Decoder specific info size = %d",
pC->m_pInstance->m_decoderSpecificInfoSize);
pC->m_pInstance->m_pFinalDSISize =
pC->m_pInstance->m_decoderSpecificInfoSize;
M4OSA_TRACE1_1("Decoder specific info pointer = %d",
(M4OSA_MemAddr8)pC->m_pInstance->m_pDecoderSpecificInfo);
pC->m_pInstance->m_pFinalDSI =
(M4OSA_UInt8 *)M4OSA_32bitAlignedMalloc(pC->m_pInstance-> \
m_decoderSpecificInfoSize, M4MCS,
(M4OSA_Char *)"instance->m_pFinalDSI");
if( pC->m_pInstance->m_pFinalDSI == M4OSA_NULL )
{
M4OSA_TRACE1_0("instance->m_pFinalDSI: allocation error");
return M4ERR_ALLOC;
}
memcpy((void *)pC->m_pInstance->m_pFinalDSI,
(void *)pC-> \
m_pInstance->m_pDecoderSpecificInfo,
pC->m_pInstance->m_decoderSpecificInfoSize);
}
streamHeader.streamID = M4MCS_WRITER_VIDEO_STREAM_ID;
streamHeader.size = pC->m_pInstance->m_pFinalDSISize;
streamHeader.addr =
(M4OSA_MemAddr32)pC->m_pInstance->m_pFinalDSI;
M4OSA_TRACE1_0("calling set option");
err = pC->pWriterGlobalFcts->pFctSetOption(pC->pWriterContext,
M4WRITER_kDSI, &streamHeader);
M4OSA_TRACE1_0("set option done");
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_close: failed to set the DSI in the writer (err 0x%x)",
err);
}
}
}
/* Write and close the 3GP output file */
err2 = pC->pWriterGlobalFcts->pFctCloseWrite(pC->pWriterContext);
pC->pWriterContext = M4OSA_NULL;
if( M4NO_ERROR != err2 )
{
M4OSA_TRACE1_1(
"M4MCS_close: pWriterGlobalFcts->pFctCloseWrite returns 0x%x",
err2);
if( M4NO_ERROR == err )
err = err2;
/**< no return here, we still have stuff to deallocate after close, even if it fails.*/
}
}
/* Close output PCM file if needed */
if( pC->pOutputPCMfile != M4OSA_NULL )
{
pC->pOsaFileWritPtr->closeWrite(pC->pOutputPCMfile);
pC->pOutputPCMfile = M4OSA_NULL;
}
/*FlB 2009.03.04: add audio effects,
free effects list*/
if( M4OSA_NULL != pC->pEffects )
{
free(pC->pEffects);
pC->pEffects = M4OSA_NULL;
}
pC->nbEffects = 0;
pC->pActiveEffectNumber = -1;
/**
* State transition */
pC->State = M4MCS_kState_CLOSED;
if( M4OSA_NULL != pC->H264MCSTempBuffer )
{
free(pC->H264MCSTempBuffer);
}
M4OSA_TRACE3_0("M4MCS_close(): returning M4NO_ERROR");
return err;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_cleanUp(M4MCS_Context pContext);
* @brief Free all resources used by the MCS.
* @note The context is no more valid after this call
* @param pContext (IN) MCS context
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: pContext is M4OSA_NULL (If Debug Level >= 2)
* @return M4ERR_STATE: MCS is not in an appropriate state for this function to be called
******************************************************************************
*/
M4OSA_ERR M4MCS_cleanUp( M4MCS_Context pContext )
{
M4OSA_ERR err = M4NO_ERROR;
M4MCS_InternalContext *pC = (M4MCS_InternalContext *)(pContext);
M4OSA_TRACE3_1("M4MCS_cleanUp called with pContext=0x%x", pContext);
#ifdef MCS_DUMP_PCM_TO_FILE
if( file_au_reader )
{
fclose(file_au_reader);
file_au_reader = NULL;
}
if( file_pcm_decoder )
{
fclose(file_pcm_decoder);
file_pcm_decoder = NULL;
}
if( file_pcm_encoder )
{
fclose(file_pcm_encoder);
file_pcm_encoder = NULL;
}
#endif
/**
* Check input parameter */
if( M4OSA_NULL == pContext )
{
M4OSA_TRACE1_0(
"M4MCS_cleanUp: pContext is M4OSA_NULL, returning M4ERR_PARAMETER");
return M4ERR_PARAMETER;
}
/**
* Check state automaton */
if( M4MCS_kState_CLOSED != pC->State )
{
M4OSA_TRACE1_1(
"M4MCS_cleanUp(): Wrong State (%d), returning M4ERR_STATE",
pC->State);
return M4ERR_STATE;
}
if( M4OSA_NULL != pC->m_pInstance )
{
err = H264MCS_Freeinstance(pC->m_pInstance);
pC->m_pInstance = M4OSA_NULL;
}
/* ----- Free video encoder stuff, if needed ----- */
if( ( M4OSA_NULL != pC->pViEncCtxt)
&& (M4OSA_NULL != pC->pVideoEncoderGlobalFcts) )
{
err = pC->pVideoEncoderGlobalFcts->pFctCleanup(pC->pViEncCtxt);
pC->pViEncCtxt = M4OSA_NULL;
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_cleanUp: pVideoEncoderGlobalFcts->pFctCleanup returns 0x%x",
err);
/**< don't return, we still have stuff to free */
}
pC->encoderState = M4MCS_kNoEncoder;
}
/**
* In the H263 case, we allocated our own DSI buffer */
if( ( M4ENCODER_kH263 == pC->EncodingVideoFormat)
&& (M4OSA_NULL != pC->WriterVideoStreamInfo.Header.pBuf) )
{
free(pC->WriterVideoStreamInfo.Header.pBuf);
pC->WriterVideoStreamInfo.Header.pBuf = M4OSA_NULL;
}
if( M4OSA_NULL != pC->pPreResizeFrame )
{
if( M4OSA_NULL != pC->pPreResizeFrame[0].pac_data )
{
free(pC->pPreResizeFrame[0].pac_data);
pC->pPreResizeFrame[0].pac_data = M4OSA_NULL;
}
if( M4OSA_NULL != pC->pPreResizeFrame[1].pac_data )
{
free(pC->pPreResizeFrame[1].pac_data);
pC->pPreResizeFrame[1].pac_data = M4OSA_NULL;
}
if( M4OSA_NULL != pC->pPreResizeFrame[2].pac_data )
{
free(pC->pPreResizeFrame[2].pac_data);
pC->pPreResizeFrame[2].pac_data = M4OSA_NULL;
}
free(pC->pPreResizeFrame);
pC->pPreResizeFrame = M4OSA_NULL;
}
/* ----- Free the ssrc stuff ----- */
if( M4OSA_NULL != pC->SsrcScratch )
{
free(pC->SsrcScratch);
pC->SsrcScratch = M4OSA_NULL;
}
if( M4OSA_NULL != pC->pSsrcBufferIn )
{
free(pC->pSsrcBufferIn);
pC->pSsrcBufferIn = M4OSA_NULL;
}
if( M4OSA_NULL != pC->pSsrcBufferOut )
{
free(pC->pSsrcBufferOut);
pC->pSsrcBufferOut = M4OSA_NULL;
}
if (pC->pLVAudioResampler != M4OSA_NULL)
{
LVDestroy(pC->pLVAudioResampler);
pC->pLVAudioResampler = M4OSA_NULL;
}
/* ----- Free the audio encoder stuff ----- */
if( M4OSA_NULL != pC->pAudioEncCtxt )
{
err = pC->pAudioEncoderGlobalFcts->pFctClose(pC->pAudioEncCtxt);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_cleanUp: pAudioEncoderGlobalFcts->pFctClose returns 0x%x",
err);
/**< don't return, we still have stuff to free */
}
err = pC->pAudioEncoderGlobalFcts->pFctCleanUp(pC->pAudioEncCtxt);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_cleanUp: pAudioEncoderGlobalFcts->pFctCleanUp returns 0x%x",
err);
/**< don't return, we still have stuff to free */
}
pC->pAudioEncCtxt = M4OSA_NULL;
}
if( M4OSA_NULL != pC->pAudioEncoderBuffer )
{
free(pC->pAudioEncoderBuffer);
pC->pAudioEncoderBuffer = M4OSA_NULL;
}
/* ----- Free all other stuff ----- */
/**
* Free the readers and the decoders */
M4MCS_intCleanUp_ReadersDecoders(pC);
#ifdef M4MCS_SUPPORT_STILL_PICTURE
/**
* Free the still picture resources */
M4MCS_stillPicCleanUp(pC);
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
/**
* Free the shells interfaces */
M4MCS_unRegisterAllWriters(pContext);
M4MCS_unRegisterAllEncoders(pContext);
M4MCS_unRegisterAllReaders(pContext);
M4MCS_unRegisterAllDecoders(pContext);
/**
* Free the context itself */
free(pC);
pC = M4OSA_NULL;
M4OSA_TRACE3_0("M4MCS_cleanUp(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_abort(M4MCS_Context pContext);
* @brief Finish the MCS transcoding and free all resources used by the MCS
* whatever the state is.
* @note The context is no more valid after this call
* @param pContext (IN) MCS context
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: pContext is M4OSA_NULL (debug only)
******************************************************************************
*/
M4OSA_ERR M4MCS_abort( M4MCS_Context pContext )
{
M4OSA_ERR err = M4NO_ERROR;
M4OSA_ERR err1 = M4NO_ERROR;
M4MCS_InternalContext *pC = (M4MCS_InternalContext *)(pContext);
if( M4OSA_NULL == pContext )
{
return M4NO_ERROR;
}
if( ( pC->State == M4MCS_kState_CREATED)
|| (pC->State == M4MCS_kState_CLOSED) )
{
pC->State = M4MCS_kState_CLOSED;
err = M4MCS_cleanUp(pContext);
if( err != M4NO_ERROR )
{
M4OSA_TRACE1_1("M4MCS_abort : M4MCS_cleanUp fails err = 0x%x", err);
}
}
else
{
#ifdef M4MCS_SUPPORT_STILL_PICTURE
if( pC->m_bIsStillPicture )
{
/**
* Cancel the ongoing processes if any*/
err = M4MCS_stillPicCancel(pC);
if( err != M4NO_ERROR )
{
M4OSA_TRACE1_1(
"M4MCS_abort : M4MCS_stillPicCancel fails err = 0x%x", err);
}
/*Still picture process is now stopped; Carry on with close and cleanup*/
}
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
pC->State = M4MCS_kState_FINISHED;
err = M4MCS_close(pContext);
if( err != M4NO_ERROR )
{
M4OSA_TRACE1_1("M4MCS_abort : M4MCS_close fails err = 0x%x", err);
err1 = err;
}
err = M4MCS_cleanUp(pContext);
if( err != M4NO_ERROR )
{
M4OSA_TRACE1_1("M4MCS_abort : M4MCS_cleanUp fails err = 0x%x", err);
}
}
err = (err1 == M4NO_ERROR) ? err : err1;
return err;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_getInputFileProperties(M4MCS_Context pContext,
* M4VIDEOEDITING_ClipProperties* pFileProperties);
* @brief Retrieves the properties of the audio and video streams from the input file.
* @param pContext (IN) MCS context
* @param pProperties (OUT) Pointer on an allocated M4VIDEOEDITING_ClipProperties
structure which is filled with the input stream properties.
* @note The structure pProperties must be allocated and further de-allocated
by the application. The function must be called in the opened state.
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: At least one parameter is M4OSA_NULL
* @return M4ERR_STATE: MCS is not in an appropriate state for this function to be called
******************************************************************************
*/
M4OSA_ERR M4MCS_getInputFileProperties( M4MCS_Context pContext,
M4VIDEOEDITING_ClipProperties *pFileProperties )
{
M4MCS_InternalContext *pC = (M4MCS_InternalContext *)(pContext);
M4OSA_TRACE2_2("M4MCS_getInputFileProperties called with pContext=0x%x, \
pFileProperties=0x%x", pContext, pFileProperties);
/**
* Check input parameters */
M4OSA_DEBUG_IF2((M4OSA_NULL == pContext), M4ERR_PARAMETER,
"M4MCS_getInputFileProperties: pContext is M4OSA_NULL");
M4OSA_DEBUG_IF2((M4OSA_NULL == pFileProperties), M4ERR_PARAMETER,
"M4MCS_getInputFileProperties: pProperties is M4OSA_NULL");
#ifdef M4MCS_SUPPORT_STILL_PICTURE
if( pC->m_bIsStillPicture )
{
/**
* Call the corresponding still picture MCS function*/
return M4MCS_stillPicGetInputFileProperties(pC, pFileProperties);
}
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
/**
* Check state automaton */
if( M4MCS_kState_OPENED != pC->State )
{
M4OSA_TRACE1_1(
"M4MCS_getInputFileProperties(): Wrong State (%d), returning M4ERR_STATE",
pC->State);
return M4ERR_STATE;
}
/**
* Copy previously computed properties into given structure */
memcpy((void *)pFileProperties,
(void *) &pC->InputFileProperties,
sizeof(M4VIDEOEDITING_ClipProperties));
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_setOutputParams(M4MCS_Context pContext, M4MCS_OutputParams* pParams);
* @brief Set the MCS video output parameters.
* @note Must be called after M4MCS_open. Must be called before M4MCS_step.
* @param pContext (IN) MCS context
* @param pParams (IN/OUT) Transcoding parameters
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: At least one parameter is M4OSA_NULL (debug only)
* @return M4ERR_STATE: MCS is not in an appropriate state for this function to be called
* @return M4MCS_ERR_INVALID_VIDEO_FRAME_SIZE_FOR_H263 : Output video frame size parameter is
* incompatible with H263 encoding
* @return M4MCS_ERR_INVALID_VIDEO_FRAME_RATE_FOR_H263 : Output video frame size parameter is
* incompatible with H263 encoding
* @return M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FORMAT : Undefined output video format parameter
* @return M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FRAME_SIZE : Undefined output video frame size
* @return M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FRAME_RATE : Undefined output video frame rate
* @return M4MCS_ERR_UNDEFINED_OUTPUT_AUDIO_FORMAT : Undefined output audio format parameter
* @return M4MCS_ERR_DURATION_IS_NULL : Specified output parameters define a null duration stream
* (no audio and video)
******************************************************************************
*/
M4OSA_ERR M4MCS_setOutputParams( M4MCS_Context pContext,
M4MCS_OutputParams *pParams )
{
M4MCS_InternalContext *pC = (M4MCS_InternalContext *)(pContext);
M4OSA_UInt32 uiFrameWidth;
M4OSA_UInt32 uiFrameHeight;
M4OSA_ERR err;
M4OSA_TRACE2_2(
"M4MCS_setOutputParams called with pContext=0x%x, pParams=0x%x",
pContext, pParams);
/**
* Check input parameters */
M4OSA_DEBUG_IF2((M4OSA_NULL == pContext), M4ERR_PARAMETER,
"M4MCS_setOutputParams: pContext is M4OSA_NULL");
M4OSA_DEBUG_IF2((M4OSA_NULL == pParams), M4ERR_PARAMETER,
"M4MCS_setOutputParams: pParam is M4OSA_NULL");
#ifdef M4MCS_SUPPORT_STILL_PICTURE
if( pC->m_bIsStillPicture )
{
/**
* Call the corresponding still picture MCS function*/
return M4MCS_stillPicSetOutputParams(pC, pParams);
}
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
/**
* Check state automaton */
if( M4MCS_kState_OPENED != pC->State )
{
M4OSA_TRACE1_1(
"M4MCS_setOutputParams(): Wrong State (%d), returning M4ERR_STATE",
pC->State);
return M4ERR_STATE;
}
/* Ignore audio or video stream if the output do not need it, */
/* or if the input file does not have any audio or video stream */
/*FlB 26.02.2009: add mp3 as mcs output format*/
if( ( pParams->OutputVideoFormat == M4VIDEOEDITING_kNoneVideo)
|| (pC->VideoState == M4MCS_kStreamState_NOSTREAM)
|| (pParams->OutputFileType == M4VIDEOEDITING_kFileType_AMR)
|| (pParams->OutputFileType == M4VIDEOEDITING_kFileType_MP3) )
{
pC->novideo = M4OSA_TRUE;
}
if( ( pParams->OutputAudioFormat == M4VIDEOEDITING_kNoneAudio)
|| (pC->AudioState == M4MCS_kStreamState_NOSTREAM) )
{
pC->noaudio = M4OSA_TRUE;
}
if( pC->noaudio && pC->novideo )
{
M4OSA_TRACE1_0(
"!!! M4MCS_setOutputParams : clip is NULL, there is no audio, no video");
return M4MCS_ERR_DURATION_IS_NULL;
}
/* Set writer */
err = M4MCS_setCurrentWriter(pContext, pParams->OutputFileType);
M4ERR_CHECK_RETURN(err);
/* Set video parameters */
if( pC->novideo == M4OSA_FALSE )
{
/**
* Check Video Format correctness */
switch( pParams->OutputVideoFormat )
{
case M4VIDEOEDITING_kH263:
if( pParams->OutputFileType == M4VIDEOEDITING_kFileType_MP4 )
return M4MCS_ERR_H263_FORBIDDEN_IN_MP4_FILE;
pC->EncodingVideoFormat = M4ENCODER_kH263;
err = M4MCS_setCurrentVideoEncoder(pContext,
pParams->OutputVideoFormat);
M4ERR_CHECK_RETURN(err);
break;
case M4VIDEOEDITING_kMPEG4:
pC->EncodingVideoFormat = M4ENCODER_kMPEG4;
err = M4MCS_setCurrentVideoEncoder(pContext,
pParams->OutputVideoFormat);
M4ERR_CHECK_RETURN(err);
break;
case M4VIDEOEDITING_kH264:
pC->EncodingVideoFormat = M4ENCODER_kH264;
err = M4MCS_setCurrentVideoEncoder(pContext,
pParams->OutputVideoFormat);
M4ERR_CHECK_RETURN(err);
break;
case M4VIDEOEDITING_kNullVideo:
if( ( pParams->OutputFileType == M4VIDEOEDITING_kFileType_MP4)
&& (pC->InputFileProperties.VideoStreamType
== M4VIDEOEDITING_kH263) )
return M4MCS_ERR_H263_FORBIDDEN_IN_MP4_FILE;
/* Encoder needed for begin cut to generate an I-frame */
pC->EncodingVideoFormat = M4ENCODER_kNULL;
err = M4MCS_setCurrentVideoEncoder(pContext,
pC->InputFileProperties.VideoStreamType);
M4ERR_CHECK_RETURN(err);
break;
default:
M4OSA_TRACE1_1("M4MCS_setOutputParams: Undefined output video format (%d),\
returning M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FORMAT",
pParams->OutputVideoFormat);
return M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FORMAT;
}
/**
* Check Video frame size correctness */
if( M4VIDEOEDITING_kNullVideo == pParams->OutputVideoFormat )
{
uiFrameWidth =
pC->EncodingWidth = pC->InputFileProperties.uiVideoWidth;
uiFrameHeight =
pC->EncodingHeight = pC->InputFileProperties.uiVideoHeight;
/**
* Set output video profile and level */
pC->encodingVideoProfile = pC->InputFileProperties.uiVideoProfile;
/** Set the target video level, because input 3gp file may
* have wrong video level value (some encoders do not respect
* level restrictions like video resolution when content is created).
**/
pC->encodingVideoLevel = pParams->outputVideoLevel;
// Clip's original width and height may not be
// multiple of 16.
// Ensure encoding width and height are multiple of 16
uint32_t remainder = pC->EncodingWidth % 16;
if (remainder != 0) {
if (remainder >= 8) {
// Roll forward
pC->EncodingWidth =
pC->EncodingWidth + (16-remainder);
} else {
// Roll backward
pC->EncodingWidth =
pC->EncodingWidth - remainder;
}
uiFrameWidth = pC->EncodingWidth;
}
remainder = pC->EncodingHeight % 16;
if (remainder != 0) {
if (remainder >= 8) {
// Roll forward
pC->EncodingHeight =
pC->EncodingHeight + (16-remainder);
} else {
// Roll backward
pC->EncodingHeight =
pC->EncodingHeight - remainder;
}
uiFrameHeight = pC->EncodingHeight;
}
}
else
{
/**
* Set output video profile and level */
pC->encodingVideoProfile = pParams->outputVideoProfile;
pC->encodingVideoLevel = pParams->outputVideoLevel;
switch( pParams->OutputVideoFrameSize )
{
case M4VIDEOEDITING_kSQCIF:
uiFrameWidth = pC->EncodingWidth = M4ENCODER_SQCIF_Width;
uiFrameHeight = pC->EncodingHeight = M4ENCODER_SQCIF_Height;
break;
case M4VIDEOEDITING_kQQVGA:
uiFrameWidth = pC->EncodingWidth = M4ENCODER_QQVGA_Width;
uiFrameHeight = pC->EncodingHeight = M4ENCODER_QQVGA_Height;
break;
case M4VIDEOEDITING_kQCIF:
uiFrameWidth = pC->EncodingWidth = M4ENCODER_QCIF_Width;
uiFrameHeight = pC->EncodingHeight = M4ENCODER_QCIF_Height;
break;
case M4VIDEOEDITING_kQVGA:
uiFrameWidth = pC->EncodingWidth = M4ENCODER_QVGA_Width;
uiFrameHeight = pC->EncodingHeight = M4ENCODER_QVGA_Height;
break;
case M4VIDEOEDITING_kCIF:
uiFrameWidth = pC->EncodingWidth = M4ENCODER_CIF_Width;
uiFrameHeight = pC->EncodingHeight = M4ENCODER_CIF_Height;
break;
case M4VIDEOEDITING_kVGA:
uiFrameWidth = pC->EncodingWidth = M4ENCODER_VGA_Width;
uiFrameHeight = pC->EncodingHeight = M4ENCODER_VGA_Height;
break;
/* +PR LV5807 */
case M4VIDEOEDITING_kWVGA:
uiFrameWidth = pC->EncodingWidth = M4ENCODER_WVGA_Width;
uiFrameHeight = pC->EncodingHeight = M4ENCODER_WVGA_Height;
break;
case M4VIDEOEDITING_kNTSC:
uiFrameWidth = pC->EncodingWidth = M4ENCODER_NTSC_Width;
uiFrameHeight = pC->EncodingHeight = M4ENCODER_NTSC_Height;
break;
/* -PR LV5807*/
/* +CR Google */
case M4VIDEOEDITING_k640_360:
uiFrameWidth = pC->EncodingWidth = M4ENCODER_640_360_Width;
uiFrameHeight =
pC->EncodingHeight = M4ENCODER_640_360_Height;
break;
case M4VIDEOEDITING_k854_480:
uiFrameWidth =
pC->EncodingWidth = M4ENCODER_854_480_Width;
uiFrameHeight =
pC->EncodingHeight = M4ENCODER_854_480_Height;
break;
case M4VIDEOEDITING_k1280_720:
uiFrameWidth =
pC->EncodingWidth = M4ENCODER_1280_720_Width;
uiFrameHeight =
pC->EncodingHeight = M4ENCODER_1280_720_Height;
break;
case M4VIDEOEDITING_k1080_720:
uiFrameWidth =
pC->EncodingWidth = M4ENCODER_1080_720_Width;
uiFrameHeight =
pC->EncodingHeight = M4ENCODER_1080_720_Height;
break;
case M4VIDEOEDITING_k960_720:
uiFrameWidth =
pC->EncodingWidth = M4ENCODER_960_720_Width;
uiFrameHeight =
pC->EncodingHeight = M4ENCODER_960_720_Height;
break;
case M4VIDEOEDITING_k1920_1080:
uiFrameWidth =
pC->EncodingWidth = M4ENCODER_1920_1080_Width;
uiFrameHeight =
pC->EncodingHeight = M4ENCODER_1920_1080_Height;
break;
/* -CR Google */
default:
M4OSA_TRACE1_1(
"M4MCS_setOutputParams: Undefined output video frame size \
(%d), returning M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FRAME_SIZE",
pParams->OutputVideoFrameSize);
return M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FRAME_SIZE;
}
}
/**
* Compute video max au size and max chunck size.
* We do it here because it depends on the frame size only, and
* because we need it for the file size/video bitrate estimations */
pC->uiVideoMaxAuSize =
(M4OSA_UInt32)(1.5F *(M4OSA_Float)(uiFrameWidth * uiFrameHeight) \
*M4MCS_VIDEO_MIN_COMPRESSION_RATIO);
pC->uiVideoMaxChunckSize = (M4OSA_UInt32)(pC->uiVideoMaxAuSize \
*
M4MCS_VIDEO_CHUNK_AU_SIZE_RATIO); /**< from max AU size to max Chunck size */
if( 0 == pC->uiVideoMaxAuSize )
{
/* Size may be zero in case of null encoding with unrecognized stream */
M4OSA_TRACE1_0("M4MCS_setOutputParams: video frame size is 0 returning\
M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FRAME_SIZE");
return M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FRAME_SIZE;
}
/**
* Size check for H263 (only valid sizes are CIF, QCIF and SQCIF) */
if( M4VIDEOEDITING_kH263 == pParams->OutputVideoFormat )
{
switch( pParams->OutputVideoFrameSize )
{
case M4VIDEOEDITING_kSQCIF:
case M4VIDEOEDITING_kQCIF:
case M4VIDEOEDITING_kCIF:
/* OK */
break;
default:
M4OSA_TRACE1_0(
"M4MCS_setOutputParams():\
returning M4MCS_ERR_INVALID_VIDEO_FRAME_SIZE_FOR_H263");
return M4MCS_ERR_INVALID_VIDEO_FRAME_SIZE_FOR_H263;
}
}
/**
* Check Video Frame rate correctness */
if( M4VIDEOEDITING_kNullVideo != pParams->OutputVideoFormat )
{
switch( pParams->OutputVideoFrameRate )
{
case M4VIDEOEDITING_k5_FPS:
pC->EncodingVideoFramerate = M4ENCODER_k5_FPS;
break;
case M4VIDEOEDITING_k7_5_FPS:
pC->EncodingVideoFramerate = M4ENCODER_k7_5_FPS;
break;
case M4VIDEOEDITING_k10_FPS:
pC->EncodingVideoFramerate = M4ENCODER_k10_FPS;
break;
case M4VIDEOEDITING_k12_5_FPS:
pC->EncodingVideoFramerate = M4ENCODER_k12_5_FPS;
break;
case M4VIDEOEDITING_k15_FPS:
pC->EncodingVideoFramerate = M4ENCODER_k15_FPS;
break;
case M4VIDEOEDITING_k20_FPS:
pC->EncodingVideoFramerate = M4ENCODER_k20_FPS;
break;
case M4VIDEOEDITING_k25_FPS:
pC->EncodingVideoFramerate = M4ENCODER_k25_FPS;
break;
case M4VIDEOEDITING_k30_FPS:
pC->EncodingVideoFramerate = M4ENCODER_k30_FPS;
break;
default:
M4OSA_TRACE1_1(
"M4MCS_setOutputParams: Undefined output video frame rate\
(%d), returning M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FRAME_RATE",
pParams->OutputVideoFrameRate);
return M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FRAME_RATE;
}
}
/**
* Frame rate check for H263 (only dividers of 30 fps (29.97 actually)) */
if( M4VIDEOEDITING_kH263 == pParams->OutputVideoFormat )
{
switch( pC->EncodingVideoFramerate )
{
case M4ENCODER_k5_FPS:
case M4ENCODER_k7_5_FPS:
case M4ENCODER_k10_FPS:
case M4ENCODER_k15_FPS:
case M4ENCODER_k30_FPS:
/* OK */
break;
default:
M4OSA_TRACE1_0(
"M4MCS_setOutputParams():\
returning M4MCS_ERR_INVALID_VIDEO_FRAME_RATE_FOR_H263");
return M4MCS_ERR_INVALID_VIDEO_FRAME_RATE_FOR_H263;
}
}
}
/* Set audio parameters */
if( pC->noaudio == M4OSA_FALSE )
{
/**
* Check Audio Format correctness */
switch( pParams->OutputAudioFormat )
{
case M4VIDEOEDITING_kAMR_NB:
err = M4MCS_setCurrentAudioEncoder(pContext,
pParams->OutputAudioFormat);
M4ERR_CHECK_RETURN(err);
pC->AudioEncParams.Format = M4ENCODER_kAMRNB;
pC->AudioEncParams.Frequency = M4ENCODER_k8000Hz;
pC->AudioEncParams.ChannelNum = M4ENCODER_kMono;
pC->AudioEncParams.SpecifParam.AmrSID = M4ENCODER_kAmrNoSID;
break;
case M4VIDEOEDITING_kAAC:
err = M4MCS_setCurrentAudioEncoder(pContext,
pParams->OutputAudioFormat);
M4ERR_CHECK_RETURN(err);
pC->AudioEncParams.Format = M4ENCODER_kAAC;
pC->AudioEncParams.Frequency = M4ENCODER_k16000Hz;
switch( pParams->OutputAudioSamplingFrequency )
{
case M4VIDEOEDITING_k8000_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k8000Hz;
break;
case M4VIDEOEDITING_k16000_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k16000Hz;
break;
case M4VIDEOEDITING_k22050_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k22050Hz;
break;
case M4VIDEOEDITING_k24000_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k24000Hz;
break;
case M4VIDEOEDITING_k32000_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k32000Hz;
break;
case M4VIDEOEDITING_k44100_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k44100Hz;
break;
case M4VIDEOEDITING_k48000_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k48000Hz;
break;
case M4VIDEOEDITING_k11025_ASF:
case M4VIDEOEDITING_k12000_ASF:
case M4VIDEOEDITING_kDefault_ASF:
break;
}
pC->AudioEncParams.ChannelNum =
(pParams->bAudioMono == M4OSA_TRUE) ? \
M4ENCODER_kMono : M4ENCODER_kStereo;
pC->AudioEncParams.SpecifParam.AacParam.Regulation =
M4ENCODER_kAacRegulNone; //M4ENCODER_kAacBitReservoir
/* unused */
pC->AudioEncParams.SpecifParam.AacParam.bIS = M4OSA_FALSE;
pC->AudioEncParams.SpecifParam.AacParam.bMS = M4OSA_FALSE;
pC->AudioEncParams.SpecifParam.AacParam.bPNS = M4OSA_FALSE;
pC->AudioEncParams.SpecifParam.AacParam.bTNS = M4OSA_FALSE;
/* TODO change into highspeed asap */
pC->AudioEncParams.SpecifParam.AacParam.bHighSpeed =
M4OSA_FALSE;
break;
/*FlB 26.02.2009: add mp3 as mcs output format, add mp3 encoder*/
case M4VIDEOEDITING_kMP3:
err = M4MCS_setCurrentAudioEncoder(pContext,
pParams->OutputAudioFormat);
M4ERR_CHECK_RETURN(err);
pC->AudioEncParams.Format = M4ENCODER_kMP3;
pC->AudioEncParams.ChannelNum =
(pParams->bAudioMono == M4OSA_TRUE) ? \
M4ENCODER_kMono : M4ENCODER_kStereo;
pC->AudioEncParams.Frequency = M4ENCODER_k16000Hz;
switch( pParams->OutputAudioSamplingFrequency )
{
case M4VIDEOEDITING_k8000_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k8000Hz;
break;
case M4VIDEOEDITING_k11025_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k11025Hz;
break;
case M4VIDEOEDITING_k12000_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k12000Hz;
break;
case M4VIDEOEDITING_k16000_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k16000Hz;
break;
case M4VIDEOEDITING_k22050_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k22050Hz;
break;
case M4VIDEOEDITING_k24000_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k24000Hz;
break;
case M4VIDEOEDITING_k32000_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k32000Hz;
break;
case M4VIDEOEDITING_k44100_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k44100Hz;
break;
case M4VIDEOEDITING_k48000_ASF:
pC->AudioEncParams.Frequency = M4ENCODER_k48000Hz;
break;
case M4VIDEOEDITING_kDefault_ASF:
break;
}
break;
case M4VIDEOEDITING_kNullAudio:
if( pParams->pEffects == M4OSA_NULL || pParams->nbEffects == 0 )
{
/* no encoder needed */
pC->AudioEncParams.Format = M4ENCODER_kAudioNULL;
pC->AudioEncParams.Frequency =
pC->pReaderAudioStream->m_samplingFrequency;
pC->AudioEncParams.ChannelNum =
(pC->pReaderAudioStream->m_nbChannels == 1) ? \
M4ENCODER_kMono : M4ENCODER_kStereo;
}
else
{
pC->AudioEncParams.Frequency =
pC->pReaderAudioStream->m_samplingFrequency;
pC->AudioEncParams.ChannelNum =
(pC->pReaderAudioStream->m_nbChannels == 1) ? \
M4ENCODER_kMono : M4ENCODER_kStereo;
switch( pC->InputFileProperties.AudioStreamType )
{
case M4VIDEOEDITING_kAMR_NB:
M4OSA_TRACE3_0(
"M4MCS_setOutputParams calling \
M4MCS_setCurrentAudioEncoder M4VIDEOEDITING_kNull, AMR");
err = M4MCS_setCurrentAudioEncoder(pContext,
pC->InputFileProperties.AudioStreamType);
M4ERR_CHECK_RETURN(err);
pC->AudioEncParams.Format = M4ENCODER_kAMRNB;
pC->AudioEncParams.Frequency = M4ENCODER_k8000Hz;
pC->AudioEncParams.ChannelNum = M4ENCODER_kMono;
if( pC->pReaderAudioStream->m_samplingFrequency
!= 8000 )
{
pC->AudioEncParams.Format = M4ENCODER_kAMRNB;
}
pC->AudioEncParams.SpecifParam.AmrSID =
M4ENCODER_kAmrNoSID;
break;
case M4VIDEOEDITING_kAAC:
M4OSA_TRACE3_0(
"M4MCS_setOutputParams calling \
M4MCS_setCurrentAudioEncoder M4VIDEOEDITING_kNull, AAC");
err = M4MCS_setCurrentAudioEncoder(pContext,
pC->InputFileProperties.AudioStreamType);
M4ERR_CHECK_RETURN(err);
pC->AudioEncParams.Format = M4ENCODER_kAAC;
pC->AudioEncParams.SpecifParam.AacParam.Regulation =
M4ENCODER_kAacRegulNone; //M4ENCODER_kAacBitReservoir
pC->AudioEncParams.Frequency = M4ENCODER_k16000Hz;
pC->AudioEncParams.Frequency = M4ENCODER_k16000Hz;
switch( pC->pReaderAudioStream->
m_samplingFrequency )
{
case 16000:
pC->AudioEncParams.Frequency =
M4ENCODER_k16000Hz;
break;
case 22050:
pC->AudioEncParams.Frequency =
M4ENCODER_k22050Hz;
break;
case 24000:
pC->AudioEncParams.Frequency =
M4ENCODER_k24000Hz;
break;
case 32000:
pC->AudioEncParams.Frequency =
M4ENCODER_k32000Hz;
break;
case 44100:
pC->AudioEncParams.Frequency =
M4ENCODER_k44100Hz;
break;
case 48000:
pC->AudioEncParams.Frequency =
M4ENCODER_k48000Hz;
break;
default:
pC->AudioEncParams.Format = M4ENCODER_kAAC;
break;
}
/* unused */
pC->AudioEncParams.SpecifParam.AacParam.bIS =
M4OSA_FALSE;
pC->AudioEncParams.SpecifParam.AacParam.bMS =
M4OSA_FALSE;
pC->AudioEncParams.SpecifParam.AacParam.bPNS =
M4OSA_FALSE;
pC->AudioEncParams.SpecifParam.AacParam.bTNS =
M4OSA_FALSE;
/* TODO change into highspeed asap */
pC->AudioEncParams.SpecifParam.AacParam.bHighSpeed =
M4OSA_FALSE;
break;
case M4VIDEOEDITING_kMP3:
M4OSA_TRACE3_0(
"M4MCS_setOutputParams calling\
M4MCS_setCurrentAudioEncoder M4VIDEOEDITING_kNull, MP3");
err = M4MCS_setCurrentAudioEncoder(pContext,
pC->InputFileProperties.AudioStreamType);
M4ERR_CHECK_RETURN(err);
pC->AudioEncParams.Format = M4ENCODER_kMP3;
pC->AudioEncParams.Frequency = M4ENCODER_k16000Hz;
switch( pC->pReaderAudioStream->
m_samplingFrequency )
{
case 8000:
pC->AudioEncParams.Frequency =
M4ENCODER_k8000Hz;
break;
case 16000:
pC->AudioEncParams.Frequency =
M4ENCODER_k16000Hz;
break;
case 22050:
pC->AudioEncParams.Frequency =
M4ENCODER_k22050Hz;
break;
case 24000:
pC->AudioEncParams.Frequency =
M4ENCODER_k24000Hz;
break;
case 32000:
pC->AudioEncParams.Frequency =
M4ENCODER_k32000Hz;
break;
case 44100:
pC->AudioEncParams.Frequency =
M4ENCODER_k44100Hz;
break;
case 48000:
pC->AudioEncParams.Frequency =
M4ENCODER_k48000Hz;
break;
default:
pC->AudioEncParams.Format = M4ENCODER_kMP3;
break;
}
break;
case M4VIDEOEDITING_kEVRC:
case M4VIDEOEDITING_kUnsupportedAudio:
default:
M4OSA_TRACE1_1(
"M4MCS_setOutputParams: Output audio format (%d) is\
incompatible with audio effects, returning \
M4MCS_ERR_UNDEFINED_OUTPUT_AUDIO_FORMAT",
pC->InputFileProperties.AudioStreamType);
return M4MCS_ERR_UNDEFINED_OUTPUT_AUDIO_FORMAT;
}
}
break;
/* EVRC
// case M4VIDEOEDITING_kEVRC:
//
// err = M4MCS_setCurrentAudioEncoder(pContext, pParams->\
// OutputAudioFormat);
// M4ERR_CHECK_RETURN(err);
//
// pC->AudioEncParams.Format = M4ENCODER_kEVRC;
// pC->AudioEncParams.Frequency = M4ENCODER_k8000Hz;
// pC->AudioEncParams.ChannelNum = M4ENCODER_kMono;
// break; */
default:
M4OSA_TRACE1_1("M4MCS_setOutputParams: Undefined output audio format (%d),\
returning M4MCS_ERR_UNDEFINED_OUTPUT_AUDIO_FORMAT",
pParams->OutputAudioFormat);
return M4MCS_ERR_UNDEFINED_OUTPUT_AUDIO_FORMAT;
}
}
if( pParams->pOutputPCMfile != M4OSA_NULL )
{
pC->pOutputPCMfile = pParams->pOutputPCMfile;
/* Open output PCM file */
pC->pOsaFileWritPtr->openWrite(&(pC->pOutputPCMfile),
pParams->pOutputPCMfile, M4OSA_kFileWrite);
}
else
{
pC->pOutputPCMfile = M4OSA_NULL;
}
/*Store media rendering parameter into the internal context*/
pC->MediaRendering = pParams->MediaRendering;
/* Add audio effects*/
/*Copy MCS effects structure into internal context*/
if( pParams->nbEffects > 0 )
{
M4OSA_UInt32 j = 0;
pC->nbEffects = pParams->nbEffects;
pC->pEffects = (M4MCS_EffectSettings *)M4OSA_32bitAlignedMalloc(pC->nbEffects \
*sizeof(M4MCS_EffectSettings), M4MCS,
(M4OSA_Char *)"Allocation of effects list");
if( pC->pEffects == M4OSA_NULL )
{
M4OSA_TRACE1_0("M4MCS_setOutputParams(): allocation error");
return M4ERR_ALLOC;
}
for ( j = 0; j < pC->nbEffects; j++ )
{
/* Copy effect to "local" structure */
memcpy((void *) &(pC->pEffects[j]),
(void *) &(pParams->pEffects[j]),
sizeof(M4MCS_EffectSettings));
switch( pC->pEffects[j].AudioEffectType )
{
case M4MCS_kAudioEffectType_None:
M4OSA_TRACE3_1(
"M4MCS_setOutputParams(): effect type %i is None", j);
pC->pEffects[j].pExtAudioEffectFctCtxt = M4OSA_NULL;
pC->pEffects[j].ExtAudioEffectFct = M4OSA_NULL;
break;
case M4MCS_kAudioEffectType_FadeIn:
M4OSA_TRACE3_1(
"M4MCS_setOutputParams(): effect type %i is FadeIn", j);
pC->pEffects[j].pExtAudioEffectFctCtxt = M4OSA_NULL;
pC->pEffects[j].ExtAudioEffectFct =
M4MCS_editAudioEffectFct_FadeIn;
break;
case M4MCS_kAudioEffectType_FadeOut:
M4OSA_TRACE3_1(
"M4MCS_setOutputParams(): effect type %i is FadeOut",
j);
pC->pEffects[j].pExtAudioEffectFctCtxt = M4OSA_NULL;
pC->pEffects[j].ExtAudioEffectFct =
M4MCS_editAudioEffectFct_FadeOut;
break;
case M4MCS_kAudioEffectType_External:
M4OSA_TRACE3_1(
"M4MCS_setOutputParams(): effect type %i is External",
j);
if( pParams->pEffects != M4OSA_NULL )
{
if( pParams->pEffects[j].ExtAudioEffectFct
== M4OSA_NULL )
{
M4OSA_TRACE1_1("M4MCS_setOutputParams(): no external effect function\
associated to external effect number %i", j);
return M4ERR_PARAMETER;
}
pC->pEffects[j].pExtAudioEffectFctCtxt =
pParams->pEffects[j].pExtAudioEffectFctCtxt;
pC->pEffects[j].ExtAudioEffectFct =
pParams->pEffects[j].ExtAudioEffectFct;
}
break;
default:
M4OSA_TRACE1_0(
"M4MCS_setOutputParams(): effect type not recognized");
return M4ERR_PARAMETER;
}
}
}
else
{
pC->nbEffects = 0;
pC->pEffects = M4OSA_NULL;
}
/**
* Update state automaton */
pC->State = M4MCS_kState_SET;
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_setOutputParams(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_setEncodingParams(M4MCS_Context pContext, M4MCS_EncodingParams* pRates)
* @brief Set the values of the encoding parameters
* @note Must be called before M4MCS_checkParamsAndStart().
* @param pContext (IN) MCS context
* @param pRates (IN) Transcoding parameters
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: At least one parameter is M4OSA_NULL (debug only)
* @return M4ERR_STATE: MCS is not in an appropriate state for this function to be called
* @return M4MCS_ERR_AUDIOBITRATE_TOO_HIGH: Audio bitrate too high (we limit to 96 kbps)
* @return M4MCS_ERR_AUDIOBITRATE_TOO_LOW: Audio bitrate is too low (16 kbps min for aac, 12.2
* for amr, 8 for mp3)
* @return M4MCS_ERR_BEGIN_CUT_EQUALS_END_CUT: Begin cut and End cut are equals
* @return M4MCS_ERR_BEGIN_CUT_LARGER_THAN_DURATION: Begin cut time is larger than the input clip
* duration
* @return M4MCS_ERR_END_CUT_SMALLER_THAN_BEGIN_CUT: End cut time is smaller than begin cut time
* @return M4MCS_ERR_MAXFILESIZE_TOO_SMALL: Not enough space to store whole output file at given
* bitrates
* @return M4MCS_ERR_VIDEOBITRATE_TOO_HIGH: Video bitrate too high (we limit to 800 kbps)
* @return M4MCS_ERR_VIDEOBITRATE_TOO_LOW: Video bitrate too low
******************************************************************************
*/
M4OSA_ERR M4MCS_setEncodingParams( M4MCS_Context pContext,
M4MCS_EncodingParams *pRates )
{
M4MCS_InternalContext *pC = (M4MCS_InternalContext *)(pContext);
M4OSA_UInt32 j = 0;
M4OSA_TRACE2_2(
"M4MCS_setEncodingParams called with pContext=0x%x, pRates=0x%x",
pContext, pRates);
/**
* Check input parameters */
M4OSA_DEBUG_IF2((M4OSA_NULL == pContext), M4ERR_PARAMETER,
"M4MCS_setEncodingParams: pContext is M4OSA_NULL");
M4OSA_DEBUG_IF2((M4OSA_NULL == pRates), M4ERR_PARAMETER,
"M4MCS_setEncodingParams: pRates is M4OSA_NULL");
#ifdef M4MCS_SUPPORT_STILL_PICTURE
if( pC->m_bIsStillPicture )
{
/**
* Call the corresponding still picture MCS function*/
return M4MCS_stillPicSetEncodingParams(pC, pRates);
}
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
/**
* Check state automaton */
if( M4MCS_kState_SET != pC->State )
{
M4OSA_TRACE1_1(
"M4MCS_setEncodingParams(): Wrong State (%d), returning M4ERR_STATE",
pC->State);
return M4ERR_STATE;
}
/* Set given values */
pC->uiVideoBitrate = pRates->OutputVideoBitrate;
pC->uiAudioBitrate = pRates->OutputAudioBitrate;
pC->uiBeginCutTime = pRates->BeginCutTime;
pC->uiEndCutTime = pRates->EndCutTime;
pC->uiMaxFileSize = pRates->OutputFileSize;
/**
* Check begin cut time validity */
if( pC->uiBeginCutTime >= pC->InputFileProperties.uiClipDuration )
{
M4OSA_TRACE1_2("M4MCS_setEncodingParams(): Begin cut larger than duration (%d>%d),\
returning M4MCS_ERR_BEGIN_CUT_LARGER_THAN_DURATION",
pC->uiBeginCutTime, pC->InputFileProperties.uiClipDuration);
return M4MCS_ERR_BEGIN_CUT_LARGER_THAN_DURATION;
}
/**
* If end cut time is too large, we set it to the clip duration */
if( pC->uiEndCutTime > pC->InputFileProperties.uiClipDuration )
{
pC->uiEndCutTime = pC->InputFileProperties.uiClipDuration;
}
/**
* Check end cut time validity */
if( pC->uiEndCutTime > 0 )
{
if( pC->uiEndCutTime < pC->uiBeginCutTime )
{
M4OSA_TRACE1_2("M4MCS_setEncodingParams(): Begin cut greater than end cut (%d,%d), \
returning M4MCS_ERR_END_CUT_SMALLER_THAN_BEGIN_CUT",
pC->uiBeginCutTime, pC->uiEndCutTime);
return M4MCS_ERR_END_CUT_SMALLER_THAN_BEGIN_CUT;
}
if( pC->uiEndCutTime == pC->uiBeginCutTime )
{
M4OSA_TRACE1_2("M4MCS_setEncodingParams(): Begin and End cuts are equal (%d,%d),\
returning M4MCS_ERR_BEGIN_CUT_EQUALS_END_CUT",
pC->uiBeginCutTime, pC->uiEndCutTime);
return M4MCS_ERR_BEGIN_CUT_EQUALS_END_CUT;
}
}
/**
* FlB 2009.03.04: check audio effects start time and duration validity*/
for ( j = 0; j < pC->nbEffects; j++ )
{
M4OSA_UInt32 outputEndCut = pC->uiEndCutTime;
if( pC->uiEndCutTime == 0 )
{
outputEndCut = pC->InputFileProperties.uiClipDuration;
}
if( pC->pEffects[j].uiStartTime > (outputEndCut - pC->uiBeginCutTime) )
{
M4OSA_TRACE1_2("M4MCS_setEncodingParams(): Effects start time is larger than\
duration (%d,%d), returning M4ERR_PARAMETER",
pC->pEffects[j].uiStartTime,
(pC->uiEndCutTime - pC->uiBeginCutTime));
return M4ERR_PARAMETER;
}
if( pC->pEffects[j].uiStartTime + pC->pEffects[j].uiDuration > \
(outputEndCut - pC->uiBeginCutTime) )
{
/* Re-adjust the effect duration until the end of the output clip*/
pC->pEffects[j].uiDuration = (outputEndCut - pC->uiBeginCutTime) - \
pC->pEffects[j].uiStartTime;
}
}
/* Check audio bitrate consistency */
if( ( pC->noaudio == M4OSA_FALSE)
&& (pC->AudioEncParams.Format != M4ENCODER_kAudioNULL) )
{
if( pC->uiAudioBitrate != M4VIDEOEDITING_kUndefinedBitrate )
{
if( pC->AudioEncParams.Format == M4ENCODER_kAMRNB )
{
if( pC->uiAudioBitrate > M4VIDEOEDITING_k12_2_KBPS )
return M4MCS_ERR_AUDIOBITRATE_TOO_HIGH;
if( pC->uiAudioBitrate < M4VIDEOEDITING_k12_2_KBPS )
return M4MCS_ERR_AUDIOBITRATE_TOO_LOW;
}
//EVRC
// else if(pC->AudioEncParams.Format == M4ENCODER_kEVRC)
// {
// if(pC->uiAudioBitrate > M4VIDEOEDITING_k9_2_KBPS)
// return M4MCS_ERR_AUDIOBITRATE_TOO_HIGH;
// if(pC->uiAudioBitrate < M4VIDEOEDITING_k9_2_KBPS)
// return M4MCS_ERR_AUDIOBITRATE_TOO_LOW;
// }
/*FlB 26.02.2009: add mp3 as mcs output format, add mp3 encoder*/
else if( pC->AudioEncParams.Format == M4ENCODER_kMP3 )
{
if( pC->AudioEncParams.Frequency >= M4ENCODER_k32000Hz )
{
/*Mpeg layer 1*/
if( pC->uiAudioBitrate > 320000 )
return M4MCS_ERR_AUDIOBITRATE_TOO_HIGH;
if( pC->uiAudioBitrate < 32000 )
return M4MCS_ERR_AUDIOBITRATE_TOO_LOW;
}
else if( pC->AudioEncParams.Frequency >= M4ENCODER_k16000Hz )
{
/*Mpeg layer 2*/
if( pC->uiAudioBitrate > 160000 )
return M4MCS_ERR_AUDIOBITRATE_TOO_HIGH;
if( ( pC->uiAudioBitrate < 8000
&& pC->AudioEncParams.ChannelNum == M4ENCODER_kMono)
|| (pC->uiAudioBitrate < 16000
&& pC->AudioEncParams.ChannelNum
== M4ENCODER_kStereo) )
return M4MCS_ERR_AUDIOBITRATE_TOO_LOW;
}
else if( pC->AudioEncParams.Frequency == M4ENCODER_k8000Hz
|| pC->AudioEncParams.Frequency == M4ENCODER_k11025Hz
|| pC->AudioEncParams.Frequency == M4ENCODER_k12000Hz )
{
/*Mpeg layer 2.5*/
if( pC->uiAudioBitrate > 64000 )
return M4MCS_ERR_AUDIOBITRATE_TOO_HIGH;
if( ( pC->uiAudioBitrate < 8000
&& pC->AudioEncParams.ChannelNum == M4ENCODER_kMono)
|| (pC->uiAudioBitrate < 16000
&& pC->AudioEncParams.ChannelNum
== M4ENCODER_kStereo) )
return M4MCS_ERR_AUDIOBITRATE_TOO_LOW;
}
else
{
M4OSA_TRACE1_1("M4MCS_setEncodingParams: MP3 audio sampling frequency error\
(%d)", pC->AudioEncParams.Frequency);
return M4ERR_PARAMETER;
}
}
else
{
if( pC->uiAudioBitrate > M4VIDEOEDITING_k192_KBPS )
return M4MCS_ERR_AUDIOBITRATE_TOO_HIGH;
if( pC->AudioEncParams.ChannelNum == M4ENCODER_kMono )
{
if( pC->uiAudioBitrate < M4VIDEOEDITING_k16_KBPS )
return M4MCS_ERR_AUDIOBITRATE_TOO_LOW;
}
else
{
if( pC->uiAudioBitrate < M4VIDEOEDITING_k32_KBPS )
return M4MCS_ERR_AUDIOBITRATE_TOO_LOW;
}
}
}
}
else
{
/* NULL audio : copy input file bitrate */
pC->uiAudioBitrate = pC->InputFileProperties.uiAudioBitrate;
}
/* Check video bitrate consistency */
if( ( pC->novideo == M4OSA_FALSE)
&& (pC->EncodingVideoFormat != M4ENCODER_kNULL) )
{
if( pC->uiVideoBitrate != M4VIDEOEDITING_kUndefinedBitrate )
{
if( pC->uiVideoBitrate > M4VIDEOEDITING_k8_MBPS )
return M4MCS_ERR_VIDEOBITRATE_TOO_HIGH;
if( pC->uiVideoBitrate < M4VIDEOEDITING_k16_KBPS )
return M4MCS_ERR_VIDEOBITRATE_TOO_LOW;
}
}
else
{
/* NULL video : copy input file bitrate */
pC->uiVideoBitrate = pC->InputFileProperties.uiVideoBitrate;
}
if( pRates->OutputVideoTimescale <= 30000
&& pRates->OutputVideoTimescale > 0 )
{
pC->outputVideoTimescale = pRates->OutputVideoTimescale;
}
/* Check file size */
return M4MCS_intCheckMaxFileSize(pC);
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_getExtendedEncodingParams(M4MCS_Context pContext, M4MCS_EncodingParams* pRates)
* @brief Get the extended values of the encoding parameters
* @note Could be called after M4MCS_setEncodingParams.
* @param pContext (IN) MCS context
* @param pRates (OUT) Transcoding parameters
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: At least one parameter is M4OSA_NULL (debug only)
* @return M4ERR_STATE: MCS is not in an appropriate state for this function to be called
* @return M4MCS_ERR_BEGIN_CUT_EQUALS_END_CUT: Encoding settings would produce a null duration
* clip = encoding is impossible
******************************************************************************
*/
M4OSA_ERR M4MCS_getExtendedEncodingParams( M4MCS_Context pContext,
M4MCS_EncodingParams *pRates )
{
M4MCS_InternalContext *pC = (M4MCS_InternalContext *)(pContext);
M4OSA_Int32 minaudiobitrate;
M4OSA_Int32 minvideobitrate;
M4OSA_Int32 maxcombinedbitrate;
M4OSA_Int32 calcbitrate;
M4OSA_UInt32 maxduration;
M4OSA_UInt32 calcduration;
M4OSA_Bool fixed_audio = M4OSA_FALSE;
M4OSA_Bool fixed_video = M4OSA_FALSE;
#ifdef M4MCS_SUPPORT_STILL_PICTURE
if( pC->m_bIsStillPicture )
{
/**
* Call the corresponding still picture MCS function*/
return M4MCS_stillPicGetExtendedEncodingParams(pC, pRates);
}
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
pRates->OutputVideoBitrate =
M4MCS_intGetNearestBitrate(pC->uiVideoBitrate, 0);
pRates->OutputAudioBitrate =
M4MCS_intGetNearestBitrate(pC->uiAudioBitrate, 0);
pRates->BeginCutTime = pC->uiBeginCutTime;
pRates->EndCutTime = pC->uiEndCutTime;
pRates->OutputFileSize = pC->uiMaxFileSize;
/**
* Check state automaton */
if( M4MCS_kState_SET != pC->State )
{
M4OSA_TRACE1_1("M4MCS_getExtendedEncodingParams(): Wrong State (%d),\
returning M4ERR_STATE", pC->State);
return M4ERR_STATE;
}
/* Compute min audio bitrate */
if( pC->noaudio )
{
fixed_audio = M4OSA_TRUE;
pRates->OutputAudioBitrate = 0;
minaudiobitrate = 0;
}
else if( pC->AudioEncParams.Format == M4ENCODER_kAudioNULL )
{
fixed_audio = M4OSA_TRUE;
pRates->OutputAudioBitrate = pC->InputFileProperties.uiAudioBitrate;
minaudiobitrate = pC->InputFileProperties.uiAudioBitrate;
}
else
{
if( pC->AudioEncParams.Format == M4ENCODER_kAMRNB )
{
fixed_audio = M4OSA_TRUE;
pRates->OutputAudioBitrate = M4VIDEOEDITING_k12_2_KBPS;
minaudiobitrate = M4VIDEOEDITING_k12_2_KBPS;
}
//EVRC
// if(pC->AudioEncParams.Format == M4ENCODER_kEVRC)
// {
// fixed_audio = M4OSA_TRUE;
// pRates->OutputAudioBitrate = M4VIDEOEDITING_k9_2_KBPS;
// minaudiobitrate = M4VIDEOEDITING_k9_2_KBPS;
// }
/*FlB 26.02.2009: add mp3 as mcs output format*/
else if( pC->AudioEncParams.Format == M4ENCODER_kMP3 )
{
minaudiobitrate =
M4VIDEOEDITING_k32_KBPS; /*Default min audio bitrate for MPEG layer 1,
for both mono and stereo channels*/
}
else
{
minaudiobitrate = (pC->AudioEncParams.ChannelNum == M4ENCODER_kMono)
? M4VIDEOEDITING_k16_KBPS : M4VIDEOEDITING_k32_KBPS;
}
}
/* Check audio bitrate is in the correct range */
if( fixed_audio == M4OSA_FALSE )
{
if( ( pC->uiAudioBitrate > 0)
&& (pRates->OutputAudioBitrate < minaudiobitrate) )
{
pRates->OutputAudioBitrate = minaudiobitrate;
}
if( pRates->OutputAudioBitrate > M4VIDEOEDITING_k96_KBPS )
{
pRates->OutputAudioBitrate = M4VIDEOEDITING_k96_KBPS;
}
}
/* Compute min video bitrate */
if( pC->novideo )
{
fixed_video = M4OSA_TRUE;
pRates->OutputVideoBitrate = 0;
minvideobitrate = 0;
}
else if( pC->EncodingVideoFormat == M4ENCODER_kNULL )
{
fixed_video = M4OSA_TRUE;
pRates->OutputVideoBitrate = pC->InputFileProperties.uiVideoBitrate;
minvideobitrate = pC->InputFileProperties.uiVideoBitrate;
}
else
{
minvideobitrate = M4VIDEOEDITING_k16_KBPS;
}
/* Check video bitrate is in the correct range */
if( fixed_video == M4OSA_FALSE )
{
if( ( pC->uiVideoBitrate > 0)
&& (pRates->OutputVideoBitrate < minvideobitrate) )
{
pRates->OutputVideoBitrate = minvideobitrate;
}
/*+ New Encoder bitrates */
if( pRates->OutputVideoBitrate > M4VIDEOEDITING_k8_MBPS )
{
pRates->OutputVideoBitrate = M4VIDEOEDITING_k8_MBPS;
}
/*- New Encoder bitrates */
}
/* Check cut times are in correct range */
if( ( pRates->BeginCutTime >= pC->InputFileProperties.uiClipDuration)
|| (( pRates->BeginCutTime >= pRates->EndCutTime)
&& (pRates->EndCutTime > 0)) )
{
pRates->BeginCutTime = 0;
pRates->EndCutTime = 0;
}
if( pRates->EndCutTime == 0 )
calcduration =
pC->InputFileProperties.uiClipDuration - pRates->BeginCutTime;
else
calcduration = pRates->EndCutTime - pRates->BeginCutTime;
/* priority 1 : max file size */
if( pRates->OutputFileSize == 0 )
{
/* we can put maximum values for all undefined parameters */
if( pRates->EndCutTime == 0 )
{
pRates->EndCutTime = pC->InputFileProperties.uiClipDuration;
}
if( ( pRates->OutputAudioBitrate == M4VIDEOEDITING_kUndefinedBitrate)
&& (fixed_audio == M4OSA_FALSE) )
{
pRates->OutputAudioBitrate = M4VIDEOEDITING_k96_KBPS;
}
if( ( pRates->OutputVideoBitrate == M4VIDEOEDITING_kUndefinedBitrate)
&& (fixed_video == M4OSA_FALSE) )
{
/*+ New Encoder bitrates */
pRates->OutputVideoBitrate = M4VIDEOEDITING_k8_MBPS;
/*- New Encoder bitrates */
}
}
else
{
/* compute max duration */
maxduration = (M4OSA_UInt32)(pRates->OutputFileSize
/ M4MCS_MOOV_OVER_FILESIZE_RATIO
/ (minvideobitrate + minaudiobitrate) * 8000.0);
if( maxduration
+ pRates->BeginCutTime > pC->InputFileProperties.uiClipDuration )
{
maxduration =
pC->InputFileProperties.uiClipDuration - pRates->BeginCutTime;
}
/* priority 2 : cut times */
if( ( pRates->BeginCutTime > 0) || (pRates->EndCutTime > 0) )
{
if( calcduration > maxduration )
{
calcduration = maxduration;
}
if( calcduration == 0 )
{
return M4MCS_ERR_BEGIN_CUT_EQUALS_END_CUT;
}
maxcombinedbitrate = (M4OSA_UInt32)(pRates->OutputFileSize
/ M4MCS_MOOV_OVER_FILESIZE_RATIO / (calcduration / 8000.0));
/* audio and video bitrates */
if( ( pRates->OutputAudioBitrate
== M4VIDEOEDITING_kUndefinedBitrate)
&& (pRates->OutputVideoBitrate
== M4VIDEOEDITING_kUndefinedBitrate) )
{
/* set audio = 1/3 and video = 2/3 */
if( fixed_audio == M4OSA_FALSE )
{
if( pC->novideo )
pRates->OutputAudioBitrate =
M4MCS_intGetNearestBitrate(maxcombinedbitrate, 0);
else
pRates->OutputAudioBitrate =
M4MCS_intGetNearestBitrate(maxcombinedbitrate / 3,
0);
if( pRates->OutputAudioBitrate < minaudiobitrate )
pRates->OutputAudioBitrate = minaudiobitrate;
if( pRates->OutputAudioBitrate > M4VIDEOEDITING_k96_KBPS )
pRates->OutputAudioBitrate = M4VIDEOEDITING_k96_KBPS;
}
if( fixed_video == M4OSA_FALSE )
{
pRates->OutputVideoBitrate =
M4MCS_intGetNearestBitrate(maxcombinedbitrate
- pRates->OutputAudioBitrate, 0);
if( pRates->OutputVideoBitrate < minvideobitrate )
pRates->OutputVideoBitrate = minvideobitrate;
if( pRates->OutputVideoBitrate > M4VIDEOEDITING_k8_MBPS )
pRates->OutputVideoBitrate =
M4VIDEOEDITING_k8_MBPS; /*+ New Encoder
bitrates */
}
}
else
{
/* priority 3 : audio bitrate */
if( pRates->OutputAudioBitrate
!= M4VIDEOEDITING_kUndefinedBitrate )
{
while( ( fixed_audio == M4OSA_FALSE)
&& (pRates->OutputAudioBitrate >= minaudiobitrate)
&& (pRates->OutputAudioBitrate
+ minvideobitrate > maxcombinedbitrate) )
{
pRates->OutputAudioBitrate =
M4MCS_intGetNearestBitrate(
pRates->OutputAudioBitrate, -1);
}
if( ( fixed_audio == M4OSA_FALSE)
&& (pRates->OutputAudioBitrate < minaudiobitrate) )
{
pRates->OutputAudioBitrate = minaudiobitrate;
}
calcbitrate = M4MCS_intGetNearestBitrate(
maxcombinedbitrate
- pRates->OutputAudioBitrate, 0);
if( calcbitrate < minvideobitrate )
calcbitrate = minvideobitrate;
if( calcbitrate > M4VIDEOEDITING_k8_MBPS )
calcbitrate = M4VIDEOEDITING_k8_MBPS;
if( ( fixed_video == M4OSA_FALSE)
&& (( pRates->OutputVideoBitrate
== M4VIDEOEDITING_kUndefinedBitrate)
|| (pRates->OutputVideoBitrate > calcbitrate)) )
{
pRates->OutputVideoBitrate = calcbitrate;
}
}
else
{
/* priority 4 : video bitrate */
if( pRates->OutputVideoBitrate
!= M4VIDEOEDITING_kUndefinedBitrate )
{
while( ( fixed_video == M4OSA_FALSE)
&& (pRates->OutputVideoBitrate >= minvideobitrate)
&& (pRates->OutputVideoBitrate
+ minaudiobitrate > maxcombinedbitrate) )
{
pRates->OutputVideoBitrate =
M4MCS_intGetNearestBitrate(
pRates->OutputVideoBitrate, -1);
}
if( ( fixed_video == M4OSA_FALSE)
&& (pRates->OutputVideoBitrate < minvideobitrate) )
{
pRates->OutputVideoBitrate = minvideobitrate;
}
calcbitrate =
M4MCS_intGetNearestBitrate(maxcombinedbitrate
- pRates->OutputVideoBitrate, 0);
if( calcbitrate < minaudiobitrate )
calcbitrate = minaudiobitrate;
if( calcbitrate > M4VIDEOEDITING_k96_KBPS )
calcbitrate = M4VIDEOEDITING_k96_KBPS;
if( ( fixed_audio == M4OSA_FALSE)
&& (( pRates->OutputAudioBitrate
== M4VIDEOEDITING_kUndefinedBitrate)
|| (pRates->OutputAudioBitrate > calcbitrate)) )
{
pRates->OutputAudioBitrate = calcbitrate;
}
}
}
}
}
else
{
/* priority 3 : audio bitrate */
if( pRates->OutputAudioBitrate != M4VIDEOEDITING_kUndefinedBitrate )
{
/* priority 4 : video bitrate */
if( pRates->OutputVideoBitrate
!= M4VIDEOEDITING_kUndefinedBitrate )
{
/* compute max duration */
maxduration = (M4OSA_UInt32)(pRates->OutputFileSize
/ M4MCS_MOOV_OVER_FILESIZE_RATIO
/ (pRates->OutputVideoBitrate
+ pRates->OutputAudioBitrate) * 8000.0);
if( maxduration + pRates->BeginCutTime
> pC->InputFileProperties.uiClipDuration )
{
maxduration = pC->InputFileProperties.uiClipDuration
- pRates->BeginCutTime;
}
if( calcduration > maxduration )
{
calcduration = maxduration;
}
if( calcduration == 0 )
{
return M4MCS_ERR_BEGIN_CUT_EQUALS_END_CUT;
}
}
else
{
/* start with min video bitrate */
pRates->OutputVideoBitrate = minvideobitrate;
/* compute max duration */
maxduration = (M4OSA_UInt32)(pRates->OutputFileSize
/ M4MCS_MOOV_OVER_FILESIZE_RATIO
/ (pRates->OutputVideoBitrate
+ pRates->OutputAudioBitrate) * 8000.0);
if( maxduration + pRates->BeginCutTime
> pC->InputFileProperties.uiClipDuration )
{
maxduration = pC->InputFileProperties.uiClipDuration
- pRates->BeginCutTime;
}
if( calcduration > maxduration )
{
calcduration = maxduration;
}
if( calcduration == 0 )
{
return M4MCS_ERR_BEGIN_CUT_EQUALS_END_CUT;
}
/* search max possible video bitrate */
maxcombinedbitrate = (M4OSA_UInt32)(pRates->OutputFileSize
/ M4MCS_MOOV_OVER_FILESIZE_RATIO
/ (calcduration / 8000.0));
while( ( fixed_video == M4OSA_FALSE)
&& (pRates->OutputVideoBitrate
< M4VIDEOEDITING_k8_MBPS) ) /*+ New Encoder bitrates */
{
calcbitrate = M4MCS_intGetNearestBitrate(
pRates->OutputVideoBitrate, +1);
if( calcbitrate
+ pRates->OutputAudioBitrate <= maxcombinedbitrate )
pRates->OutputVideoBitrate = calcbitrate;
else
break;
}
}
}
else
{
/* priority 4 : video bitrate */
if( pRates->OutputVideoBitrate
!= M4VIDEOEDITING_kUndefinedBitrate )
{
/* start with min audio bitrate */
pRates->OutputAudioBitrate = minaudiobitrate;
/* compute max duration */
maxduration = (M4OSA_UInt32)(pRates->OutputFileSize
/ M4MCS_MOOV_OVER_FILESIZE_RATIO
/ (pRates->OutputVideoBitrate
+ pRates->OutputAudioBitrate) * 8000.0);
if( maxduration + pRates->BeginCutTime
> pC->InputFileProperties.uiClipDuration )
{
maxduration = pC->InputFileProperties.uiClipDuration
- pRates->BeginCutTime;
}
if( calcduration > maxduration )
{
calcduration = maxduration;
}
if( calcduration == 0 )
{
return M4MCS_ERR_BEGIN_CUT_EQUALS_END_CUT;
}
/* search max possible audio bitrate */
maxcombinedbitrate = (M4OSA_UInt32)(pRates->OutputFileSize
/ M4MCS_MOOV_OVER_FILESIZE_RATIO
/ (calcduration / 8000.0));
while( ( fixed_audio == M4OSA_FALSE)
&& (pRates->OutputAudioBitrate
< M4VIDEOEDITING_k96_KBPS) )
{
calcbitrate = M4MCS_intGetNearestBitrate(
pRates->OutputAudioBitrate, +1);
if( calcbitrate
+ pRates->OutputVideoBitrate <= maxcombinedbitrate )
pRates->OutputAudioBitrate = calcbitrate;
else
break;
}
}
else
{
/* compute max duration */
maxduration = (M4OSA_UInt32)(pRates->OutputFileSize
/ M4MCS_MOOV_OVER_FILESIZE_RATIO
/ (minvideobitrate + minaudiobitrate) * 8000.0);
if( maxduration + pRates->BeginCutTime
> pC->InputFileProperties.uiClipDuration )
{
maxduration = pC->InputFileProperties.uiClipDuration
- pRates->BeginCutTime;
}
if( calcduration > maxduration )
{
calcduration = maxduration;
}
if( calcduration == 0 )
{
return M4MCS_ERR_BEGIN_CUT_EQUALS_END_CUT;
}
/* set audio = 1/3 and video = 2/3 */
maxcombinedbitrate = (M4OSA_UInt32)(pRates->OutputFileSize
/ M4MCS_MOOV_OVER_FILESIZE_RATIO
/ (calcduration / 8000.0));
if( fixed_audio == M4OSA_FALSE )
{
if( pC->novideo )
pRates->OutputAudioBitrate =
M4MCS_intGetNearestBitrate(maxcombinedbitrate,
0);
else
pRates->OutputAudioBitrate =
M4MCS_intGetNearestBitrate(maxcombinedbitrate
/ 3, 0);
if( pRates->OutputAudioBitrate < minaudiobitrate )
pRates->OutputAudioBitrate = minaudiobitrate;
if( pRates->OutputAudioBitrate
> M4VIDEOEDITING_k96_KBPS )
pRates->OutputAudioBitrate =
M4VIDEOEDITING_k96_KBPS;
}
if( fixed_video == M4OSA_FALSE )
{
pRates->OutputVideoBitrate =
M4MCS_intGetNearestBitrate(maxcombinedbitrate
- pRates->OutputAudioBitrate, 0);
if( pRates->OutputVideoBitrate < minvideobitrate )
pRates->OutputVideoBitrate = minvideobitrate;
if( pRates->OutputVideoBitrate
> M4VIDEOEDITING_k8_MBPS )
pRates->OutputVideoBitrate =
M4VIDEOEDITING_k8_MBPS; /*+ New Encoder
bitrates */
}
}
}
}
}
/* recompute max duration with final bitrates */
if( pRates->OutputFileSize > 0 )
{
maxduration = (M4OSA_UInt32)(pRates->OutputFileSize
/ M4MCS_MOOV_OVER_FILESIZE_RATIO
/ (pRates->OutputVideoBitrate + pRates->OutputAudioBitrate)
* 8000.0);
}
else
{
maxduration = pC->InputFileProperties.uiClipDuration;
}
if( maxduration
+ pRates->BeginCutTime > pC->InputFileProperties.uiClipDuration )
{
maxduration =
pC->InputFileProperties.uiClipDuration - pRates->BeginCutTime;
}
if( pRates->EndCutTime == 0 )
{
pRates->EndCutTime = pRates->BeginCutTime + maxduration;
}
else
{
calcduration = pRates->EndCutTime - pRates->BeginCutTime;
if( calcduration > maxduration )
{
pRates->EndCutTime = pRates->BeginCutTime + maxduration;
}
}
/* Should never happen : constraints are too strong */
if( pRates->EndCutTime == pRates->BeginCutTime )
{
return M4MCS_ERR_BEGIN_CUT_EQUALS_END_CUT;
}
/* estimated resulting file size */
pRates->OutputFileSize = (M4OSA_UInt32)(M4MCS_MOOV_OVER_FILESIZE_RATIO
* (pRates->OutputVideoBitrate + pRates->OutputAudioBitrate)
* (( pRates->EndCutTime - pRates->BeginCutTime) / 8000.0));
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_checkParamsAndStart(M4MCS_Context pContext)
* @brief Check parameters to start
* @note
* @param pContext (IN) MCS context
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: At least one parameter is M4OSA_NULL (debug only)
* @return M4ERR_STATE: MCS is not in an appropriate state for
* this function to be called
* @return M4MCS_ERR_AUDIOBITRATE_TOO_HIGH:
* Audio bitrate too high (we limit to 96 kbps)
* @return M4MCS_ERR_AUDIOBITRATE_TOO_LOW:
* Audio bitrate is too low (16 kbps min for aac,
* 12.2 for amr, 8 for mp3)
* @return M4MCS_ERR_BEGIN_CUT_EQUALS_END_CUT:
* Begin cut and End cut are equals
* @return M4MCS_ERR_BEGIN_CUT_LARGER_THAN_DURATION:
* Begin cut time is larger than the input
* clip duration
* @return M4MCS_ERR_END_CUT_SMALLER_THAN_BEGIN_CUT:
* End cut time is smaller than begin cut time
* @return M4MCS_ERR_MAXFILESIZE_TOO_SMALL:
* Not enough space to store whole output
* file at given bitrates
* @return M4MCS_ERR_VIDEOBITRATE_TOO_HIGH:
* Video bitrate too high (we limit to 800 kbps)
* @return M4MCS_ERR_VIDEOBITRATE_TOO_LOW:
* Video bitrate too low
******************************************************************************
*/
M4OSA_ERR M4MCS_checkParamsAndStart( M4MCS_Context pContext )
{
M4MCS_InternalContext *pC = (M4MCS_InternalContext *)(pContext);
M4MCS_EncodingParams VerifyRates;
M4OSA_ERR err;
/**
* Check input parameters */
M4OSA_DEBUG_IF2((M4OSA_NULL == pContext), M4ERR_PARAMETER,
"M4MCS_checkParamsAndStart: pContext is M4OSA_NULL");
#ifdef M4MCS_SUPPORT_STILL_PICTURE
if( pC->m_bIsStillPicture )
{
/**
* Call the corresponding still picture MCS function*/
return M4MCS_stillPicCheckParamsAndStart(pC);
}
#endif /*M4MCS_SUPPORT_STILL_PICTURE*/
/**
* Check state automaton */
if( M4MCS_kState_SET != pC->State )
{
M4OSA_TRACE1_1(
"M4MCS_checkParamsAndStart(): Wrong State (%d), returning M4ERR_STATE",
pC->State);
return M4ERR_STATE;
}
/* Audio bitrate should not stay undefined at this point */
if( ( pC->noaudio == M4OSA_FALSE)
&& (pC->AudioEncParams.Format != M4ENCODER_kAudioNULL)
&& (pC->uiAudioBitrate == M4VIDEOEDITING_kUndefinedBitrate) )
{
M4OSA_TRACE1_0("M4MCS_checkParamsAndStart : undefined audio bitrate");
return M4MCS_ERR_AUDIOBITRATE_TOO_LOW;
}
/* Video bitrate should not stay undefined at this point */
if( ( pC->novideo == M4OSA_FALSE)
&& (pC->EncodingVideoFormat != M4ENCODER_kNULL)
&& (pC->uiVideoBitrate == M4VIDEOEDITING_kUndefinedBitrate) )
{
M4OSA_TRACE1_0("M4MCS_checkParamsAndStart : undefined video bitrate");
return M4MCS_ERR_VIDEOBITRATE_TOO_LOW;
}
/* Set end cut time if necessary (not an error) */
if( pC->uiEndCutTime == 0 )
{
pC->uiEndCutTime = pC->InputFileProperties.uiClipDuration;
}
/* Force a re-set to check validity of parameters */
VerifyRates.OutputVideoBitrate = pC->uiVideoBitrate;
VerifyRates.OutputAudioBitrate = pC->uiAudioBitrate;
VerifyRates.BeginCutTime = pC->uiBeginCutTime;
VerifyRates.EndCutTime = pC->uiEndCutTime;
VerifyRates.OutputFileSize = pC->uiMaxFileSize;
VerifyRates.OutputVideoTimescale = pC->outputVideoTimescale;
err = M4MCS_setEncodingParams(pContext, &VerifyRates);
/**
* Check parameters consistency */
if( err != M4NO_ERROR )
{
M4OSA_TRACE1_0("M4MCS_checkParamsAndStart : invalid parameter found");
return err;
}
/**
* All is OK : update state automaton */
pC->uiEncVideoBitrate = pC->uiVideoBitrate;
pC->AudioEncParams.Bitrate = pC->uiAudioBitrate;
#ifdef M4MCS_WITH_FAST_OPEN
/**
* Remake the open if it was done in fast mode */
if( M4OSA_TRUE == pC->bFileOpenedInFastMode )
{
/* Close the file opened in fast mode */
M4MCS_intCleanUp_ReadersDecoders(pC);
pC->State = M4MCS_kState_CREATED;
/* Reopen it in normal mode */
err = M4MCS_open(pContext, pC->pInputFile, pC->InputFileType,
pC->pOutputFile, pC->pTemporaryFile);
if( err != M4NO_ERROR )
{
M4OSA_TRACE1_1(
"M4MCS_checkParamsAndStart : M4MCS_Open returns 0x%x", err);
return err;
}
}
#endif /* M4MCS_WITH_FAST_OPEN */
pC->State = M4MCS_kState_READY;
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intStepSet(M4MCS_InternalContext* pC)
******************************************************************************
*/
static M4OSA_ERR M4MCS_intStepSet( M4MCS_InternalContext *pC )
{
M4OSA_ERR err;
M4ENCODER_Header *encHeader;
/**
* Prepare the video decoder */
err = M4MCS_intPrepareVideoDecoder(pC);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intStepSet(): M4MCS_intPrepareVideoDecoder() returns 0x%x",
err);
return err;
}
if( ( pC->InputFileProperties.VideoStreamType == M4VIDEOEDITING_kH264)
&& (pC->EncodingVideoFormat == M4ENCODER_kNULL) )
{
pC->bH264Trim = M4OSA_TRUE;
}
/**
* Prepare the video encoder */
err = M4MCS_intPrepareVideoEncoder(pC);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intStepSet(): M4MCS_intPrepareVideoEncoder() returns 0x%x",
err);
return err;
}
if( ( pC->uiBeginCutTime != 0)
&& (pC->InputFileProperties.VideoStreamType == M4VIDEOEDITING_kH264)
&& (pC->EncodingVideoFormat == M4ENCODER_kNULL) )
{
err = pC->pVideoEncoderGlobalFcts->pFctSetOption(pC->pViEncCtxt,
M4ENCODER_kOptionID_H264ProcessNALUContext,
(M4OSA_DataOption)pC->m_pInstance);
if( err != M4NO_ERROR )
{
M4OSA_TRACE1_1("M4MCS_intStetSet :pFctSetOption failed (err 0x%x)",
err);
return err;
}
err = pC->pVideoEncoderGlobalFcts->pFctSetOption(pC->pViEncCtxt,
M4ENCODER_kOptionID_SetH264ProcessNALUfctsPtr,
(M4OSA_DataOption) &H264MCS_ProcessEncodedNALU);
if( err != M4NO_ERROR )
{
M4OSA_TRACE1_1("M4MCS_intStetSet :pFctSetOption failed (err 0x%x)",
err);
return err;
}
err = pC->pVideoEncoderGlobalFcts->pFctGetOption(pC->pViEncCtxt,
M4ENCODER_kOptionID_EncoderHeader,
(M4OSA_DataOption) &encHeader);
if( ( M4NO_ERROR != err) || (M4OSA_NULL == encHeader->pBuf) )
{
M4OSA_TRACE1_1(
"M4MCS_close: failed to get the encoder header (err 0x%x)",
err);
/**< no return here, we still have stuff to deallocate after close, even if it fails.*/
}
else
{
// Handle DSI first bits
#define SPS_START_POS 6
pC->m_pInstance->m_encoderSPSSize =
( encHeader->pBuf[SPS_START_POS] << 8)
+ encHeader->pBuf[SPS_START_POS + 1];
pC->m_pInstance->m_pEncoderSPS =
(M4OSA_UInt8 *)(encHeader->pBuf) + SPS_START_POS + 2;
pC->m_pInstance->m_encoderPPSSize =
( encHeader->pBuf[SPS_START_POS + 3
+ pC->m_pInstance->m_encoderSPSSize] << 8)
+ encHeader->pBuf[SPS_START_POS + 4
+ pC->m_pInstance->m_encoderSPSSize];
pC->m_pInstance->m_pEncoderPPS = (M4OSA_UInt8 *)encHeader->pBuf + SPS_START_POS + 5
+ pC->m_pInstance->m_encoderSPSSize;
/* Check the DSI integrity */
if( encHeader->Size != (pC->m_pInstance->m_encoderSPSSize
+ pC->m_pInstance->m_encoderPPSSize + 5 + SPS_START_POS) )
{
M4OSA_TRACE1_3(
"!!! M4MCS_intStepSet ERROR : invalid SPS / PPS %d %d %d",
encHeader->Size, pC->m_pInstance->m_encoderSPSSize,
pC->m_pInstance->m_encoderPPSSize);
return M4ERR_PARAMETER;
}
}
}
/**
* Prepare audio processing */
err = M4MCS_intPrepareAudioProcessing(pC);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intStepSet(): M4MCS_intPrepareAudioProcessing() returns 0x%x",
err);
return err;
}
/**
* Prepare the writer */
err = M4MCS_intPrepareWriter(pC);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intStepSet(): M4MCS_intPrepareWriter() returns 0x%x", err);
return err;
}
/**
* Jump the audio stream to the begin cut time (all AUs are RAP)
* Must be done after the 3gpp writer init, because it may write the first
* audio AU in some cases */
err = M4MCS_intPrepareAudioBeginCut(pC);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intStepSet(): M4MCS_intPrepareAudioBeginCut() returns 0x%x",
err);
return err;
}
/**
* Update state automaton */
if( 0 == pC->uiBeginCutTime )
{
pC->dViDecStartingCts = 0.0;
/**
* No begin cut, do the encoding */
pC->State = M4MCS_kState_PROCESSING;
}
else
{
/**
* Remember that we must start the decode/encode process at the begin cut time */
pC->dViDecStartingCts = (M4OSA_Double)pC->uiBeginCutTime;
/**
* Jumping */
pC->State = M4MCS_kState_BEGINVIDEOJUMP;
}
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_intStepSet(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intPrepareVideoDecoder(M4MCS_InternalContext* pC);
* @brief Prepare the video decoder.
* @param pC (IN) MCS private context
* @return M4NO_ERROR No error
* @return M4MCS_ERR_H263_PROFILE_NOT_SUPPORTED
* @return Any error returned by an underlaying module
******************************************************************************
*/
static M4OSA_ERR M4MCS_intPrepareVideoDecoder( M4MCS_InternalContext *pC )
{
M4OSA_ERR err;
M4OSA_Void *decoderUserData;
M4DECODER_OutputFilter FilterOption;
if( pC->novideo )
return M4NO_ERROR;
/**
* Create the decoder, if it has not been created yet (to get video properties for example) */
if( M4OSA_NULL == pC->pViDecCtxt )
{
#ifdef M4VSS_ENABLE_EXTERNAL_DECODERS
decoderUserData = pC->m_pCurrentVideoDecoderUserData;
#else
decoderUserData = M4OSA_NULL;
#endif /* M4VSS_ENABLE_EXTERNAL_DECODERS ? */
err = pC->m_pVideoDecoder->m_pFctCreate(&pC->pViDecCtxt,
&pC->pReaderVideoStream->m_basicProperties, pC->m_pReader,
pC->m_pReaderDataIt, &pC->ReaderVideoAU, decoderUserData);
if( (M4OSA_UInt32)(M4ERR_DECODER_H263_PROFILE_NOT_SUPPORTED) == err )
{
/**
* Our decoder is not compatible with H263 profile other than 0.
* So it returns this internal error code.
* We translate it to our own error code */
M4OSA_TRACE1_0("M4MCS_intPrepareVideoDecoder:\
returning M4MCS_ERR_H263_PROFILE_NOT_SUPPORTED");
return M4MCS_ERR_H263_PROFILE_NOT_SUPPORTED;
}
else if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1("M4MCS_intPrepareVideoDecoder:\
m_pVideoDecoder->m_pFctCreate returns 0x%x", err);
return err;
}
if( M4VIDEOEDITING_kH264 == pC->InputFileProperties.VideoStreamType )
{
FilterOption.m_pFilterFunction =
(M4OSA_Void *) &M4VIFI_ResizeBilinearYUV420toYUV420;
FilterOption.m_pFilterUserData = M4OSA_NULL;
err = pC->m_pVideoDecoder->m_pFctSetOption(pC->pViDecCtxt,
M4DECODER_kOptionID_OutputFilter,
(M4OSA_DataOption) &FilterOption);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1("M4MCS_intPrepareVideoDecoder:\
m_pVideoDecoder->m_pFctSetOption returns 0x%x", err);
return err;
}
}
}
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_intPrepareVideoDecoder(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intPrepareVideoEncoder(M4MCS_InternalContext* pC);
* @brief Prepare the video encoder.
* @param pC (IN) MCS private context
* @return M4NO_ERROR No error
* @return Any error returned by an underlaying module
******************************************************************************
*/
static M4OSA_ERR M4MCS_intPrepareVideoEncoder( M4MCS_InternalContext *pC )
{
M4OSA_ERR err;
M4ENCODER_AdvancedParams EncParams; /**< Encoder advanced parameters */
M4ENCODER_Params EncParams1;
M4OSA_Double dFrameRate; /**< tmp variable */
if( pC->novideo )
return M4NO_ERROR;
if( pC->EncodingVideoFormat == M4ENCODER_kNULL )
{
/* Approximative cts increment */
pC->dCtsIncrement = 1000.0 / pC->pReaderVideoStream->m_averageFrameRate;
if( pC->uiBeginCutTime == 0 )
{
M4OSA_TRACE3_0(
"M4MCS_intPrepareVideoEncoder(): Null encoding, do nothing.");
return M4NO_ERROR;
}
else
{
M4OSA_TRACE3_0(
"M4MCS_intPrepareVideoEncoder(): Null encoding, I-frame defaults.");
/* Set useful parameters to encode the first I-frame */
EncParams.InputFormat = M4ENCODER_kIYUV420;
EncParams.videoProfile = pC->encodingVideoProfile;
EncParams.videoLevel= pC->encodingVideoLevel;
switch( pC->InputFileProperties.VideoStreamType )
{
case M4VIDEOEDITING_kH263:
EncParams.Format = M4ENCODER_kH263;
break;
case M4VIDEOEDITING_kMPEG4:
EncParams.Format = M4ENCODER_kMPEG4;
break;
case M4VIDEOEDITING_kH264:
EncParams.Format = M4ENCODER_kH264;
break;
default:
M4OSA_TRACE1_1("M4MCS_intPrepareVideoEncoder: unknown encoding video format\
(%d), returning M4MCS_WAR_MEDIATYPE_NOT_SUPPORTED",
pC->InputFileProperties.VideoStreamType);
return M4MCS_WAR_MEDIATYPE_NOT_SUPPORTED;
}
EncParams.FrameWidth = pC->EncodingWidth;
EncParams.FrameHeight = pC->EncodingHeight;
EncParams.Bitrate = pC->uiEncVideoBitrate;
EncParams.bInternalRegulation =
M4OSA_FALSE; /* do not constrain the I-frame */
EncParams.FrameRate = pC->EncodingVideoFramerate;
/* Other encoding settings (quite all dummy...) */
EncParams.uiHorizontalSearchRange = 0; /* use default */
EncParams.uiVerticalSearchRange = 0; /* use default */
EncParams.bErrorResilience = M4OSA_FALSE; /* no error resilience */
EncParams.uiIVopPeriod = 0; /* use default */
EncParams.uiMotionEstimationTools =
0; /* M4V_MOTION_EST_TOOLS_ALL */
EncParams.bAcPrediction = M4OSA_TRUE; /* use AC prediction */
EncParams.uiStartingQuantizerValue = 5; /* initial QP = 5 */
EncParams.bDataPartitioning =
M4OSA_FALSE; /* no data partitioning */
/* Rate factor */
EncParams.uiTimeScale = pC->InputFileProperties.uiVideoTimeScale;
EncParams.uiRateFactor = 1;
}
}
else
{
M4OSA_TRACE3_0(
"M4MCS_intPrepareVideoEncoder(): Normal encoding, set full config.");
/**
* Set encoder shell parameters according to MCS settings */
EncParams.Format = pC->EncodingVideoFormat;
EncParams.InputFormat = M4ENCODER_kIYUV420;
EncParams.videoProfile = pC->encodingVideoProfile;
EncParams.videoLevel= pC->encodingVideoLevel;
/**
* Video frame size */
EncParams.FrameWidth = pC->EncodingWidth;
EncParams.FrameHeight = pC->EncodingHeight;
/**
* Video bitrate has been previously computed */
EncParams.Bitrate = pC->uiEncVideoBitrate;
/**
* MCS use the "true" core internal bitrate regulation */
EncParams.bInternalRegulation = M4OSA_TRUE;
/**
* Other encoder settings */
EncParams.uiHorizontalSearchRange = 0; /* use default */
EncParams.uiVerticalSearchRange = 0; /* use default */
EncParams.bErrorResilience = M4OSA_FALSE; /* no error resilience */
EncParams.uiIVopPeriod = 0; /* use default */
EncParams.uiMotionEstimationTools =
0; /* M4V_MOTION_EST_TOOLS_ALL */
EncParams.bAcPrediction = M4OSA_TRUE; /* use AC prediction */
EncParams.uiStartingQuantizerValue = 10; /* initial QP = 10 */
EncParams.bDataPartitioning =
M4OSA_FALSE; /* no data partitioning */
/**
* Video encoder frame rate and rate factor */
EncParams.FrameRate = pC->EncodingVideoFramerate;
EncParams.uiTimeScale = pC->outputVideoTimescale;
switch( pC->EncodingVideoFramerate )
{
case M4ENCODER_k5_FPS:
dFrameRate = 5.0;
break;
case M4ENCODER_k7_5_FPS:
dFrameRate = 7.5;
break;
case M4ENCODER_k10_FPS:
dFrameRate = 10.0;
break;
case M4ENCODER_k12_5_FPS:
dFrameRate = 12.5;
break;
case M4ENCODER_k15_FPS:
dFrameRate = 15.0;
break;
case M4ENCODER_k20_FPS: /**< MPEG-4 only */
dFrameRate = 20.0;
break;
case M4ENCODER_k25_FPS: /**< MPEG-4 only */
dFrameRate = 25.0;
break;
case M4ENCODER_k30_FPS:
dFrameRate = 30.0;
break;
default:
M4OSA_TRACE1_1(
"M4MCS_intPrepareVideoEncoder: unknown encoding video frame rate\
(0x%x), returning M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FRAME_RATE",
pC->EncodingVideoFramerate);
return M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FRAME_RATE;
}
/**
* Compute the number of milliseconds between two frames */
if( M4ENCODER_kH263 == EncParams.Format )
{
pC->dCtsIncrement = 1001.0 / dFrameRate;
}
else /**< MPEG4 or H.264 */
{
pC->dCtsIncrement = 1000.0 / dFrameRate;
}
}
/**
* Limit the video bitrate according to encoder profile
* and level */
err = M4MCS_intLimitBitratePerCodecProfileLevel(&EncParams);
if (M4NO_ERROR != err) {
M4OSA_TRACE1_1(
"M4MCS_intPrepareVideoEncoder: limit bitrate returned err \
0x%x", err);
return err;
}
/**
* Create video encoder */
err = pC->pVideoEncoderGlobalFcts->pFctInit(&pC->pViEncCtxt,
pC->pWriterDataFcts, \
M4MCS_intApplyVPP, pC, pC->pCurrentVideoEncoderExternalAPI, \
pC->pCurrentVideoEncoderUserData);
/**< We put the MCS context in place of the VPP context */
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareVideoEncoder: EncoderInt->pFctInit returns 0x%x",
err);
return err;
}
pC->encoderState = M4MCS_kEncoderClosed;
if( M4OSA_TRUE == pC->bH264Trim )
//if((M4ENCODER_kNULL == pC->EncodingVideoFormat)
// && (M4VIDEOEDITING_kH264 == pC->InputFileProperties.VideoStreamType))
{
EncParams1.InputFormat = EncParams.InputFormat;
//EncParams1.InputFrameWidth = EncParams.InputFrameWidth;
//EncParams1.InputFrameHeight = EncParams.InputFrameHeight;
EncParams1.FrameWidth = EncParams.FrameWidth;
EncParams1.FrameHeight = EncParams.FrameHeight;
EncParams1.videoProfile= EncParams.videoProfile;
EncParams1.videoLevel= EncParams.videoLevel;
EncParams1.Bitrate = EncParams.Bitrate;
EncParams1.FrameRate = EncParams.FrameRate;
EncParams1.Format = M4ENCODER_kH264; //EncParams.Format;
M4OSA_TRACE1_2("mcs encoder open profile :%d, level %d",
EncParams1.videoProfile, EncParams1.videoLevel);
err = pC->pVideoEncoderGlobalFcts->pFctOpen(pC->pViEncCtxt,
&pC->WriterVideoAU, &EncParams1);
}
else
{
M4OSA_TRACE1_2("mcs encoder open Adv profile :%d, level %d",
EncParams.videoProfile, EncParams.videoLevel);
err = pC->pVideoEncoderGlobalFcts->pFctOpen(pC->pViEncCtxt,
&pC->WriterVideoAU, &EncParams);
}
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareVideoEncoder: EncoderInt->pFctOpen returns 0x%x",
err);
return err;
}
pC->encoderState = M4MCS_kEncoderStopped;
if( M4OSA_NULL != pC->pVideoEncoderGlobalFcts->pFctStart )
{
err = pC->pVideoEncoderGlobalFcts->pFctStart(pC->pViEncCtxt);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareVideoEncoder: EncoderInt->pFctStart returns 0x%x",
err);
return err;
}
}
pC->encoderState = M4MCS_kEncoderRunning;
/******************************/
/* Video resize management */
/******************************/
/**
* Compare video input size and video output size to check if resize is needed */
if( ( (M4OSA_UInt32)EncParams.FrameWidth
!= pC->pReaderVideoStream->m_videoWidth)
|| ((M4OSA_UInt32)EncParams.FrameHeight
!= pC->pReaderVideoStream->m_videoHeight) )
{
/**
* Allocate the intermediate video plane that will receive the decoded image before
resizing */
pC->pPreResizeFrame =
(M4VIFI_ImagePlane *)M4OSA_32bitAlignedMalloc(3 * sizeof(M4VIFI_ImagePlane),
M4MCS, (M4OSA_Char *)"m_pPreResizeFrame");
if( M4OSA_NULL == pC->pPreResizeFrame )
{
M4OSA_TRACE1_0("M4MCS_intPrepareVideoEncoder():\
unable to allocate m_pPreResizeFrame, returning M4ERR_ALLOC");
return M4ERR_ALLOC;
}
pC->pPreResizeFrame[0].pac_data = M4OSA_NULL;
pC->pPreResizeFrame[1].pac_data = M4OSA_NULL;
pC->pPreResizeFrame[2].pac_data = M4OSA_NULL;
/**
* Allocate the Y plane */
pC->pPreResizeFrame[0].u_topleft = 0;
pC->pPreResizeFrame[0].u_width = pC->pReaderVideoStream->
m_videoWidth; /**< input width */
pC->pPreResizeFrame[0].u_height = pC->pReaderVideoStream->
m_videoHeight; /**< input height */
pC->pPreResizeFrame[0].u_stride = pC->
pPreResizeFrame[0].u_width; /**< simple case: stride equals width */
pC->pPreResizeFrame[0].pac_data =
(M4VIFI_UInt8 *)M4OSA_32bitAlignedMalloc(pC->pPreResizeFrame[0].u_stride \
*pC->pPreResizeFrame[0].u_height, M4MCS,
(M4OSA_Char *)"m_pPreResizeFrame[0].pac_data");
if( M4OSA_NULL == pC->pPreResizeFrame[0].pac_data )
{
M4OSA_TRACE1_0(
"M4MCS_intPrepareVideoEncoder():\
unable to allocate m_pPreResizeFrame[0].pac_data, returning M4ERR_ALLOC");
return M4ERR_ALLOC;
}
/**
* Allocate the U plane */
pC->pPreResizeFrame[1].u_topleft = 0;
pC->pPreResizeFrame[1].u_width = pC->pPreResizeFrame[0].u_width
>> 1; /**< U width is half the Y width */
pC->pPreResizeFrame[1].u_height = pC->pPreResizeFrame[0].u_height
>> 1; /**< U height is half the Y height */
pC->pPreResizeFrame[1].u_stride = pC->
pPreResizeFrame[1].u_width; /**< simple case: stride equals width */
pC->pPreResizeFrame[1].pac_data =
(M4VIFI_UInt8 *)M4OSA_32bitAlignedMalloc(pC->pPreResizeFrame[1].u_stride \
*pC->pPreResizeFrame[1].u_height, M4MCS,
(M4OSA_Char *)"m_pPreResizeFrame[1].pac_data");
if( M4OSA_NULL == pC->pPreResizeFrame[1].pac_data )
{
M4OSA_TRACE1_0(
"M4MCS_intPrepareVideoEncoder():\
unable to allocate m_pPreResizeFrame[1].pac_data, returning M4ERR_ALLOC");
return M4ERR_ALLOC;
}
/**
* Allocate the V plane */
pC->pPreResizeFrame[2].u_topleft = 0;
pC->pPreResizeFrame[2].u_width = pC->
pPreResizeFrame[1].u_width; /**< V width equals U width */
pC->pPreResizeFrame[2].u_height = pC->
pPreResizeFrame[1].u_height; /**< V height equals U height */
pC->pPreResizeFrame[2].u_stride = pC->
pPreResizeFrame[2].u_width; /**< simple case: stride equals width */
pC->pPreResizeFrame[2].pac_data =
(M4VIFI_UInt8 *)M4OSA_32bitAlignedMalloc(pC->pPreResizeFrame[2].u_stride \
*pC->pPreResizeFrame[2].u_height, M4MCS,
(M4OSA_Char *)"m_pPreResizeFrame[1].pac_data");
if( M4OSA_NULL == pC->pPreResizeFrame[2].pac_data )
{
M4OSA_TRACE1_0(
"M4MCS_intPrepareVideoEncoder():\
unable to allocate m_pPreResizeFrame[2].pac_data, returning M4ERR_ALLOC");
return M4ERR_ALLOC;
}
}
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_intPrepareVideoEncoder(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intPrepareAudioProcessing(M4MCS_InternalContext* pC);
* @brief Prepare the AAC decoder, the SRC and the AMR-NB encoder and the MP3 encoder.
* @param pC (IN) MCS private context
* @return M4NO_ERROR No error
* @return Any error returned by an underlaying module
******************************************************************************
*/
static M4OSA_ERR M4MCS_intPrepareAudioProcessing( M4MCS_InternalContext *pC )
{
M4OSA_ERR err;
SSRC_ReturnStatus_en
ReturnStatus; /* Function return status */
LVM_INT16 NrSamplesMin =
0; /* Minimal number of samples on the input or on the output */
LVM_INT32 ScratchSize; /* The size of the scratch memory */
LVM_INT16
*pInputInScratch; /* Pointer to input in the scratch buffer */
LVM_INT16
*pOutputInScratch; /* Pointer to the output in the scratch buffer */
SSRC_Params_t ssrcParams; /* Memory for init parameters */
#ifdef MCS_DUMP_PCM_TO_FILE
file_au_reader = fopen("mcs_ReaderOutput.raw", "wb");
file_pcm_decoder = fopen("mcs_DecoderOutput.pcm", "wb");
file_pcm_encoder = fopen("mcs_EncoderInput.pcm", "wb");
#endif
if( pC->noaudio )
return M4NO_ERROR;
if( pC->AudioEncParams.Format == M4ENCODER_kAudioNULL )
{
M4OSA_TRACE3_0(
"M4MCS_intPrepareAudioProcessing(): Null encoding, do nothing.");
return M4NO_ERROR;
}
/* ________________________________ */
/*| |*/
/*| Create and "start" the decoder |*/
/*|________________________________|*/
if( M4OSA_NULL == pC->m_pAudioDecoder )
{
M4OSA_TRACE1_0(
"M4MCS_intPrepareAudioProcessing(): Fails to initiate the audio decoder.");
return M4MCS_ERR_AUDIO_CONVERSION_FAILED;
}
if( M4OSA_NULL == pC->pAudioDecCtxt )
{
err = pC->m_pAudioDecoder->m_pFctCreateAudioDec(&pC->pAudioDecCtxt,
pC->pReaderAudioStream, pC->m_pCurrentAudioDecoderUserData);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareVideoDecoder: m_pAudioDecoder->m_pFctCreateAudioDec returns 0x%x",
err);
return err;
}
}
if( M4VIDEOEDITING_kAMR_NB == pC->InputFileProperties.AudioStreamType ) {
/* AMR DECODER CONFIGURATION */
/* nothing specific to do */
}
else if( M4VIDEOEDITING_kEVRC == pC->InputFileProperties.AudioStreamType ) {
/* EVRC DECODER CONFIGURATION */
/* nothing specific to do */
}
else if( M4VIDEOEDITING_kMP3 == pC->InputFileProperties.AudioStreamType ) {
/* MP3 DECODER CONFIGURATION */
/* nothing specific to do */
}
else
{
/* AAC DECODER CONFIGURATION */
M4_AacDecoderConfig AacDecParam;
AacDecParam.m_AACDecoderProfile = AAC_kAAC;
AacDecParam.m_DownSamplingMode = AAC_kDS_OFF;
if( pC->AudioEncParams.Format == M4ENCODER_kAMRNB )
{
AacDecParam.m_OutputMode = AAC_kMono;
}
else
{
/* For this version, we encode only in AAC */
if( M4ENCODER_kMono == pC->AudioEncParams.ChannelNum )
{
AacDecParam.m_OutputMode = AAC_kMono;
}
else
{
AacDecParam.m_OutputMode = AAC_kStereo;
}
}
pC->m_pAudioDecoder->m_pFctSetOptionAudioDec(pC->pAudioDecCtxt,
M4AD_kOptionID_UserParam, (M4OSA_DataOption) &AacDecParam);
}
pC->m_pAudioDecoder->m_pFctSetOptionAudioDec(pC->pAudioDecCtxt,
M4AD_kOptionID_3gpReaderInterface, (M4OSA_DataOption) pC->m_pReaderDataIt);
pC->m_pAudioDecoder->m_pFctSetOptionAudioDec(pC->pAudioDecCtxt,
M4AD_kOptionID_AudioAU, (M4OSA_DataOption) &pC->ReaderAudioAU);
if( pC->m_pAudioDecoder->m_pFctStartAudioDec != M4OSA_NULL )
{
/* Not implemented in all decoders */
err = pC->m_pAudioDecoder->m_pFctStartAudioDec(pC->pAudioDecCtxt);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareVideoDecoder: m_pAudioDecoder->m_pFctStartAudioDec returns 0x%x",
err);
return err;
}
}
/**
* Allocate output buffer for the audio decoder */
pC->InputFileProperties.uiDecodedPcmSize =
pC->pReaderAudioStream->m_byteFrameLength
* pC->pReaderAudioStream->m_byteSampleSize
* pC->pReaderAudioStream->m_nbChannels;
if( pC->InputFileProperties.uiDecodedPcmSize > 0 )
{
pC->AudioDecBufferOut.m_bufferSize =
pC->InputFileProperties.uiDecodedPcmSize;
pC->AudioDecBufferOut.m_dataAddress =
(M4OSA_MemAddr8)M4OSA_32bitAlignedMalloc(pC->AudioDecBufferOut.m_bufferSize \
*sizeof(short), M4MCS, (M4OSA_Char *)"AudioDecBufferOut.m_bufferSize");
}
if( M4OSA_NULL == pC->AudioDecBufferOut.m_dataAddress )
{
M4OSA_TRACE1_0(
"M4MCS_intPrepareVideoDecoder():\
unable to allocate AudioDecBufferOut.m_dataAddress, returning M4ERR_ALLOC");
return M4ERR_ALLOC;
}
/* _________________________ */
/*| |*/
/*| Set the SSRC parameters |*/
/*|_________________________|*/
switch( pC->pReaderAudioStream->m_samplingFrequency )
{
case 8000:
ssrcParams.SSRC_Fs_In = LVM_FS_8000;
break;
case 11025:
ssrcParams.SSRC_Fs_In = LVM_FS_11025;
break;
case 12000:
ssrcParams.SSRC_Fs_In = LVM_FS_12000;
break;
case 16000:
ssrcParams.SSRC_Fs_In = LVM_FS_16000;
break;
case 22050:
ssrcParams.SSRC_Fs_In = LVM_FS_22050;
break;
case 24000:
ssrcParams.SSRC_Fs_In = LVM_FS_24000;
break;
case 32000:
ssrcParams.SSRC_Fs_In = LVM_FS_32000;
break;
case 44100:
ssrcParams.SSRC_Fs_In = LVM_FS_44100;
break;
case 48000:
ssrcParams.SSRC_Fs_In = LVM_FS_48000;
break;
default:
M4OSA_TRACE1_1(
"M4MCS_intPrepareVideoDecoder: invalid input AAC sampling frequency (%d Hz),\
returning M4MCS_ERR_INVALID_AAC_SAMPLING_FREQUENCY",
pC->pReaderAudioStream->m_samplingFrequency);
return M4MCS_ERR_INVALID_AAC_SAMPLING_FREQUENCY;
}
if( 1 == pC->pReaderAudioStream->m_nbChannels )
{
ssrcParams.SSRC_NrOfChannels = LVM_MONO;
}
else
{
ssrcParams.SSRC_NrOfChannels = LVM_STEREO;
}
/*FlB 26.02.2009: add mp3 as output format*/
if( pC->AudioEncParams.Format == M4ENCODER_kAAC
|| pC->AudioEncParams.Format == M4ENCODER_kMP3 )
{
switch( pC->AudioEncParams.Frequency )
{
case M4ENCODER_k8000Hz:
ssrcParams.SSRC_Fs_Out = LVM_FS_8000;
break;
case M4ENCODER_k11025Hz:
ssrcParams.SSRC_Fs_Out = LVM_FS_11025;
break;
case M4ENCODER_k12000Hz:
ssrcParams.SSRC_Fs_Out = LVM_FS_12000;
break;
case M4ENCODER_k16000Hz:
ssrcParams.SSRC_Fs_Out = LVM_FS_16000;
break;
case M4ENCODER_k22050Hz:
ssrcParams.SSRC_Fs_Out = LVM_FS_22050;
break;
case M4ENCODER_k24000Hz:
ssrcParams.SSRC_Fs_Out = LVM_FS_24000;
break;
case M4ENCODER_k32000Hz:
ssrcParams.SSRC_Fs_Out = LVM_FS_32000;
break;
case M4ENCODER_k44100Hz:
ssrcParams.SSRC_Fs_Out = LVM_FS_44100;
break;
case M4ENCODER_k48000Hz:
ssrcParams.SSRC_Fs_Out = LVM_FS_48000;
break;
default:
M4OSA_TRACE1_1(
"M4MCS_intPrepareAudioProcessing: invalid output AAC sampling frequency \
(%d Hz), returning M4MCS_ERR_INVALID_AAC_SAMPLING_FREQUENCY",
pC->AudioEncParams.Frequency);
return M4MCS_ERR_INVALID_AAC_SAMPLING_FREQUENCY;
break;
}
}
else
{
ssrcParams.SSRC_Fs_Out = LVM_FS_8000;
}
ReturnStatus = 0;
switch( ssrcParams.SSRC_Fs_In )
{
case LVM_FS_8000:
ssrcParams.NrSamplesIn = 320;
break;
case LVM_FS_11025:
ssrcParams.NrSamplesIn = 441;
break;
case LVM_FS_12000:
ssrcParams.NrSamplesIn = 480;
break;
case LVM_FS_16000:
ssrcParams.NrSamplesIn = 640;
break;
case LVM_FS_22050:
ssrcParams.NrSamplesIn = 882;
break;
case LVM_FS_24000:
ssrcParams.NrSamplesIn = 960;
break;
case LVM_FS_32000:
ssrcParams.NrSamplesIn = 1280;
break;
case LVM_FS_44100:
ssrcParams.NrSamplesIn = 1764;
break;
case LVM_FS_48000:
ssrcParams.NrSamplesIn = 1920;
break;
default:
ReturnStatus = -1;
break;
}
switch( ssrcParams.SSRC_Fs_Out )
{
case LVM_FS_8000:
ssrcParams.NrSamplesOut = 320;
break;
case LVM_FS_11025:
ssrcParams.NrSamplesOut = 441;
break;
case LVM_FS_12000:
ssrcParams.NrSamplesOut = 480;
break;
case LVM_FS_16000:
ssrcParams.NrSamplesOut = 640;
break;
case LVM_FS_22050:
ssrcParams.NrSamplesOut = 882;
break;
case LVM_FS_24000:
ssrcParams.NrSamplesOut = 960;
break;
case LVM_FS_32000:
ssrcParams.NrSamplesOut = 1280;
break;
case LVM_FS_44100:
ssrcParams.NrSamplesOut = 1764;
break;
case LVM_FS_48000:
ssrcParams.NrSamplesOut = 1920;
break;
default:
ReturnStatus = -1;
break;
}
if( ReturnStatus != SSRC_OK )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareAudioProcessing:\
Error code %d returned by the SSRC_GetNrSamples function",
ReturnStatus);
return M4MCS_ERR_AUDIO_CONVERSION_FAILED;
}
NrSamplesMin =
(LVM_INT16)((ssrcParams.NrSamplesIn > ssrcParams.NrSamplesOut)
? ssrcParams.NrSamplesOut : ssrcParams.NrSamplesIn);
while( NrSamplesMin < M4MCS_SSRC_MINBLOCKSIZE )
{ /* Don't take blocks smaller that the minimal block size */
ssrcParams.NrSamplesIn = (LVM_INT16)(ssrcParams.NrSamplesIn << 1);
ssrcParams.NrSamplesOut = (LVM_INT16)(ssrcParams.NrSamplesOut << 1);
NrSamplesMin = (LVM_INT16)(NrSamplesMin << 1);
}
pC->iSsrcNbSamplIn = (LVM_INT16)(
ssrcParams.
NrSamplesIn); /* multiplication by NrOfChannels is done below */
pC->iSsrcNbSamplOut = (LVM_INT16)(ssrcParams.NrSamplesOut);
/**
* Allocate buffer for the input of the SSRC */
pC->pSsrcBufferIn =
(M4OSA_MemAddr8)M4OSA_32bitAlignedMalloc(pC->iSsrcNbSamplIn * sizeof(short) \
*pC->pReaderAudioStream->m_nbChannels, M4MCS,
(M4OSA_Char *)"pSsrcBufferIn");
if( M4OSA_NULL == pC->pSsrcBufferIn )
{
M4OSA_TRACE1_0(
"M4MCS_intPrepareVideoDecoder():\
unable to allocate pSsrcBufferIn, returning M4ERR_ALLOC");
return M4ERR_ALLOC;
}
pC->pPosInSsrcBufferIn = (M4OSA_MemAddr8)pC->pSsrcBufferIn;
/**
* Allocate buffer for the output of the SSRC */
pC->pSsrcBufferOut =
(M4OSA_MemAddr8)M4OSA_32bitAlignedMalloc(pC->iSsrcNbSamplOut * sizeof(short) \
*pC->pReaderAudioStream->m_nbChannels, M4MCS,
(M4OSA_Char *)"pSsrcBufferOut");
if( M4OSA_NULL == pC->pSsrcBufferOut )
{
M4OSA_TRACE1_0(
"M4MCS_intPrepareVideoDecoder():\
unable to allocate pSsrcBufferOut, returning M4ERR_ALLOC");
return M4ERR_ALLOC;
}
pC->pLVAudioResampler = LVAudioResamplerCreate(
16, /*gInputParams.lvBTChannelCount*/
(M4OSA_Int16)pC->InputFileProperties.uiNbChannels/*ssrcParams.SSRC_NrOfChannels*/,
(M4OSA_Int32)(pC->AudioEncParams.Frequency)/*ssrcParams.SSRC_Fs_Out*/, 1);
if( M4OSA_NULL == pC->pLVAudioResampler)
{
return M4ERR_ALLOC;
}
LVAudiosetSampleRate(pC->pLVAudioResampler,
/*gInputParams.lvInSampleRate*/
/*pC->pAddedClipCtxt->pSettings->ClipProperties.uiSamplingFrequency*/
pC->InputFileProperties.uiSamplingFrequency/*ssrcParams.SSRC_Fs_In*/);
LVAudiosetVolume(pC->pLVAudioResampler, (M4OSA_Int16)(0x1000 /* 0x7fff */),
(M4OSA_Int16)(0x1000/*0x7fff*/));
/* ________________________ */
/*| |*/
/*| Init the audio encoder |*/
/*|________________________|*/
/* Initialise the audio encoder */
err = pC->pAudioEncoderGlobalFcts->pFctInit(&pC->pAudioEncCtxt,
pC->pCurrentAudioEncoderUserData);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareAudioProcessing: pAudioEncoderGlobalFcts->pFctInit returns 0x%x",
err);
return err;
}
/* Open the audio encoder */
err = pC->pAudioEncoderGlobalFcts->pFctOpen(pC->pAudioEncCtxt,
&pC->AudioEncParams, &pC->pAudioEncDSI,
M4OSA_NULL /* no grabbing */);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareAudioProcessing: pAudioEncoderGlobalFcts->pFctOpen returns 0x%x",
err);
return err;
}
/* Allocate the input buffer for the audio encoder */
switch( pC->AudioEncParams.Format )
{
case M4ENCODER_kAMRNB:
pC->audioEncoderGranularity = M4MCS_PCM_AMR_GRANULARITY_SAMPLES;
break;
case M4ENCODER_kAAC:
pC->audioEncoderGranularity = M4MCS_PCM_AAC_GRANULARITY_SAMPLES;
break;
/*FlB 26.02.2009: add mp3 as output format*/
case M4ENCODER_kMP3:
pC->audioEncoderGranularity = M4MCS_PCM_MP3_GRANULARITY_SAMPLES;
break;
default:
break;
}
if( M4ENCODER_kMono == pC->AudioEncParams.ChannelNum )
pC->audioEncoderGranularity *= sizeof(short);
else
pC->audioEncoderGranularity *= sizeof(short) * 2;
pC->pPosInAudioEncoderBuffer = M4OSA_NULL;
pC->pAudioEncoderBuffer =
(M4OSA_MemAddr8)M4OSA_32bitAlignedMalloc(pC->audioEncoderGranularity, M4MCS,
(M4OSA_Char *)"pC->pAudioEncoderBuffer");
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_intPrepareAudioProcessing(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intPrepareWriter(M4MCS_InternalContext* pC);
* @brief Prepare the writer.
* @param pC (IN) MCS private context
* @return M4NO_ERROR No error
* @return Any error returned by an underlaying module
******************************************************************************
*/
static M4OSA_ERR M4MCS_intPrepareWriter( M4MCS_InternalContext *pC )
{
M4OSA_ERR err;
M4OSA_UInt32 uiVersion; /**< To write component version in 3gp writer */
M4OSA_MemAddr8 pDSI = M4OSA_NULL; /**< To create the Decoder Specific Info */
M4SYS_StreamIDValue optionValue; /**< For the setoption calls */
M4OSA_UInt32 TargetedFileSize;
M4OSA_Bool bMULPPSSPS = M4OSA_FALSE;
/**
* Init the writer */
err = pC->pWriterGlobalFcts->pFctOpen(&pC->pWriterContext, pC->pOutputFile,
pC->pOsaFileWritPtr, pC->pTemporaryFile, pC->pOsaFileReadPtr);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter: pWriterGlobalFcts->pFctOpen returns 0x%x",
err);
return err;
}
/**
* Link to the writer context in the writer interface */
pC->pWriterDataFcts->pWriterContext = pC->pWriterContext;
/**
* Set the product description string in the written file */
err = pC->pWriterGlobalFcts->pFctSetOption(pC->pWriterContext,
M4WRITER_kEmbeddedString, (M4OSA_DataOption)"NXP-SW : MCS ");
if( ( M4NO_ERROR != err) && (( (M4OSA_UInt32)M4ERR_BAD_OPTION_ID)
!= err) ) /* this option may not be implemented by some writers */
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter:\
pWriterGlobalFcts->pFctSetOption(M4WRITER_kEmbeddedString) returns 0x%x",
err);
return err;
}
/**
* Set the product version in the written file */
uiVersion =
M4VIDEOEDITING_VERSION_MAJOR * 100 + M4VIDEOEDITING_VERSION_MINOR * 10
+ M4VIDEOEDITING_VERSION_REVISION;
err = pC->pWriterGlobalFcts->pFctSetOption(pC->pWriterContext,
M4WRITER_kEmbeddedVersion, (M4OSA_DataOption) &uiVersion);
if( ( M4NO_ERROR != err) && (( (M4OSA_UInt32)M4ERR_BAD_OPTION_ID)
!= err) ) /* this option may not be implemented by some writers */
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter: \
pWriterGlobalFcts->pFctSetOption(M4WRITER_kEmbeddedVersion) returns 0x%x",
err);
return err;
}
/**
* If there is a video input, allocate and fill the video stream structures for the writer */
if( pC->novideo == M4OSA_FALSE )
{
/**
* Fill Video properties structure for the AddStream method */
pC->WriterVideoStreamInfo.height = pC->EncodingHeight;
pC->WriterVideoStreamInfo.width = pC->EncodingWidth;
pC->WriterVideoStreamInfo.fps =
0; /**< Not used by the shell/core writer */
pC->WriterVideoStreamInfo.Header.pBuf =
M4OSA_NULL; /**< Will be updated later */
pC->WriterVideoStreamInfo.Header.Size = 0; /**< Will be updated later */
/**
* Fill Video stream description structure for the AddStream method */
switch( pC->EncodingVideoFormat )
{
case M4ENCODER_kMPEG4:
pC->WriterVideoStream.streamType = M4SYS_kMPEG_4;
break;
case M4ENCODER_kH263:
pC->WriterVideoStream.streamType = M4SYS_kH263;
break;
case M4ENCODER_kH264:
pC->WriterVideoStream.streamType = M4SYS_kH264;
break;
case M4ENCODER_kNULL:
switch( pC->InputFileProperties.VideoStreamType )
{
case M4VIDEOEDITING_kMPEG4:
pC->WriterVideoStream.streamType = M4SYS_kMPEG_4;
break;
case M4VIDEOEDITING_kH263:
pC->WriterVideoStream.streamType = M4SYS_kH263;
break;
case M4VIDEOEDITING_kH264:
pC->WriterVideoStream.streamType = M4SYS_kH264;
break;
default:
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter: case input=M4ENCODER_kNULL, \
unknown format (0x%x),\
returning M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FORMAT",
pC->EncodingVideoFormat);
return M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FORMAT;
}
break;
default: /**< It should never happen, already tested */
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter: unknown format (0x%x),\
returning M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FORMAT",
pC->EncodingVideoFormat);
return M4MCS_ERR_UNDEFINED_OUTPUT_VIDEO_FORMAT;
}
/**
* Video bitrate value will be the real value */
pC->WriterVideoStream.averageBitrate =
(M4OSA_Int32)pC->uiEncVideoBitrate;
pC->WriterVideoStream.maxBitrate = (M4OSA_Int32)pC->uiEncVideoBitrate;
/**
* most other parameters are "dummy" */
pC->WriterVideoStream.streamID = M4MCS_WRITER_VIDEO_STREAM_ID;
pC->WriterVideoStream.timeScale =
0; /**< Not used by the shell/core writer */
pC->WriterVideoStream.profileLevel =
0; /**< Not used by the shell/core writer */
pC->WriterVideoStream.duration =
0; /**< Not used by the shell/core writer */
pC->WriterVideoStream.decoderSpecificInfoSize =
sizeof(M4WRITER_StreamVideoInfos);
pC->WriterVideoStream.decoderSpecificInfo =
(M4OSA_MemAddr32) &(pC->WriterVideoStreamInfo);
/**
* Update Encoder Header properties for Video stream if needed */
if( M4ENCODER_kH263 == pC->EncodingVideoFormat )
{
/**
* Creates the H263 DSI */
pC->WriterVideoStreamInfo.Header.Size =
7; /**< H263 output DSI is always 7 bytes */
pDSI = (M4OSA_MemAddr8)M4OSA_32bitAlignedMalloc(7, M4MCS, (M4OSA_Char
*)"pC->WriterVideoStreamInfo.Header.pBuf (DSI H263)");
if( M4OSA_NULL == pDSI )
{
M4OSA_TRACE1_0("M4MCS_intPrepareWriter(): unable to allocate pDSI (H263),\
returning M4ERR_ALLOC");
return M4ERR_ALLOC;
}
/**
* Vendor is NXP Software: N, X, P, S. */
pDSI[0] = 'N';
pDSI[1] = 'X';
pDSI[2] = 'P';
pDSI[3] = 'S';
/**
* Decoder version is 0 */
pDSI[4] = 0;
/**
* Level is the sixth byte of the DSI. */
switch( pC->EncodingWidth )
{
case M4ENCODER_SQCIF_Width:
case M4ENCODER_QCIF_Width:
if( ( pC->uiEncVideoBitrate <= M4ENCODER_k64_KBPS)
&& (pC->EncodingVideoFramerate <= M4ENCODER_k15_FPS) )
{
pDSI[5] = 10;
}
else if( ( pC->uiEncVideoBitrate <= M4ENCODER_k128_KBPS)
&& (pC->EncodingVideoFramerate <= M4ENCODER_k15_FPS) )
{
pDSI[5] = 45;
}
else if( ( pC->uiEncVideoBitrate <= M4ENCODER_k128_KBPS)
&& (pC->EncodingVideoFramerate <= M4ENCODER_k30_FPS) )
{
pDSI[5] = 20;
}
else if( ( pC->uiEncVideoBitrate <= M4ENCODER_k384_KBPS)
&& (pC->EncodingVideoFramerate <= M4ENCODER_k30_FPS) )
{
pDSI[5] = 30;
}
else if( ( pC->uiEncVideoBitrate
<= M4ENCODER_k800_KBPS/*2048*/)
&& (pC->EncodingVideoFramerate <= M4ENCODER_k30_FPS) )
{
pDSI[5] = 40;
}
break;
case M4ENCODER_CIF_Width:
if( ( pC->uiEncVideoBitrate <= M4ENCODER_k128_KBPS)
&& (pC->EncodingVideoFramerate <= M4ENCODER_k15_FPS) )
{
pDSI[5] = 20;
}
else if( ( pC->uiEncVideoBitrate <= M4ENCODER_k384_KBPS)
&& (pC->EncodingVideoFramerate <= M4ENCODER_k30_FPS) )
{
pDSI[5] = 30;
}
else if( ( pC->uiEncVideoBitrate
<= M4ENCODER_k800_KBPS/*2048*/)
&& (pC->EncodingVideoFramerate <= M4ENCODER_k30_FPS) )
{
pDSI[5] = 40;
}
break;
default:
break;
}
/**
* Profile is the seventh byte of the DSI. */
pDSI[6] = 0;
pC->WriterVideoStreamInfo.Header.pBuf = pDSI;
}
else if( M4ENCODER_kNULL == pC->EncodingVideoFormat )
{
/* If we copy the stream from the input, we copy its DSI */
pC->WriterVideoStreamInfo.Header.Size = pC->pReaderVideoStream->
m_basicProperties.m_decoderSpecificInfoSize;
pC->WriterVideoStreamInfo.Header.pBuf =
(M4OSA_MemAddr8)pC->pReaderVideoStream->
m_basicProperties.m_pDecoderSpecificInfo;
}
/* otherwise (MPEG4), the DSI will be recovered from the encoder later on. */
/*+CRLV6775 - H.264 Trimming */
if( pC->bH264Trim == M4OSA_TRUE )
{
bMULPPSSPS = M4OSA_TRUE;
err = pC->pWriterGlobalFcts->pFctSetOption(pC->pWriterContext,
(M4OSA_UInt32)M4WRITER_kMUL_PPS_SPS,
(M4OSA_DataOption) &bMULPPSSPS);
if( ( M4NO_ERROR != err)
&& (( (M4OSA_UInt32)M4ERR_BAD_OPTION_ID)
!= err) ) /* this option may not be implemented by some writers */
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter:\
pWriterGlobalFcts->pFctSetOption(M4WRITER_kMUL_PPS_SPS) returns 0x%x",
err);
return err;
}
}
/*-CRLV6775 - H.264 Trimming */
/**
* Add the video stream */
err = pC->pWriterGlobalFcts->pFctAddStream(pC->pWriterContext,
&pC->WriterVideoStream);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter: pWriterGlobalFcts->pFctAddStream(video) returns 0x%x!",
err);
return err;
}
/**
* Update AU properties for video stream */
pC->WriterVideoAU.stream = &(pC->WriterVideoStream);
pC->WriterVideoAU.dataAddress = M4OSA_NULL;
pC->WriterVideoAU.size = 0;
pC->WriterVideoAU.CTS = 0; /** Reset time */
pC->WriterVideoAU.DTS = 0;
pC->WriterVideoAU.attribute = AU_RAP;
pC->WriterVideoAU.nbFrag = 0; /** No fragment */
pC->WriterVideoAU.frag = M4OSA_NULL;
/**
* Set the writer max video AU size */
optionValue.streamID = M4MCS_WRITER_VIDEO_STREAM_ID;
optionValue.value = pC->uiVideoMaxAuSize;
err = pC->pWriterGlobalFcts->pFctSetOption(pC->pWriterContext,
(M4OSA_UInt32)M4WRITER_kMaxAUSize,
(M4OSA_DataOption) &optionValue);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter: \
pWriterGlobalFcts->pFctSetOption(M4WRITER_kMaxAUSize, video) returns 0x%x!",
err);
return err;
}
/**
* Set the writer max video chunk size */
optionValue.value = pC->uiVideoMaxChunckSize;
err = pC->pWriterGlobalFcts->pFctSetOption(pC->pWriterContext,
(M4OSA_UInt32)M4WRITER_kMaxChunckSize,
(M4OSA_DataOption) &optionValue);
if( ( M4NO_ERROR != err) && (( (M4OSA_UInt32)M4ERR_BAD_OPTION_ID)
!= err) ) /* this option may not be implemented by some writers */
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter:\
pWriterGlobalFcts->pFctSetOption(M4WRITER_kMaxAUSize, video) returns 0x%x!",
err);
return err;
}
}
/**
* If there is an audio input, allocate and fill the audio stream structures for the writer */
if( pC->noaudio == M4OSA_FALSE )
{
M4WRITER_StreamAudioInfos streamAudioInfo;
streamAudioInfo.nbSamplesPerSec = 0; /**< unused by our shell writer */
streamAudioInfo.nbBitsPerSample = 0; /**< unused by our shell writer */
streamAudioInfo.nbChannels = 1; /**< unused by our shell writer */
pC->WriterAudioStream.averageBitrate =
0; /**< It is not used by the shell, the DSI is taken into account instead */
pC->WriterAudioStream.maxBitrate =
0; /**< Not used by the shell/core writer */
/**
* Fill Audio stream description structure for the AddStream method */
switch( pC->AudioEncParams.Format )
{
case M4ENCODER_kAMRNB:
pC->WriterAudioStream.streamType = M4SYS_kAMR;
break;
case M4ENCODER_kAAC:
pC->WriterAudioStream.streamType = M4SYS_kAAC;
pC->WriterAudioStream.averageBitrate =
pC->AudioEncParams.Bitrate;
pC->WriterAudioStream.maxBitrate = pC->AudioEncParams.Bitrate;
break;
/*FlB 26.02.2009: add mp3 as output format*/
case M4ENCODER_kMP3:
pC->WriterAudioStream.streamType = M4SYS_kMP3;
break;
case M4ENCODER_kAudioNULL:
switch( pC->InputFileProperties.AudioStreamType )
{
case M4VIDEOEDITING_kAMR_NB:
pC->WriterAudioStream.streamType = M4SYS_kAMR;
break;
/*FlB 26.02.2009: add mp3 as output format*/
case M4VIDEOEDITING_kMP3:
pC->WriterAudioStream.streamType = M4SYS_kMP3;
break;
case M4VIDEOEDITING_kAAC:
case M4VIDEOEDITING_kAACplus:
case M4VIDEOEDITING_keAACplus:
pC->WriterAudioStream.streamType = M4SYS_kAAC;
pC->WriterAudioStream.averageBitrate =
pC->AudioEncParams.Bitrate;
pC->WriterAudioStream.maxBitrate =
pC->AudioEncParams.Bitrate;
break;
case M4VIDEOEDITING_kEVRC:
pC->WriterAudioStream.streamType = M4SYS_kEVRC;
break;
case M4VIDEOEDITING_kNoneAudio:
case M4VIDEOEDITING_kPCM:
case M4VIDEOEDITING_kNullAudio:
case M4VIDEOEDITING_kUnsupportedAudio:
break;
}
break;
default: /**< It should never happen, already tested */
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter: \
unknown format (0x%x), returning M4MCS_ERR_UNDEFINED_OUTPUT_AUDIO_FORMAT",
pC->AudioEncParams.Format);
return M4MCS_ERR_UNDEFINED_OUTPUT_AUDIO_FORMAT;
}
/**
* MCS produces only AMR-NB output */
pC->WriterAudioStream.streamID = M4MCS_WRITER_AUDIO_STREAM_ID;
pC->WriterAudioStream.duration =
0; /**< Not used by the shell/core writer */
pC->WriterAudioStream.profileLevel =
0; /**< Not used by the shell/core writer */
pC->WriterAudioStream.timeScale = pC->AudioEncParams.Frequency;
if( pC->AudioEncParams.Format == M4ENCODER_kAudioNULL )
{
/* If we copy the stream from the input, we copy its DSI */
streamAudioInfo.Header.Size = pC->pReaderAudioStream->
m_basicProperties.m_decoderSpecificInfoSize;
streamAudioInfo.Header.pBuf =
(M4OSA_MemAddr8)pC->pReaderAudioStream->
m_basicProperties.m_pDecoderSpecificInfo;
}
else
{
if( pC->pAudioEncDSI.pInfo != M4OSA_NULL )
{
/* Use the DSI given by the encoder open() */
streamAudioInfo.Header.Size = pC->pAudioEncDSI.infoSize;
streamAudioInfo.Header.pBuf = pC->pAudioEncDSI.pInfo;
}
else
{
/* Writer will put a default Philips DSI */
streamAudioInfo.Header.Size = 0;
streamAudioInfo.Header.pBuf = M4OSA_NULL;
}
}
/**
* Our writer shell interface is a little tricky: we put M4WRITER_StreamAudioInfos
in the DSI pointer... */
pC->WriterAudioStream.decoderSpecificInfo =
(M4OSA_MemAddr32) &streamAudioInfo;
/**
* Add the audio stream to the writer */
err = pC->pWriterGlobalFcts->pFctAddStream(pC->pWriterContext,
&pC->WriterAudioStream);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter: pWriterGlobalFcts->pFctAddStream(audio) returns 0x%x",
err);
return err;
}
/**
* Link the AU and the stream */
pC->WriterAudioAU.stream = &(pC->WriterAudioStream);
pC->WriterAudioAU.dataAddress = M4OSA_NULL;
pC->WriterAudioAU.size = 0;
pC->WriterAudioAU.CTS = 0; /** Reset time */
pC->WriterAudioAU.DTS = 0;
pC->WriterAudioAU.attribute = 0;
pC->WriterAudioAU.nbFrag = 0; /** No fragment */
pC->WriterAudioAU.frag = M4OSA_NULL;
/**
* Set the writer audio max AU size */
/* As max bitrate is now 320kbps instead of 128kbps, max AU
* size has to be increased adapt the max AU size according to the stream type and the
* channels numbers*/
/* After tests, a margin of 3 is taken (2 was not enough and raises to memory overwrite)
*/
//pC->uiAudioMaxAuSize = M4MCS_AUDIO_MAX_AU_SIZE;
switch( pC->WriterAudioStream.streamType )
{
case M4SYS_kAMR:
pC->uiAudioMaxAuSize = M4MCS_PCM_AMR_GRANULARITY_SAMPLES
* (( pC->InputFileProperties.uiNbChannels
* sizeof(short)) + 3);
break;
case M4SYS_kMP3:
pC->uiAudioMaxAuSize = M4MCS_PCM_MP3_GRANULARITY_SAMPLES
* (( pC->InputFileProperties.uiNbChannels
* sizeof(short)) + 3);
break;
case M4SYS_kAAC:
pC->uiAudioMaxAuSize = M4MCS_PCM_AAC_GRANULARITY_SAMPLES
* (( pC->InputFileProperties.uiNbChannels
* sizeof(short)) + 3);
break;
/*case M4SYS_kEVRC:
pC->uiAudioMaxAuSize = M4MCS_PCM_EVRC_GRANULARITY_SAMPLES*
((pC->InputFileProperties.uiNbChannels * sizeof(short))+3);
break;*/
default: /**< It should never happen, already tested */
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter: unknown format (0x%x),\
returning M4MCS_ERR_UNDEFINED_OUTPUT_AUDIO_FORMAT",
pC->WriterAudioStream.streamType);
return M4MCS_ERR_UNDEFINED_OUTPUT_AUDIO_FORMAT;
}
optionValue.streamID = M4MCS_WRITER_AUDIO_STREAM_ID;
optionValue.value = pC->uiAudioMaxAuSize;
err = pC->pWriterGlobalFcts->pFctSetOption(pC->pWriterContext,
(M4OSA_UInt32)M4WRITER_kMaxAUSize,
(M4OSA_DataOption) &optionValue);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter: pWriterGlobalFcts->pFctSetOption(audio,\
M4WRITER_kMaxAUSize) returns 0x%x",
err);
return err;
}
optionValue.value = M4MCS_AUDIO_MAX_CHUNK_SIZE;
err = pC->pWriterGlobalFcts->pFctSetOption(pC->pWriterContext,
(M4OSA_UInt32)M4WRITER_kMaxChunckSize,
(M4OSA_DataOption) &optionValue);
if( ( M4NO_ERROR != err) && (( (M4OSA_UInt32)M4ERR_BAD_OPTION_ID)
!= err) ) /* this option may not be implemented by some writers */
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter: pWriterGlobalFcts->pFctSetOption(audio,\
M4WRITER_kMaxChunckSize) returns 0x%x",
err);
return err;
}
}
/*
* Set the limitation size of the writer */
TargetedFileSize = pC->uiMaxFileSize;
/* add 1 kB margin */
if( TargetedFileSize > 8192 )
TargetedFileSize -= 1024;
err = pC->pWriterGlobalFcts->pFctSetOption(pC->pWriterContext,
(M4OSA_UInt32)M4WRITER_kMaxFileSize,
(M4OSA_DataOption) &TargetedFileSize);
if( ( M4NO_ERROR != err) && (( (M4OSA_UInt32)M4ERR_BAD_OPTION_ID)
!= err) ) /* this option may not be implemented by some writers */
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter: pWriterGlobalFcts->pFctSetOption\
(M4WRITER_kMaxFileSize) returns 0x%x!",
err);
return err;
}
/**
* Close the stream registering in order to be ready to write data */
err = pC->pWriterGlobalFcts->pFctStartWriting(pC->pWriterContext);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareWriter: pWriterGlobalFcts->pFctStartWriting returns 0x%x",
err);
return err;
}
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_intPrepareWriter(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intPrepareAudioBeginCut(M4MCS_InternalContext* pC);
* @brief DO the audio begin cut.
* @param pC (IN) MCS private context
* @return M4NO_ERROR No error
* @return Any error returned by an underlaying module
******************************************************************************
*/
static M4OSA_ERR M4MCS_intPrepareAudioBeginCut( M4MCS_InternalContext *pC )
{
M4OSA_ERR err;
M4OSA_Int32 iCts;
M4OSA_UInt32 uiFrameSize;
if( pC->noaudio )
return M4NO_ERROR;
/**
* Check if an audio begin cut is needed */
if( ( M4OSA_NULL == pC->pReaderAudioStream) || (0 == pC->uiBeginCutTime) )
{
/**
* Return with no error */
M4OSA_TRACE3_0(
"M4MCS_intPrepareAudioBeginCut(): returning M4NO_ERROR (a)");
return M4NO_ERROR;
}
/**
* Jump at the begin cut time */
iCts = pC->uiBeginCutTime;
err = pC->m_pReader->m_pFctJump(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderAudioStream, &iCts);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareAudioBeginCut: m_pFctJump(Audio) returns 0x%x!",
err);
return err;
}
/**
* Remember audio begin cut offset */
pC->iAudioCtsOffset = iCts;
/**
* AMR-NB & EVRC: there may be many frames per AU.
* In that case we need to slice the first AU to keep the 20 ms cut precision */
if( ( M4DA_StreamTypeAudioAmrNarrowBand
== pC->pReaderAudioStream->m_basicProperties.m_streamType)
|| (M4DA_StreamTypeAudioEvrc
== pC->pReaderAudioStream->m_basicProperties.m_streamType) )
{
/**
* If the next frame CTS is lower than the begin cut time,
* we must read the AU and parse its frames to reach the
* nearest to the begin cut */
if( ( iCts + 20) < (M4OSA_Int32)pC->uiBeginCutTime )
{
/**
* Read the first audio AU after the jump */
err = pC->m_pReaderDataIt->m_pFctGetNextAu(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderAudioStream,
&pC->ReaderAudioAU);
if( M4WAR_NO_MORE_AU == err )
{
M4OSA_TRACE1_0(
"M4MCS_intPrepareAudioBeginCut(): m_pReaderDataIt->m_pFctGetNextAu(audio)\
returns M4WAR_NO_MORE_AU! Returning M4NO_ERROR");
return
M4NO_ERROR; /**< no fatal error here, we should be able to pursue */
}
else if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intPrepareAudioBeginCut(): m_pReaderDataIt->m_pFctGetNextAu(Audio)\
returns 0x%x",
err);
return err;
}
/**
* While the next AU has a lower CTS than the begin cut time, we advance to
the next frame */
while( ( iCts + 20) <= (M4OSA_Int32)pC->uiBeginCutTime )
{
/**
* Get the size of the frame */
switch( pC->pReaderAudioStream->m_basicProperties.m_streamType )
{
case M4DA_StreamTypeAudioAmrNarrowBand:
uiFrameSize = M4MCS_intGetFrameSize_AMRNB(
pC->ReaderAudioAU.m_dataAddress);
break;
case M4DA_StreamTypeAudioEvrc:
uiFrameSize = M4MCS_intGetFrameSize_EVRC(
pC->ReaderAudioAU.m_dataAddress);
break;
default:
uiFrameSize = 0;
break;
}
if( 0 == uiFrameSize )
{
/**
* Corrupted frame! We get out of this mess!
* We don't want to crash here... */
M4OSA_TRACE1_0(
"M4MCS_intPrepareAudioBeginCut(): \
M4MCS_intGetFrameSize_xxx returns 0! Returning M4NO_ERROR");
return
M4NO_ERROR; /**< no fatal error here, we should be able to pursue */
}
/**
* Go to the next frame */
pC->ReaderAudioAU.m_dataAddress += uiFrameSize;
pC->ReaderAudioAU.m_size -= uiFrameSize;
/**
* Get the CTS of the next frame */
iCts += 20; /**< AMR, EVRC frame duration is always 20 ms */
pC->ReaderAudioAU.m_CTS = iCts;
pC->ReaderAudioAU.m_DTS = iCts;
}
/**
* Update the audio begin cut offset */
pC->iAudioCtsOffset = iCts;
}
}
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_intPrepareAudioBeginCut(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intStepEncoding(M4MCS_InternalContext* pC, M4OSA_UInt8* pProgress)
******************************************************************************
*/
static M4OSA_ERR M4MCS_intStepEncoding( M4MCS_InternalContext *pC,
M4OSA_UInt8 *pProgress )
{
M4OSA_ERR err;
M4OSA_UInt32 uiAudioStepCount = 0;
/* ---------- VIDEO TRANSCODING ---------- */
if( ( pC->novideo == M4OSA_FALSE) && (M4MCS_kStreamState_STARTED
== pC->VideoState) ) /**< If the video encoding is going on */
{
if( pC->EncodingVideoFormat == M4ENCODER_kNULL )
{
err = M4MCS_intVideoNullEncoding(pC);
}
else
{
err = M4MCS_intVideoTranscoding(pC);
}
/**
* No more space, quit properly */
if( M4WAR_WRITER_STOP_REQ == err )
{
*pProgress = (M4OSA_UInt8)(( ( (M4OSA_UInt32)pC->dViDecCurrentCts
- pC->uiBeginCutTime) * 100)
/ (pC->uiEndCutTime - pC->uiBeginCutTime));
pC->State = M4MCS_kState_FINISHED;
/* bad file produced on very short 3gp file */
if( pC->dViDecCurrentCts - pC->uiBeginCutTime == 0 )
{
/* Nothing has been encoded -> bad produced file -> error returned */
M4OSA_TRACE2_0(
"M4MCS_intStepEncoding(): video transcoding returns\
M4MCS_ERR_OUTPUT_FILE_SIZE_TOO_SMALL");
return M4MCS_ERR_OUTPUT_FILE_SIZE_TOO_SMALL;
}
else
{
#ifndef M4MCS_AUDIOONLY
/* clean AIR context needed to keep media aspect ratio*/
if( M4OSA_NULL != pC->m_air_context )
{
err = M4AIR_cleanUp(pC->m_air_context);
if( err != M4NO_ERROR )
{
M4OSA_TRACE1_1(
"M4xVSS_PictureCallbackFct: Error when cleaning AIR: 0x%x",
err);
return err;
}
pC->m_air_context = M4OSA_NULL;
}
#endif /*M4MCS_AUDIOONLY*/
M4OSA_TRACE2_0(
"M4MCS_intStepEncoding(): video transcoding returns M4MCS_ERR_NOMORE_SPACE");
return M4MCS_ERR_NOMORE_SPACE;
}
}
/**< The input plane is null because the input image will be obtained by the
VPP filter from the context */
if( ( M4NO_ERROR != err) && (M4WAR_NO_MORE_AU != err) )
{
M4OSA_TRACE1_1(
"M4MCS_intStepEncoding(): video transcoding returns 0x%x!",
err);
return err;
}
}
/* ---------- AUDIO TRANSCODING ---------- */
if( ( pC->noaudio == M4OSA_FALSE) && (M4MCS_kStreamState_STARTED
== pC->AudioState) ) /**< If there is an audio stream */
{
while(
/**< If the video encoding is running, encode audio until we reach video time */
( ( pC->novideo == M4OSA_FALSE)
&& (M4MCS_kStreamState_STARTED == pC->VideoState)
&& (pC->ReaderAudioAU.m_CTS
+ pC->m_audioAUDuration < pC->ReaderVideoAU.m_CTS)) ||
/**< If the video encoding is not running, perform 1 step of audio encoding */
(( M4MCS_kStreamState_STARTED == pC->AudioState)
&& (uiAudioStepCount < 1)) )
{
uiAudioStepCount++;
/**< check if an adio effect has to be applied*/
err = M4MCS_intCheckAudioEffects(pC);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intStepEncoding(): M4MCS_intCheckAudioEffects returns err: 0x%x",
err);
return err;
}
if( pC->AudioEncParams.Format == M4ENCODER_kAudioNULL )
{
err = M4MCS_intAudioNullEncoding(pC);
}
else /**< Audio transcoding */
{
err = M4MCS_intAudioTranscoding(pC);
}
/**
* No more space, quit properly */
if( M4WAR_WRITER_STOP_REQ == err )
{
*pProgress =
(M4OSA_UInt8)(( ( (M4OSA_UInt32)pC->ReaderAudioAU.m_CTS
- pC->uiBeginCutTime) * 100)
/ (pC->uiEndCutTime - pC->uiBeginCutTime));
pC->State = M4MCS_kState_FINISHED;
/* bad file produced on very short 3gp file */
if( pC->ReaderAudioAU.m_CTS - pC->uiBeginCutTime == 0 )
{
/* Nothing has been encoded -> bad produced file -> error returned */
M4OSA_TRACE2_0(
"M4MCS_intStepEncoding():\
audio transcoding returns M4MCS_ERR_OUTPUT_FILE_SIZE_TOO_SMALL");
return M4MCS_ERR_OUTPUT_FILE_SIZE_TOO_SMALL;
}
else
{
#ifndef M4MCS_AUDIOONLY
/* clean AIR context needed to keep media aspect ratio*/
if( M4OSA_NULL != pC->m_air_context )
{
err = M4AIR_cleanUp(pC->m_air_context);
if( err != M4NO_ERROR )
{
M4OSA_TRACE1_1(
"M4xVSS_PictureCallbackFct: Error when cleaning AIR: 0x%x",
err);
return err;
}
pC->m_air_context = M4OSA_NULL;
}
#endif /*M4MCS_AUDIOONLY*/
M4OSA_TRACE2_0(
"M4MCS_intStepEncoding(): \
audio transcoding returns M4MCS_ERR_NOMORE_SPACE");
return M4MCS_ERR_NOMORE_SPACE;
}
}
if( M4WAR_NO_MORE_AU == err )
{
pC->AudioState = M4MCS_kStreamState_FINISHED;
M4OSA_TRACE3_0(
"M4MCS_intStepEncoding(): audio transcoding returns M4WAR_NO_MORE_AU");
break;
}
else if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intStepEncoding(): audio transcoding returns 0x%x",
err);
return err;
}
/**
* Check for end cut */
/* We absolutely want to have less or same audio duration as video ->
(2*pC->m_audioAUDuration) */
if( (M4OSA_UInt32)pC->ReaderAudioAU.m_CTS
+ (2 *pC->m_audioAUDuration) > pC->uiEndCutTime )
{
pC->AudioState = M4MCS_kStreamState_FINISHED;
break;
}
}
}
/* ---------- PROGRESS MANAGEMENT ---------- */
/**
* Compute progress */
if( pC->novideo )
{
if( pC->ReaderAudioAU.m_CTS < pC->uiBeginCutTime )
{
*pProgress = 0;
}
else
{
*pProgress = (M4OSA_UInt8)(( ( (M4OSA_UInt32)pC->ReaderAudioAU.m_CTS
- pC->uiBeginCutTime) * 100)
/ (pC->uiEndCutTime - pC->uiBeginCutTime));
}
//printf(": %6.0f\b\b\b\b\b\b\b\b", pC->ReaderAudioAU.m_CTS);
}
else
{
if( pC->dViDecCurrentCts < pC->uiBeginCutTime )
{
*pProgress = 0;
}
else
{
*pProgress = (M4OSA_UInt8)(( ( (M4OSA_UInt32)pC->dViDecCurrentCts
- pC->uiBeginCutTime) * 100)
/ (pC->uiEndCutTime - pC->uiBeginCutTime));
}
//printf(": %6.0f\b\b\b\b\b\b\b\b", pC->dViDecCurrentCts);
}
/**
* Sanity check */
if( *pProgress > 99 )
{
*pProgress = 99;
}
/**
* Increment CTS for next step */
if( pC->novideo == M4OSA_FALSE )
{
if( pC->EncodingVideoFormat == M4ENCODER_kNULL )
{
pC->dViDecCurrentCts += 1;
}
else
{
pC->dViDecCurrentCts += pC->dCtsIncrement;
}
}
/**
* The transcoding is finished when no stream is being encoded anymore */
if( ( ( pC->novideo) || (M4MCS_kStreamState_FINISHED == pC->VideoState))
&& (( pC->noaudio) || (M4MCS_kStreamState_FINISHED == pC->AudioState)) )
{
/* the AIR part can only be used when video codecs are compiled*/
#ifndef M4MCS_AUDIOONLY
/* clean AIR context needed to keep media aspect ratio*/
if( M4OSA_NULL != pC->m_air_context )
{
err = M4AIR_cleanUp(pC->m_air_context);
if( err != M4NO_ERROR )
{
M4OSA_TRACE1_1(
"M4xVSS_PictureCallbackFct: Error when cleaning AIR: 0x%x",
err);
return err;
}
pC->m_air_context = M4OSA_NULL;
}
#endif /*M4MCS_AUDIOONLY*/
/**/
*pProgress = 100;
pC->State = M4MCS_kState_FINISHED;
M4OSA_TRACE2_0(
"M4MCS_intStepEncoding(): transcoding finished, returning M4MCS_WAR_TRANSCODING_DONE");
return M4MCS_WAR_TRANSCODING_DONE;
}
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_intStepEncoding(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intStepBeginVideoJump(M4MCS_InternalContext* pC)
******************************************************************************
*/
static M4OSA_ERR M4MCS_intStepBeginVideoJump( M4MCS_InternalContext *pC )
{
M4OSA_ERR err;
M4OSA_Int32 iCts;
if( pC->novideo )
{
pC->State = M4MCS_kState_BEGINVIDEODECODE;
return M4NO_ERROR;
}
/**
* Jump to the previous RAP in the clip (first get the time, then jump) */
iCts = (M4OSA_Int32)pC->dViDecStartingCts;
err = pC->m_pReader->m_pFctGetPrevRapTime(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderVideoStream, &iCts);
if( M4WAR_READER_INFORMATION_NOT_PRESENT == err )
{
/* No RAP table, jump backward and predecode */
iCts = (M4OSA_Int32)pC->dViDecStartingCts - M4MCS_NO_STSS_JUMP_POINT;
if( iCts < 0 )
iCts = 0;
}
else if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intStepBeginVideoJump: m_pFctGetPrevRapTime returns 0x%x!",
err);
return err;
}
/* + CRLV6775 -H.264 Trimming */
if( M4OSA_TRUE == pC->bH264Trim )
{
// Save jump time for safety, this fix should be generic
M4OSA_Int32 iCtsOri = iCts;
err = pC->m_pReader->m_pFctJump(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderVideoStream, &iCts);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intStepBeginVideoJump: m_pFctJump(V) returns 0x%x!",
err);
return err;
}
if( pC->ReaderVideoAU1.m_structSize == 0 )
{
/**
* Initializes an access Unit */
err = pC->m_pReader->m_pFctFillAuStruct(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderVideoStream,
&pC->ReaderVideoAU1);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_open(): m_pReader->m_pFctFillAuStruct(video) returns 0x%x",
err);
return err;
}
err = pC->m_pReaderDataIt->m_pFctGetNextAu(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderVideoStream,
&pC->ReaderVideoAU1);
if( M4WAR_NO_MORE_AU == err )
{
M4OSA_TRACE2_0(
"M4MCS_intVideoNullEncoding(): \
m_pReaderDataIt->m_pFctGetNextAu(video) returns M4WAR_NO_MORE_AU");
/* The audio transcoding is finished */
pC->VideoState = M4MCS_kStreamState_FINISHED;
return err;
}
else if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intVideoNullEncoding():\
m_pReaderDataIt->m_pFctGetNextAu(video) returns 0x%x",
err);
return err;
}
pC->ReaderVideoAU1.m_structSize = 0;
}
err = H264MCS_ProcessSPS_PPS(pC->m_pInstance,
(M4OSA_UInt8 *)pC->ReaderVideoAU1.m_dataAddress, pC->ReaderVideoAU1.m_size);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intStepBeginVideoJump: H264MCS_ProcessSPS_PPS returns 0x%x!",
err);
return err;
}
// Restore jump time for safety, this fix should be generic
iCts = iCtsOri;
}
/* - CRLV6775 -H.264 Trimming */
/**
* Decode one step */
pC->dViDecCurrentCts = (M4OSA_Double)(iCts + pC->iVideoBeginDecIncr);
/**
* Be sure we don't decode too far */
if( pC->dViDecCurrentCts > pC->dViDecStartingCts )
{
pC->dViDecCurrentCts = pC->dViDecStartingCts;
}
/**
* Decode at least once with the bJump flag to true */
M4OSA_TRACE3_1(
"M4VSS3GPP_intClipDecodeVideoUpToCts: Decoding upTo CTS %.3f",
pC->dViDecCurrentCts);
pC->isRenderDup = M4OSA_FALSE;
err =
pC->m_pVideoDecoder->m_pFctDecode(pC->pViDecCtxt, &pC->dViDecCurrentCts,
M4OSA_TRUE, 0);
if( ( M4NO_ERROR != err) && (M4WAR_NO_MORE_AU != err)
&& (err != M4WAR_VIDEORENDERER_NO_NEW_FRAME) )
{
M4OSA_TRACE1_1(
"M4MCS_intStepBeginVideoJump: m_pFctDecode returns 0x%x!", err);
return err;
}
if( err == M4WAR_VIDEORENDERER_NO_NEW_FRAME )
{
M4OSA_TRACE2_0("Decoding output the same frame as before 1");
pC->isRenderDup = M4OSA_TRUE;
}
/**
* Increment decoding cts for the next step */
pC->dViDecCurrentCts += (M4OSA_Double)pC->iVideoBeginDecIncr;
/**
* Update state automaton */
if( pC->dViDecCurrentCts > pC->dViDecStartingCts )
{
/**
* Be sure we don't decode too far */
pC->dViDecCurrentCts = pC->dViDecStartingCts;
pC->State = M4MCS_kState_PROCESSING;
}
else
{
pC->State = M4MCS_kState_BEGINVIDEODECODE;
}
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_intStepBeginVideoJump(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intStepBeginVideoDecode(M4MCS_InternalContext* pC)
******************************************************************************
*/
static M4OSA_ERR M4MCS_intStepBeginVideoDecode( M4MCS_InternalContext *pC )
{
M4OSA_ERR err;
M4_MediaTime dDecTarget;
if( pC->novideo )
{
pC->State = M4MCS_kState_PROCESSING;
return M4NO_ERROR;
}
/**
* Decode */
dDecTarget = pC->dViDecCurrentCts;
M4OSA_TRACE3_1("M4MCS_intStepBeginDecode: Decoding upTo CTS %.3f",
pC->dViDecCurrentCts);
pC->isRenderDup = M4OSA_FALSE;
err = pC->m_pVideoDecoder->m_pFctDecode(pC->pViDecCtxt, &dDecTarget,
M4OSA_FALSE, 0);
if( ( M4NO_ERROR != err) && (M4WAR_NO_MORE_AU != err)
&& (err != M4WAR_VIDEORENDERER_NO_NEW_FRAME) )
{
M4OSA_TRACE1_1(
"M4MCS_intStepBeginVideoDecode: m_pFctDecode returns 0x%x!", err);
return err;
}
if( err == M4WAR_VIDEORENDERER_NO_NEW_FRAME )
{
M4OSA_TRACE2_0("Decoding output the same frame as before 2");
pC->isRenderDup = M4OSA_TRUE;
}
/**
* Increment decoding cts for the next step */
pC->dViDecCurrentCts += (M4OSA_Double)pC->iVideoBeginDecIncr;
/**
* Update state automaton, if needed */
if( ( (M4OSA_UInt32)pC->dViDecCurrentCts > pC->dViDecStartingCts)
|| (M4WAR_NO_MORE_AU == err) )
{
/**
* Be sure we don't decode too far */
pC->dViDecCurrentCts = (M4OSA_Double)pC->dViDecStartingCts;
pC->State = M4MCS_kState_PROCESSING;
}
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_intStepBeginVideoDecode(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/*****************************/
/* define AMR silence frames */
/*****************************/
#define M4VSS3GPP_AMR_AU_SILENCE_FRAME_048_SIZE 13
#define M4VSS3GPP_AMR_AU_SILENCE_FRAME_048_DURATION 160
#ifdef M4VSS3GPP_SILENCE_FRAMES
const M4OSA_UInt8 M4VSS3GPP_AMR_AU_SILENCE_FRAME_048[
M4VSS3GPP_AMR_AU_SILENCE_FRAME_048_SIZE] =
{
0x04, 0xFF, 0x18, 0xC7, 0xF0, 0x0D, 0x04, 0x33, 0xFF, 0xE0, 0x00, 0x00, 0x00
};
#else
extern
const
M4OSA_UInt8
M4VSS3GPP_AMR_AU_SILENCE_FRAME_048[M4VSS3GPP_AMR_AU_SILENCE_FRAME_048_SIZE];
#endif
/*****************************/
/* define AAC silence frames */
/*****************************/
#define M4VSS3GPP_AAC_AU_SILENCE_MONO_SIZE 4
#ifdef M4VSS3GPP_SILENCE_FRAMES
const M4OSA_UInt8 M4VSS3GPP_AAC_AU_SILENCE_MONO[
M4VSS3GPP_AAC_AU_SILENCE_MONO_SIZE] =
{
0x00, 0xC8, 0x20, 0x07
};
#else
extern const M4OSA_UInt8
M4VSS3GPP_AAC_AU_SILENCE_MONO[M4VSS3GPP_AAC_AU_SILENCE_MONO_SIZE];
#endif
#define M4VSS3GPP_AAC_AU_SILENCE_STEREO_SIZE 6
#ifdef M4VSS3GPP_SILENCE_FRAMES
const M4OSA_UInt8 M4VSS3GPP_AAC_AU_SILENCE_STEREO[
M4VSS3GPP_AAC_AU_SILENCE_STEREO_SIZE] =
{
0x21, 0x10, 0x03, 0x20, 0x54, 0x1C
};
#else
extern const
M4OSA_UInt8
M4VSS3GPP_AAC_AU_SILENCE_STEREO[M4VSS3GPP_AAC_AU_SILENCE_STEREO_SIZE];
#endif
/**
******************************************************************************
* M4OSA_ERR M4MCS_intAudioNullEncoding(M4MCS_InternalContext* pC)
* @return M4NO_ERROR: No error
******************************************************************************
*/
static M4OSA_ERR M4MCS_intAudioNullEncoding( M4MCS_InternalContext *pC )
{
M4OSA_ERR err;
if( pC->noaudio )
return M4NO_ERROR;
/* Check if all audio frame has been written (happens at begin cut) */
if( pC->ReaderAudioAU.m_size == 0 )
{
/**
* Initializes a new AU if needed */
if( pC->ReaderAudioAU1.m_structSize == 0 )
{
/**
* Initializes an access Unit */
err = pC->m_pReader->m_pFctFillAuStruct(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderAudioStream,
&pC->ReaderAudioAU1);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_open(): m_pReader->m_pFctFillAuStruct(audio) returns 0x%x",
err);
return err;
}
pC->m_pDataAddress1 =
(M4OSA_MemAddr8)M4OSA_32bitAlignedMalloc(pC->ReaderAudioAU1.m_maxsize,
M4MCS, (M4OSA_Char *)"Temporary AU1 buffer");
if( pC->m_pDataAddress1 == M4OSA_NULL )
{
M4OSA_TRACE1_0(
"M4MCS_intAudioNullEncoding(): allocation error");
return M4ERR_ALLOC;
}
err = pC->m_pReaderDataIt->m_pFctGetNextAu(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderAudioStream,
&pC->ReaderAudioAU1);
if( M4WAR_NO_MORE_AU == err )
{
M4OSA_TRACE2_0(
"M4MCS_intAudioNullEncoding():\
m_pReaderDataIt->m_pFctGetNextAu(audio) returns M4WAR_NO_MORE_AU");
/* The audio transcoding is finished */
pC->AudioState = M4MCS_kStreamState_FINISHED;
return err;
}
else if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intAudioNullEncoding(): \
m_pReaderDataIt->m_pFctGetNextAu(Audio) returns 0x%x",
err);
return err;
}
/*FB 2009.04.02: PR surnxp#616: Crash in MCS while Audio AU copying ,
constant memory reader case*/
if( pC->ReaderAudioAU1.m_maxsize
> pC->pReaderAudioStream->m_basicProperties.m_maxAUSize )
{
/* Constant memory reader case, we need to reallocate the temporary buffers */
M4MCS_intReallocTemporaryAU((M4OSA_MemAddr8
*) &(pC->m_pDataAddress1), pC->ReaderAudioAU1.m_maxsize);
/* pC->m_pDataAddress1 and
pC->m_pDataAddress2 must be reallocated at the same time */
/* because pC->pReaderAudioStream->m_basicProperties.m_maxAUSize take
maximum value. Then the test "if(pC->ReaderAudioAU?.m_maxsize >
pC->pReaderAudioStream->m_basicProperties.m_maxAUSize)" is never true */
/* and the size of the second buffer is never changed. */
M4MCS_intReallocTemporaryAU((M4OSA_MemAddr8
*) &(pC->m_pDataAddress2), pC->ReaderAudioAU1.m_maxsize);
/* pC->m_pDataAddress1 and
pC->m_pDataAddress2 must be reallocated at the same time */
/* Update stream properties */
pC->pReaderAudioStream->m_basicProperties.m_maxAUSize =
pC->ReaderAudioAU1.m_maxsize;
}
/**/
memcpy((void *)pC->m_pDataAddress1,
(void *)pC->ReaderAudioAU1.m_dataAddress,
pC->ReaderAudioAU1.m_size);
}
if( pC->ReaderAudioAU2.m_structSize == 0 )
{
/**
* Initializes an access Unit */
err = pC->m_pReader->m_pFctFillAuStruct(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderAudioStream,
&pC->ReaderAudioAU2);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_open(): m_pReader->m_pFctFillAuStruct(audio) returns 0x%x",
err);
return err;
}
pC->m_pDataAddress2 =
(M4OSA_MemAddr8)M4OSA_32bitAlignedMalloc(pC->ReaderAudioAU2.m_maxsize,
M4MCS, (M4OSA_Char *)"Temporary AU buffer");
if( pC->m_pDataAddress2 == M4OSA_NULL )
{
M4OSA_TRACE1_0(
"M4MCS_intAudioNullEncoding(): allocation error");
return M4ERR_ALLOC;
}
}
/**
* Read the next audio AU in the input file */
if( pC->ReaderAudioAU2.m_CTS > pC->ReaderAudioAU1.m_CTS )
{
memcpy((void *) &pC->ReaderAudioAU,
(void *) &pC->ReaderAudioAU2, sizeof(M4_AccessUnit));
err = pC->m_pReaderDataIt->m_pFctGetNextAu(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderAudioStream,
&pC->ReaderAudioAU1);
if( pC->ReaderAudioAU1.m_maxsize
> pC->pReaderAudioStream->m_basicProperties.m_maxAUSize )
{
/* Constant memory reader case, we need to reallocate the temporary buffers */
M4MCS_intReallocTemporaryAU((M4OSA_MemAddr8
*) &(pC->m_pDataAddress1), pC->ReaderAudioAU1.m_maxsize);
/* pC->m_pDataAddress1
* and pC->m_pDataAddress2 must be reallocated at the same time *
* because pC->pReaderAudioStream->m_basicProperties.m_maxAUSize take
* maximum value. Then the test "if(pC->ReaderAudioAU?.m_maxsize >
* pC->pReaderAudioStream->m_basicProperties.m_maxAUSize)" is never true *
* and the size of the second buffer is never changed.
*/
M4MCS_intReallocTemporaryAU((M4OSA_MemAddr8
*) &(pC->m_pDataAddress2), pC->ReaderAudioAU1.m_maxsize);
/* pC->m_pDataAddress1 and
* pC->m_pDataAddress2 must be reallocated at the same time
* Update stream properties
*/
pC->pReaderAudioStream->m_basicProperties.m_maxAUSize =
pC->ReaderAudioAU1.m_maxsize;
}
/**/
memcpy((void *)pC->m_pDataAddress1,
(void *)pC->ReaderAudioAU1.m_dataAddress,
pC->ReaderAudioAU1.m_size);
pC->m_audioAUDuration =
pC->ReaderAudioAU1.m_CTS - pC->ReaderAudioAU2.m_CTS;
pC->ReaderAudioAU.m_dataAddress = pC->m_pDataAddress2;
}
else
{
memcpy((void *) &pC->ReaderAudioAU,
(void *) &pC->ReaderAudioAU1, sizeof(M4_AccessUnit));
err = pC->m_pReaderDataIt->m_pFctGetNextAu(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderAudioStream,
&pC->ReaderAudioAU2);
/* Crash in MCS while Audio AU copying ,
* constant memory reader case
*/
if( pC->ReaderAudioAU2.m_maxsize
> pC->pReaderAudioStream->m_basicProperties.m_maxAUSize )
{
/* Constant memory reader case, we need to reallocate the temporary buffers */
M4MCS_intReallocTemporaryAU((M4OSA_MemAddr8
*) &(pC->m_pDataAddress2), pC->ReaderAudioAU2.m_maxsize);
/* pC->m_pDataAddress1 and
* pC->m_pDataAddress2 must be reallocated at the same time
* because pC->pReaderAudioStream->m_basicProperties.m_maxAUSize take maximum
* value. Then the test "if(pC->ReaderAudioAU?.m_maxsize > pC->pReaderAudioStream->
* m_basicProperties.m_maxAUSize)" is never true
* and the size of the second buffer is never changed.
*/
M4MCS_intReallocTemporaryAU((M4OSA_MemAddr8
*) &(pC->m_pDataAddress1), pC->ReaderAudioAU2.m_maxsize);
/* [ END ] 20091008 JFV PR fix surnxpsw#1071: pC->m_pDataAddress1 and
pC->m_pDataAddress2 must be reallocated at the same time */
/* Update stream properties */
pC->pReaderAudioStream->m_basicProperties.m_maxAUSize =
pC->ReaderAudioAU2.m_maxsize;
}
/**/
memcpy((void *)pC->m_pDataAddress2,
(void *)pC->ReaderAudioAU2.m_dataAddress,
pC->ReaderAudioAU2.m_size);
pC->m_audioAUDuration =
pC->ReaderAudioAU2.m_CTS - pC->ReaderAudioAU1.m_CTS;
pC->ReaderAudioAU.m_dataAddress = pC->m_pDataAddress1;
}
if( M4WAR_NO_MORE_AU == err )
{
M4OSA_TRACE2_0(
"M4MCS_intAudioNullEncoding(): \
m_pReaderDataIt->m_pFctGetNextAu(audio) returns M4WAR_NO_MORE_AU");
/* The audio transcoding is finished */
pC->AudioState = M4MCS_kStreamState_FINISHED;
return err;
}
else if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intAudioNullEncoding(): \
m_pReaderDataIt->m_pFctGetNextAu(Audio) returns 0x%x",
err);
return err;
}
}
/**
* Prepare the writer AU */
err = pC->pWriterDataFcts->pStartAU(pC->pWriterContext,
M4MCS_WRITER_AUDIO_STREAM_ID, &pC->WriterAudioAU);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intAudioNullEncoding(): pWriterDataFcts->pStartAU(Audio) returns 0x%x",
err);
return err;
}
if( pC->uiAudioAUCount
== 0 ) /* If it is the first AU, we set it to silence
(else, errors 0x3841, 0x3847 in our AAC decoder) */
{
if( pC->InputFileProperties.AudioStreamType == M4VIDEOEDITING_kAAC
|| pC->InputFileProperties.AudioStreamType
== M4VIDEOEDITING_kAACplus
|| pC->InputFileProperties.AudioStreamType
== M4VIDEOEDITING_keAACplus )
{
if( pC->InputFileProperties.uiNbChannels == 1 )
{
pC->WriterAudioAU.size = M4VSS3GPP_AAC_AU_SILENCE_MONO_SIZE;
memcpy((void *)pC->WriterAudioAU.dataAddress,
(void *)M4VSS3GPP_AAC_AU_SILENCE_MONO,
pC->WriterAudioAU.size);
}
else if( pC->InputFileProperties.uiNbChannels == 2 )
{
pC->WriterAudioAU.size = M4VSS3GPP_AAC_AU_SILENCE_STEREO_SIZE;
memcpy((void *)pC->WriterAudioAU.dataAddress,
(void *)M4VSS3GPP_AAC_AU_SILENCE_STEREO,
pC->WriterAudioAU.size);
}
else
{
/* Must never happen ...*/
M4OSA_TRACE1_0(
"M4MCS_intAudioNullEncoding: Bad number of channels in audio input");
return M4MCS_ERR_INVALID_INPUT_FILE;
}
}
else if( pC->InputFileProperties.AudioStreamType
== M4VIDEOEDITING_kAMR_NB )
{
pC->WriterAudioAU.size = M4VSS3GPP_AMR_AU_SILENCE_FRAME_048_SIZE;
memcpy((void *)pC->WriterAudioAU.dataAddress,
(void *)M4VSS3GPP_AMR_AU_SILENCE_FRAME_048,
pC->WriterAudioAU.size);
/* Some remaining AMR AU needs to be copied */
if( pC->ReaderAudioAU.m_size != 0 )
{
/* Update Writer AU */
pC->WriterAudioAU.size += pC->ReaderAudioAU.m_size;
memcpy((void *)(pC->WriterAudioAU.dataAddress
+ M4VSS3GPP_AMR_AU_SILENCE_FRAME_048_SIZE),
(void *)pC->ReaderAudioAU.m_dataAddress,
pC->ReaderAudioAU.m_size);
}
}
else
{
/*MP3 case: copy the AU*/
M4OSA_TRACE3_1(
"M4MCS_intAudioNullEncoding(): Copying audio AU: size=%d",
pC->ReaderAudioAU.m_size);
memcpy((void *)pC->WriterAudioAU.dataAddress,
(void *)pC->ReaderAudioAU.m_dataAddress,
pC->ReaderAudioAU.m_size);
pC->WriterAudioAU.size = pC->ReaderAudioAU.m_size;
}
}
else
{
/**
* Copy audio data from reader AU to writer AU */
M4OSA_TRACE3_1(
"M4MCS_intAudioNullEncoding(): Copying audio AU: size=%d",
pC->ReaderAudioAU.m_size);
memcpy((void *)pC->WriterAudioAU.dataAddress,
(void *)pC->ReaderAudioAU.m_dataAddress,
pC->ReaderAudioAU.m_size);
pC->WriterAudioAU.size = pC->ReaderAudioAU.m_size;
}
/**
* Convert CTS unit from milliseconds to timescale */
pC->WriterAudioAU.CTS =
(M4OSA_Time)((( pC->ReaderAudioAU.m_CTS - pC->iAudioCtsOffset)
* (pC->WriterAudioStream.timeScale / 1000.0)));
if( pC->InputFileProperties.AudioStreamType == M4VIDEOEDITING_kAMR_NB
&& pC->uiAudioAUCount == 0 )
{
pC->iAudioCtsOffset -=
20; /* Duration of a silence AMR AU, to handle the duration of the added
silence frame */
}
pC->WriterAudioAU.nbFrag = 0;
M4OSA_TRACE3_1("M4MCS_intAudioNullEncoding(): audio AU: CTS=%d ms",
pC->WriterAudioAU.CTS);
/**
* Write it to the output file */
pC->uiAudioAUCount++;
err = pC->pWriterDataFcts->pProcessAU(pC->pWriterContext,
M4MCS_WRITER_AUDIO_STREAM_ID, &pC->WriterAudioAU);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intAudioNullEncoding(): pWriterDataFcts->pProcessAU(Audio) returns 0x%x",
err);
return err;
}
/* All the audio has been written */
pC->ReaderAudioAU.m_size = 0;
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_intAudioNullEncoding(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* @brief Init Audio Transcoding
* @return M4NO_ERROR: No error
******************************************************************************
*/
static M4OSA_ERR M4MCS_intAudioTranscoding( M4MCS_InternalContext *pC )
{
M4OSA_ERR err; /**< General error */
M4OSA_UInt32
uiBytesDec; /**< Nb of bytes available in the decoder OUT buffer */
M4OSA_UInt32
uiDecoder2Ssrc_NbBytes; /**< Nb of bytes copied into the ssrc IN buffer */
int ssrcErr; /**< Error while ssrc processing */
M4OSA_UInt32 uiSsrcInSize; /**< Size in bytes of ssrc intput buffer */
M4OSA_UInt32
uiSsrcInRoom; /**< Nb of bytes available in the ssrc IN buffer */
M4OSA_MemAddr8
pSsrcInput; /**< Pointer to the good buffer location for ssrc input */
M4OSA_UInt32 uiSsrcOutSize; /**< Size in bytes of ssrc output buffer */
M4OSA_UInt32
uiBytesSsrc; /**< Nb of bytes available in the ssrc OUT buffer */
M4OSA_UInt8
needChannelConversion; /**< Flag to indicate if a stereo <-> mono conversion is needed */
M4OSA_UInt32
uiChannelConvertorCoeff; /**< Multiplicative coefficient if stereo
<-> mono conversion is applied */
M4OSA_MemAddr8 pChannelConvertorInput =
M4OSA_NULL; /**< Pointer to the good buffer location for channel convertor input */
M4OSA_UInt32 uiChannelConvertorNbSamples =
0; /**< Nb of pcm samples to convert in channel convertor */
M4OSA_MemAddr8 pChannelConvertorOutput =
M4OSA_NULL; /**< Pointer to the good buffer location for channel convertor output */
M4OSA_Time
frameTimeDelta; /**< Duration of the encoded (then written) data */
M4OSA_UInt32
uiEncoderInRoom; /**< Nb of bytes available in the encoder IN buffer */
M4OSA_UInt32
uiSsrc2Encoder_NbBytes; /**< Nb of bytes copied from the ssrc OUT buffer */
M4OSA_MemAddr8
pEncoderInput; /**< Pointer to the good buffer location for encoder input */
M4ENCODER_AudioBuffer pEncInBuffer; /**< Encoder input buffer for api */
M4ENCODER_AudioBuffer pEncOutBuffer; /**< Encoder output buffer for api */
M4OSA_Int16 *tempBuffOut = M4OSA_NULL;
/*FlB 2009.03.04: apply audio effects if an effect is active*/
M4OSA_Int8 *pActiveEffectNumber = &(pC->pActiveEffectNumber);
uint32_t errCode = M4NO_ERROR;
if( pC->noaudio )
return M4NO_ERROR;
/* _________________ */
/*| |*/
/*| READ AND DECODE |*/
/*|_________________|*/
/* Check if we have to empty the decoder out buffer first */
if( M4OSA_NULL != pC->pPosInDecBufferOut )
{
goto m4mcs_intaudiotranscoding_feed_resampler;
}
err = pC->m_pAudioDecoder->m_pFctStepAudioDec(pC->pAudioDecCtxt,
M4OSA_NULL, &pC->AudioDecBufferOut, M4OSA_FALSE);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intAudioTranscoding(): m_pAudioDecoder->m_pFctStepAudio returns 0x%x",
err);
return err;
}
#ifdef MCS_DUMP_PCM_TO_FILE
fwrite(pC->AudioDecBufferOut.m_dataAddress,
pC->AudioDecBufferOut.m_bufferSize, 1, file_pcm_decoder);
#endif
pC->m_pAudioDecoder->m_pFctGetOptionAudioDec(pC->pAudioDecCtxt,
M4AD_kOptionID_GetAudioAUErrCode, (M4OSA_DataOption) &errCode);
if ( M4WAR_NO_MORE_AU == errCode ) {
pC->AudioState = M4MCS_kStreamState_FINISHED;
M4OSA_TRACE2_0(
"M4MCS_intAudioTranscoding():\
m_pReaderDataIt->m_pFctGetNextAu(audio) returns M4WAR_NO_MORE_AU");
return errCode;
}
/* Set the current position in the decoder out buffer */
pC->pPosInDecBufferOut = pC->AudioDecBufferOut.m_dataAddress;
/* ________________ */
/*| |*/
/*| FEED RESAMPLER |*/
/*|________________|*/
m4mcs_intaudiotranscoding_feed_resampler:
/* Check if we have to empty the ssrc out buffer first */
if( M4OSA_NULL != pC->pPosInSsrcBufferOut )
{
goto m4mcs_intaudiotranscoding_prepare_input_buffer;
}
/* Compute number of bytes remaining in the decoder buffer */
uiSsrcInSize = pC->iSsrcNbSamplIn * sizeof(short)
* pC->pReaderAudioStream->m_nbChannels;
uiBytesDec = ( pC->AudioDecBufferOut.m_dataAddress
+ pC->AudioDecBufferOut.m_bufferSize) - pC->pPosInDecBufferOut;
/* Check if we can feed directly the Ssrc with the decoder out buffer */
if( ( pC->pPosInSsrcBufferIn == pC->pSsrcBufferIn)
&& (uiBytesDec >= uiSsrcInSize) )
{
pSsrcInput = pC->pPosInDecBufferOut;
/* update data consumed into decoder buffer after resampling */
if( uiBytesDec == uiSsrcInSize )
pC->pPosInDecBufferOut = M4OSA_NULL;
else
pC->pPosInDecBufferOut += uiSsrcInSize;
goto m4mcs_intaudiotranscoding_do_resampling;
}
/**
* Compute remaining space in Ssrc buffer in */
uiSsrcInRoom = ( pC->pSsrcBufferIn + uiSsrcInSize) - pC->pPosInSsrcBufferIn;
/**
* Nb of bytes copied is the minimum between nb of bytes remaining in
* decoder out buffer and space remaining in ssrc in buffer */
uiDecoder2Ssrc_NbBytes =
(uiSsrcInRoom < uiBytesDec) ? uiSsrcInRoom : uiBytesDec;
/**
* Copy from the decoder out buffer into the Ssrc in buffer */
memcpy((void *)pC->pPosInSsrcBufferIn, (void *)pC->pPosInDecBufferOut,
uiDecoder2Ssrc_NbBytes);
/**
* Update the position in the decoder out buffer */
pC->pPosInDecBufferOut += uiDecoder2Ssrc_NbBytes;
/**
* Update the position in the Ssrc in buffer */
pC->pPosInSsrcBufferIn += uiDecoder2Ssrc_NbBytes;
/**
* Check if the decoder buffer out is empty */
if( ( pC->pPosInDecBufferOut - pC->AudioDecBufferOut.m_dataAddress)
== (M4OSA_Int32)pC->AudioDecBufferOut.m_bufferSize )
{
pC->pPosInDecBufferOut = M4OSA_NULL;
}
/* Check if the Ssrc in buffer is ready (= full) */
if( ( pC->pPosInSsrcBufferIn - pC->pSsrcBufferIn)
< (M4OSA_Int32)uiSsrcInSize )
{
goto m4mcs_intaudiotranscoding_end;
}
pSsrcInput = pC->pSsrcBufferIn;
/* update data consumed into ssrc buffer in after resampling (empty) */
pC->pPosInSsrcBufferIn = pC->pSsrcBufferIn;
/* ___________________ */
/*| |*/
/*| DO THE RESAMPLING |*/
/*|___________________|*/
m4mcs_intaudiotranscoding_do_resampling:
/**
* No need for memcopy, we can feed Ssrc directly with the data in the audio
decoder out buffer*/
ssrcErr = 0;
if( pC->pReaderAudioStream->m_nbChannels == 1 )
{
tempBuffOut =
(short *)M4OSA_32bitAlignedMalloc((pC->iSsrcNbSamplOut * sizeof(short) * 2
* ((*pC).InputFileProperties).uiNbChannels),
M4VSS3GPP,(M4OSA_Char *) "tempBuffOut");
memset((void *)tempBuffOut, 0,(pC->iSsrcNbSamplOut * sizeof(short) * 2
* ((*pC).InputFileProperties).uiNbChannels));
LVAudioresample_LowQuality((short *)tempBuffOut, (short *)pSsrcInput,
pC->iSsrcNbSamplOut, pC->pLVAudioResampler);
}
else
{
memset((void *)pC->pSsrcBufferOut, 0, (pC->iSsrcNbSamplOut * sizeof(short)
* ((*pC).InputFileProperties).uiNbChannels));
LVAudioresample_LowQuality((short *)pC->pSsrcBufferOut,
(short *)pSsrcInput, pC->iSsrcNbSamplOut, pC->pLVAudioResampler);
}
if( pC->pReaderAudioStream->m_nbChannels == 1 )
{
From2iToMono_16((short *)tempBuffOut, (short *)pC->pSsrcBufferOut,
(short)pC->iSsrcNbSamplOut);
free(tempBuffOut);
}
if( 0 != ssrcErr )
{
M4OSA_TRACE1_1(
"M4MCS_intAudioTranscoding: SSRC_Process returns 0x%x, \
returning M4MCS_ERR_AUDIO_CONVERSION_FAILED",
ssrcErr);
return M4MCS_ERR_AUDIO_CONVERSION_FAILED;
}
pC->pPosInSsrcBufferOut = pC->pSsrcBufferOut;
/* ______________________ */
/*| |*/
/*| PREPARE INPUT BUFFER |*/
/*|______________________|*/
m4mcs_intaudiotranscoding_prepare_input_buffer:
/* Set the flag for channel conversion requirement */
if( ( pC->AudioEncParams.ChannelNum == M4ENCODER_kMono)
&& (pC->pReaderAudioStream->m_nbChannels == 2) )
{
needChannelConversion = 1;
uiChannelConvertorCoeff = 4;
}
else if( ( pC->AudioEncParams.ChannelNum == M4ENCODER_kStereo)
&& (pC->pReaderAudioStream->m_nbChannels == 1) )
{
needChannelConversion = 2;
uiChannelConvertorCoeff = 1;
}
else
{
needChannelConversion = 0;
uiChannelConvertorCoeff = 2;
}
/* Compute number of bytes remaining in the Ssrc buffer */
uiSsrcOutSize = pC->iSsrcNbSamplOut * sizeof(short)
* pC->pReaderAudioStream->m_nbChannels;
uiBytesSsrc =
( pC->pSsrcBufferOut + uiSsrcOutSize) - pC->pPosInSsrcBufferOut;
/* Check if the ssrc buffer is full */
if( pC->pPosInSsrcBufferOut == pC->pSsrcBufferOut )
{
uiSsrc2Encoder_NbBytes =
pC->audioEncoderGranularity * uiChannelConvertorCoeff / 2;
/* Check if we can feed directly the encoder with the ssrc out buffer */
if( ( pC->pPosInAudioEncoderBuffer == M4OSA_NULL)
&& (uiBytesSsrc >= uiSsrc2Encoder_NbBytes) )
{
/* update position in ssrc out buffer after encoding */
if( uiBytesSsrc == uiSsrc2Encoder_NbBytes )
pC->pPosInSsrcBufferOut = M4OSA_NULL;
else
pC->pPosInSsrcBufferOut += uiSsrc2Encoder_NbBytes;
/* mark the encoder buffer ready (= full) */
pC->pPosInAudioEncoderBuffer =
pC->pAudioEncoderBuffer + pC->audioEncoderGranularity;
if( needChannelConversion > 0 )
{
/* channel convertor writes directly into encoder buffer */
pEncoderInput = pC->pAudioEncoderBuffer;
pChannelConvertorInput = pC->pSsrcBufferOut;
pChannelConvertorOutput = pC->pAudioEncoderBuffer;
uiChannelConvertorNbSamples =
uiSsrc2Encoder_NbBytes / sizeof(short);
goto m4mcs_intaudiotranscoding_channel_convertor;
}
else
{
/* encode directly from ssrc out buffer */
pEncoderInput = pC->pSsrcBufferOut;
goto m4mcs_intaudiotranscoding_encode_and_write;
}
}
}
/**
* Compute remaining space in encoder buffer in */
if( pC->pPosInAudioEncoderBuffer == M4OSA_NULL )
{
pC->pPosInAudioEncoderBuffer = pC->pAudioEncoderBuffer;
}
uiEncoderInRoom = ( pC->pAudioEncoderBuffer + pC->audioEncoderGranularity)
- pC->pPosInAudioEncoderBuffer;
pEncoderInput = pC->pAudioEncoderBuffer;
/**
* Nb of bytes copied is the minimum between nb of bytes remaining in
* decoder out buffer and space remaining in ssrc in buffer */
uiSsrc2Encoder_NbBytes =
(( uiEncoderInRoom * uiChannelConvertorCoeff / 2) < uiBytesSsrc)
? (uiEncoderInRoom * uiChannelConvertorCoeff / 2) : uiBytesSsrc;
if( needChannelConversion > 0 )
{
/* channel convertor writes directly into encoder buffer */
pChannelConvertorInput = pC->pPosInSsrcBufferOut;
pChannelConvertorOutput = pC->pPosInAudioEncoderBuffer;
uiChannelConvertorNbSamples = uiSsrc2Encoder_NbBytes / sizeof(short);
}
else
{
/* copy from the ssrc out buffer into the encoder in buffer */
memcpy((void *)pC->pPosInAudioEncoderBuffer, (void *)pC->pPosInSsrcBufferOut,
uiSsrc2Encoder_NbBytes);
}
/* Update position in ssrc out buffer after encoding */
pC->pPosInSsrcBufferOut += uiSsrc2Encoder_NbBytes;
/* Update the position in the encoder in buffer */
pC->pPosInAudioEncoderBuffer +=
uiSsrc2Encoder_NbBytes * 2 / uiChannelConvertorCoeff;
/* Check if the ssrc buffer out is empty */
if( ( pC->pPosInSsrcBufferOut - pC->pSsrcBufferOut)
== (M4OSA_Int32)uiSsrcOutSize )
{
pC->pPosInSsrcBufferOut = M4OSA_NULL;
}
/* go to next statement */
if( needChannelConversion > 0 )
goto m4mcs_intaudiotranscoding_channel_convertor;
else
goto m4mcs_intaudiotranscoding_encode_and_write;
/* _________________ */
/*| |*/
/*| STEREO <-> MONO |*/
/*|_________________|*/
m4mcs_intaudiotranscoding_channel_convertor:
/* convert the input pcm stream to mono or to stereo */
switch( needChannelConversion )
{
case 1: /* stereo to mono */
From2iToMono_16((short *)pChannelConvertorInput,
(short *)pChannelConvertorOutput,
(short)(uiChannelConvertorNbSamples / 2));
break;
case 2: /* mono to stereo */
MonoTo2I_16((short *)pChannelConvertorInput,
(short *)pChannelConvertorOutput,
(short)uiChannelConvertorNbSamples);
break;
}
/* __________________ */
/*| |*/
/*| ENCODE AND WRITE |*/
/*|__________________|*/
m4mcs_intaudiotranscoding_encode_and_write:
/* Check if the encoder in buffer is ready (= full) */
if( ( pC->pPosInAudioEncoderBuffer - pC->pAudioEncoderBuffer)
< (M4OSA_Int32)pC->audioEncoderGranularity )
{
goto m4mcs_intaudiotranscoding_end;
}
/* [Mono] or [Stereo interleaved] : all is in one buffer */
pEncInBuffer.pTableBuffer[0] = pEncoderInput;
pEncInBuffer.pTableBufferSize[0] = pC->audioEncoderGranularity;
pEncInBuffer.pTableBuffer[1] = M4OSA_NULL;
pEncInBuffer.pTableBufferSize[1] = 0;
/* Time in ms from data size, because it is PCM16 samples */
frameTimeDelta =
( pEncInBuffer.pTableBufferSize[0] * uiChannelConvertorCoeff / 2)
/ sizeof(short) / pC->pReaderAudioStream->m_nbChannels;
/**
* Prepare the writer AU */
err = pC->pWriterDataFcts->pStartAU(pC->pWriterContext,
M4MCS_WRITER_AUDIO_STREAM_ID, &pC->WriterAudioAU);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intAudioTranscoding(): pWriterDataFcts->pStartAU(Audio) returns 0x%x",
err);
return err;
}
/*FlB 2009.03.04: apply audio effects if an effect is active*/
if( *pActiveEffectNumber >= 0 && *pActiveEffectNumber < pC->nbEffects )
{
if( pC->pEffects[*pActiveEffectNumber].ExtAudioEffectFct != M4OSA_NULL )
{
M4MCS_ExternalProgress pProgress;
M4OSA_UInt32 tempProgress = 0;
pProgress.uiClipTime = (M4OSA_UInt32)pC->ReaderAudioAU.m_CTS;
pProgress.uiOutputTime = ( pC->WriterAudioAU.CTS * 1000)
/ pC->WriterAudioStream.timeScale;
tempProgress = ( (M4OSA_UInt32)pC->ReaderAudioAU.m_CTS
- pC->pEffects[*pActiveEffectNumber].uiStartTime
- pC->uiBeginCutTime) * 1000;
pProgress.uiProgress =
(M4OSA_UInt32)(tempProgress / (M4OSA_UInt32)pC->pEffects[
*pActiveEffectNumber].uiDuration);
err = pC->pEffects[*pActiveEffectNumber].ExtAudioEffectFct(
pC->pEffects[*pActiveEffectNumber].pExtAudioEffectFctCtxt,
(M4OSA_Int16 *)pEncInBuffer.pTableBuffer[0],
pEncInBuffer.pTableBufferSize[0], &pProgress);
if( err != M4NO_ERROR )
{
M4OSA_TRACE1_1(
"M4MCS_intAudioTranscoding(): ExtAudioEffectFct() returns 0x%x",
err);
return err;
}
}
}
/**
* Prepare output buffer */
pEncOutBuffer.pTableBuffer[0] =
(M4OSA_MemAddr8)pC->WriterAudioAU.dataAddress;
pEncOutBuffer.pTableBufferSize[0] = 0;
#ifdef MCS_DUMP_PCM_TO_FILE
fwrite(pEncInBuffer.pTableBuffer[0], pEncInBuffer.pTableBufferSize[0], 1,
file_pcm_encoder);
#endif
if( M4OSA_FALSE == pC->b_isRawWriter )
{
/* This allow to write PCM data to file and to encode AMR data,
when output file is not RAW */
if( pC->pOutputPCMfile != M4OSA_NULL )
{
pC->pOsaFileWritPtr->writeData(pC->pOutputPCMfile,
pEncInBuffer.pTableBuffer[0], pEncInBuffer.pTableBufferSize[0]);
}
/**
* Encode the PCM audio */
err = pC->pAudioEncoderGlobalFcts->pFctStep(pC->pAudioEncCtxt,
&pEncInBuffer, &pEncOutBuffer);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intAudioTranscoding(): pAudioEncoderGlobalFcts->pFctStep returns 0x%x",
err);
return err;
}
/* update data consumed into encoder buffer in after encoding (empty) */
pC->pPosInAudioEncoderBuffer = M4OSA_NULL;
/**
* Set AU cts and size */
pC->WriterAudioAU.size =
pEncOutBuffer.
pTableBufferSize[0]; /**< Get the size of encoded data */
pC->WriterAudioAU.CTS += frameTimeDelta;
/**
* Update duration of the encoded AU */
pC->m_audioAUDuration =
( frameTimeDelta * 1000) / pC->WriterAudioStream.timeScale;
/**
* Write the encoded AU to the output file */
pC->uiAudioAUCount++;
err = pC->pWriterDataFcts->pProcessAU(pC->pWriterContext,
M4MCS_WRITER_AUDIO_STREAM_ID, &pC->WriterAudioAU);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intAudioTranscoding(): pWriterDataFcts->pProcessAU(Audio) returns 0x%x",
err);
return err;
}
}
else
{
/* update data consumed into encoder buffer in after encoding (empty) */
pC->pPosInAudioEncoderBuffer = M4OSA_NULL;
pC->WriterAudioAU.dataAddress =
(M4OSA_MemAddr32)
pEncoderInput; /* will be converted back to u8* in file write */
pC->WriterAudioAU.size = pC->audioEncoderGranularity;
pC->uiAudioAUCount++;
err = pC->pWriterDataFcts->pProcessAU(pC->pWriterContext,
M4MCS_WRITER_AUDIO_STREAM_ID, &pC->WriterAudioAU);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intAudioTranscoding(): pWriterDataFcts->pProcessAU(Audio) returns 0x%x",
err);
return err;
}
}
/* _______________ */
/*| |*/
/*| ONE PASS DONE |*/
/*|_______________|*/
m4mcs_intaudiotranscoding_end:
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_intAudioTranscoding(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intReallocTemporaryAU(M4OSA_MemAddr8* addr, M4OSA_UInt32 newSize)
* Used only in case of 3GP constant memory reader, to be able to realloc temporary AU
* because max AU size can be reevaluated during reading
* @return M4NO_ERROR: No error
******************************************************************************
*/
static M4OSA_ERR M4MCS_intReallocTemporaryAU( M4OSA_MemAddr8 *addr,
M4OSA_UInt32 newSize )
{
if( *addr != M4OSA_NULL )
{
free(*addr);
*addr = (M4OSA_MemAddr8)M4OSA_32bitAlignedMalloc(newSize, M4MCS,
(M4OSA_Char *)"Reallocation of temporary AU buffer");
if( *addr == M4OSA_NULL )
{
return M4ERR_ALLOC;
}
}
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intVideoNullEncoding(M4MCS_InternalContext* pC)
* @author Alexis Vapillon (NXP Software Vision)
* @return M4NO_ERROR: No error
******************************************************************************
*/
static M4OSA_ERR M4MCS_intVideoNullEncoding( M4MCS_InternalContext *pC )
{
M4OSA_ERR err = M4NO_ERROR;
/* Duration of the AU (find the next AU duration
* to obtain a more precise video end cut)
*/
M4OSA_UInt32 videoAUDuration = 0;
M4OSA_MemAddr8 WritebufferAdd = M4OSA_NULL;
M4OSA_Int32 lastdecodedCTS = 0;
M4_AccessUnit lReaderVideoAU; /**< Read video access unit */
if( pC->novideo )
return M4NO_ERROR;
/* H.264 Trimming */
if( ( ( pC->bH264Trim == M4OSA_TRUE)
&& (pC->uiVideoAUCount < pC->m_pInstance->clip_sps.num_ref_frames)
&& (pC->uiBeginCutTime > 0))
|| (( pC->uiVideoAUCount == 0) && (pC->uiBeginCutTime > 0)) )
{
err = M4MCS_intVideoTranscoding(pC);
return err;
}
if((pC->bLastDecodedFrameCTS == M4OSA_FALSE) && (pC->uiBeginCutTime > 0))
{
// StageFright encoder does prefetch, the one frame we requested will not be written until
// the encoder is closed, so do it now rather than in MCS_close
if( ( M4NO_ERROR != err)
|| (M4MCS_kEncoderRunning != pC->encoderState) )
{
M4OSA_TRACE1_2(
"!!! M4MCS_intVideoNullEncoding ERROR : M4MCS_intVideoTranscoding "
"returns 0x%X w/ encState=%d", err, pC->encoderState);
return err;
}
/* Stop and close the encoder now to flush the frame (prefetch) */
if( pC->pVideoEncoderGlobalFcts->pFctStop != M4OSA_NULL )
{
err = pC->pVideoEncoderGlobalFcts->pFctStop(pC->pViEncCtxt);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"!!! M4MCS_intVideoNullEncoding ERROR : encoder stop returns 0x%X",
err);
return err;
}
}
pC->encoderState = M4MCS_kEncoderStopped;
err = pC->pVideoEncoderGlobalFcts->pFctClose(pC->pViEncCtxt);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"!!! M4MCS_intVideoNullEncoding ERROR : encoder close returns 0x%X",
err);
return err;
}
pC->encoderState = M4MCS_kEncoderClosed;
}
if ((pC->EncodingVideoFormat == M4ENCODER_kNULL)
&& (pC->bLastDecodedFrameCTS == M4OSA_FALSE)
&& (pC->uiBeginCutTime > 0)) {
pC->bLastDecodedFrameCTS = M4OSA_TRUE;
err = pC->m_pVideoDecoder->m_pFctGetOption(pC->pViDecCtxt,
M4DECODER_kOptionID_AVCLastDecodedFrameCTS, &lastdecodedCTS);
if (M4NO_ERROR != err) {
M4OSA_TRACE1_1(
"M4MCS_intVideoNullEncoding: m_pVideoDecoder->m_pFctGetOption returns 0x%x!",
err);
return err;
}
/* Do not need video decoder any more, need to destroy it. Otherwise it
* will call reader function which will cause frame lost during triming,
* since the 3gp reader is shared between MCS and decoder.*/
if (M4OSA_NULL != pC->pViDecCtxt) {
err = pC->m_pVideoDecoder->m_pFctDestroy(pC->pViDecCtxt);
pC->pViDecCtxt = M4OSA_NULL;
if (M4NO_ERROR != err) {
M4OSA_TRACE1_1(
"M4MCS_intVideoNullEncoding: decoder pFctDestroy returns 0x%x",
err);
return err;
}
}
err = pC->m_pReader->m_pFctJump(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderVideoStream, &lastdecodedCTS);
if (M4NO_ERROR != err) {
M4OSA_TRACE1_1(
"M4MCS_intVideoNullEncoding: m_pFctJump(V) returns 0x%x!",
err);
return err;
}
/* Initializes an access Unit */
err = pC->m_pReader->m_pFctFillAuStruct(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderVideoStream, &lReaderVideoAU);
if (M4NO_ERROR != err) {
M4OSA_TRACE1_1(
"M4MCS_intVideoNullEncoding:m_pReader->m_pFctFillAuStruct(video)\
returns 0x%x", err);
return err;
}
err = pC->m_pReaderDataIt->m_pFctGetNextAu(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderVideoStream, &lReaderVideoAU);
if (M4WAR_NO_MORE_AU == err) {
M4OSA_TRACE2_0(
"M4MCS_intVideoNullEncoding():\
m_pReaderDataIt->m_pFctGetNextAu(video) returns M4WAR_NO_MORE_AU");
/* The audio transcoding is finished */
pC->VideoState = M4MCS_kStreamState_FINISHED;
return err;
}
else if (M4NO_ERROR != err) {
M4OSA_TRACE1_1(
"M4MCS_intVideoNullEncoding():\
m_pReaderDataIt->m_pFctGetNextAu(video) returns 0x%x",
err);
return err;
}
M4OSA_TRACE1_1(
"### [TS_CHECK] M4MCS_intVideoNullEncoding video AU CTS: %d ",
lReaderVideoAU.m_CTS);
}
pC->bLastDecodedFrameCTS = M4OSA_TRUE;
/* Find the next AU duration to obtain a more precise video end cut*/
/**
* Initializes a new AU if needed */
if (pC->ReaderVideoAU1.m_structSize == 0) {
/**
* Initializes an access Unit */
err = pC->m_pReader->m_pFctFillAuStruct(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderVideoStream,
&pC->ReaderVideoAU1);
if (M4NO_ERROR != err) {
M4OSA_TRACE1_1(
"M4MCS_open(): m_pReader->m_pFctFillAuStruct(video) returns 0x%x",
err);
return err;
}
pC->m_pDataVideoAddress1 =
(M4OSA_MemAddr8)M4OSA_32bitAlignedMalloc(pC->ReaderVideoAU1.m_maxsize, M4MCS,
(M4OSA_Char *)"Temporary video AU1 buffer");
if (pC->m_pDataVideoAddress1 == M4OSA_NULL) {
M4OSA_TRACE1_0("M4MCS_intVideoNullEncoding(): allocation error");
return M4ERR_ALLOC;
}
err = pC->m_pReaderDataIt->m_pFctGetNextAu(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderVideoStream,
&pC->ReaderVideoAU1);
if( M4WAR_NO_MORE_AU == err )
{
M4OSA_TRACE2_0(
"M4MCS_intVideoNullEncoding():\
m_pReaderDataIt->m_pFctGetNextAu(video) returns M4WAR_NO_MORE_AU");
/* The audio transcoding is finished */
pC->VideoState = M4MCS_kStreamState_FINISHED;
return err;
}
else if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intVideoNullEncoding(): m_pReaderDataIt->m_pFctGetNextAu(video)\
returns 0x%x", err);
return err;
}
if( pC->ReaderVideoAU1.m_maxsize
> pC->pReaderVideoStream->m_basicProperties.m_maxAUSize )
{
/* Constant memory reader case, we need to reallocate the temporary buffers */
M4MCS_intReallocTemporaryAU((M4OSA_MemAddr8
*) &(pC->m_pDataVideoAddress1), pC->ReaderVideoAU1.m_maxsize);
/* pC->m_pDataVideoAddress1
and pC->m_pDataVideoAddress2 must be reallocated at the same time */
/* because pC->pReaderVideoStream->m_basicProperties.m_maxAUSize take maximum value.
Then the test "if(pC->ReaderVideoAU?.m_maxsize > pC->pReaderVideoStream->
m_basicProperties.m_maxAUSize)" is never true */
/* and the size of the second buffer is never changed. */
M4MCS_intReallocTemporaryAU((M4OSA_MemAddr8
*) &(pC->m_pDataVideoAddress2), pC->ReaderVideoAU1.m_maxsize);
/* pC->m_pDataVideoAddress1 and
pC->m_pDataVideoAddress2 must be reallocated at the same time */
/* Update stream properties */
pC->pReaderVideoStream->m_basicProperties.m_maxAUSize =
pC->ReaderVideoAU1.m_maxsize;
}
memcpy((void *)pC->m_pDataVideoAddress1,
(void *)pC->ReaderVideoAU1.m_dataAddress,
pC->ReaderVideoAU1.m_size);
}
if( pC->ReaderVideoAU2.m_structSize == 0 )
{
/**
* Initializes an access Unit */
err = pC->m_pReader->m_pFctFillAuStruct(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderVideoStream,
&pC->ReaderVideoAU2);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_open(): m_pReader->m_pFctFillAuStruct(video) returns 0x%x",
err);
return err;
}
pC->m_pDataVideoAddress2 =
(M4OSA_MemAddr8)M4OSA_32bitAlignedMalloc(pC->ReaderVideoAU2.m_maxsize, M4MCS,
(M4OSA_Char *)"Temporary video AU buffer");
if( pC->m_pDataVideoAddress2 == M4OSA_NULL )
{
M4OSA_TRACE1_0("M4MCS_intVideoNullEncoding(): allocation error");
return M4ERR_ALLOC;
}
}
/**
* Read the next video AU in the input file */
if( pC->ReaderVideoAU2.m_CTS > pC->ReaderVideoAU1.m_CTS )
{
memcpy((void *) &pC->ReaderVideoAU,
(void *) &pC->ReaderVideoAU2, sizeof(M4_AccessUnit));
err = pC->m_pReaderDataIt->m_pFctGetNextAu(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderVideoStream,
&pC->ReaderVideoAU1);
if( pC->ReaderVideoAU1.m_maxsize
> pC->pReaderVideoStream->m_basicProperties.m_maxAUSize )
{
/* Constant memory reader case, we need to reallocate the temporary buffers */
M4MCS_intReallocTemporaryAU((M4OSA_MemAddr8
*) &(pC->m_pDataVideoAddress1), pC->ReaderVideoAU1.m_maxsize);
/* pC->m_pDataVideoAddress1 and
pC->m_pDataVideoAddress2 must be reallocated at the same time */
/* because pC->pReaderVideoStream->m_basicProperties.m_maxAUSize take maximum value.
Then the test "if(pC->ReaderVideoAU?.m_maxsize > pC->pReaderVideoStream->
m_basicProperties.m_maxAUSize)" is never true */
/* and the size of the second buffer is never changed. */
M4MCS_intReallocTemporaryAU((M4OSA_MemAddr8
*) &(pC->m_pDataVideoAddress2), pC->ReaderVideoAU1.m_maxsize);
/* pC->m_pDataVideoAddress1 and
pC->m_pDataVideoAddress2 must be reallocated at the same time */
/* Update stream properties */
pC->pReaderVideoStream->m_basicProperties.m_maxAUSize =
pC->ReaderVideoAU1.m_maxsize;
}
memcpy((void *)pC->m_pDataVideoAddress1,
(void *)pC->ReaderVideoAU1.m_dataAddress,
pC->ReaderVideoAU1.m_size);
videoAUDuration = pC->ReaderVideoAU1.m_CTS - pC->ReaderVideoAU2.m_CTS;
pC->ReaderVideoAU.m_dataAddress = pC->m_pDataVideoAddress2;
}
else
{
memcpy((void *) &pC->ReaderVideoAU,
(void *) &pC->ReaderVideoAU1, sizeof(M4_AccessUnit));
err = pC->m_pReaderDataIt->m_pFctGetNextAu(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderVideoStream,
&pC->ReaderVideoAU2);
if( pC->ReaderVideoAU2.m_maxsize
> pC->pReaderVideoStream->m_basicProperties.m_maxAUSize )
{
/* Constant memory reader case, we need to reallocate the temporary buffers */
M4MCS_intReallocTemporaryAU((M4OSA_MemAddr8
*) &(pC->m_pDataVideoAddress2), pC->ReaderVideoAU2.m_maxsize);
/* pC->m_pDataVideoAddress1 and
pC->m_pDataVideoAddress2 must be reallocated at the same time */
/* because pC->pReaderVideoStream->m_basicProperties.m_maxAUSize take maximum value.
Then the test "if(pC->ReaderVideoAU?.m_maxsize > pC->pReaderVideoStream->
m_basicProperties.m_maxAUSize)" is never true */
/* and the size of the second buffer is never changed. */
M4MCS_intReallocTemporaryAU((M4OSA_MemAddr8
*) &(pC->m_pDataVideoAddress1), pC->ReaderVideoAU2.m_maxsize);
/* pC->m_pDataVideoAddress1 and
pC->m_pDataVideoAddress2 must be reallocated at the same time */
/* Update stream properties */
pC->pReaderVideoStream->m_basicProperties.m_maxAUSize =
pC->ReaderVideoAU2.m_maxsize;
}
memcpy((void *)pC->m_pDataVideoAddress2,
(void *)pC->ReaderVideoAU2.m_dataAddress,
pC->ReaderVideoAU2.m_size);
videoAUDuration = pC->ReaderVideoAU2.m_CTS - pC->ReaderVideoAU1.m_CTS;
pC->ReaderVideoAU.m_dataAddress = pC->m_pDataVideoAddress1;
}
if( M4WAR_NO_MORE_AU == err )
{
M4OSA_TRACE2_0(
"M4MCS_intVideoNullEncoding():\
m_pReaderDataIt->m_pFctGetNextAu(video) returns M4WAR_NO_MORE_AU");
/* The video transcoding is finished */
pC->VideoState = M4MCS_kStreamState_FINISHED;
return err;
}
else if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intVideoNullEncoding(): m_pReaderDataIt->m_pFctGetNextAu(Video) returns 0x%x",
err);
return err;
}
else
{
/**
* Prepare the writer AU */
err = pC->pWriterDataFcts->pStartAU(pC->pWriterContext,
M4MCS_WRITER_VIDEO_STREAM_ID, &pC->WriterVideoAU);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intVideoNullEncoding(): pWriterDataFcts->pStartAU(Video) returns 0x%x",
err);
return err;
}
/**
* Copy video data from reader AU to writer AU */
M4OSA_TRACE3_1(
"M4MCS_intVideoNullEncoding(): Copying video AU: size=%d",
pC->ReaderVideoAU.m_size);
/* + CRLV6775 -H.264 Trimming */
if( M4OSA_TRUE == pC->bH264Trim )
{
if( pC->H264MCSTempBufferSize
< (pC->ReaderVideoAU.m_size + 2048) )
{
pC->H264MCSTempBufferSize =
(pC->ReaderVideoAU.m_size + 2048);
if( pC->H264MCSTempBuffer != M4OSA_NULL )
{
free(pC->H264MCSTempBuffer);
}
pC->H264MCSTempBuffer =
(M4OSA_UInt8 *)M4OSA_32bitAlignedMalloc(pC->H264MCSTempBufferSize,
M4MCS, (M4OSA_Char *)"pC->H264MCSTempBuffer");
if( pC->H264MCSTempBuffer == M4OSA_NULL )
{
M4OSA_TRACE1_0(
"M4MCS_intVideoNullEncoding(): allocation error");
return M4ERR_ALLOC;
}
}
pC->H264MCSTempBufferDataSize = pC->H264MCSTempBufferSize;
err = H264MCS_ProcessNALU(pC->m_pInstance,
(M4OSA_UInt8 *)pC->ReaderVideoAU.m_dataAddress,
pC->ReaderVideoAU.m_size, pC->H264MCSTempBuffer,
(M4OSA_Int32 *)&pC->H264MCSTempBufferDataSize);
if( pC->m_pInstance->is_done == 1 )
{
M4MCS_convetFromByteStreamtoNALStream(
(M4OSA_UInt8 *)pC->ReaderVideoAU.m_dataAddress ,
pC->ReaderVideoAU.m_size);
memcpy((void *)pC->WriterVideoAU.dataAddress,
(void *)(pC->ReaderVideoAU.m_dataAddress + 4),
pC->ReaderVideoAU.m_size - 4);
pC->WriterVideoAU.size = pC->ReaderVideoAU.m_size - 4;
WritebufferAdd =
(M4OSA_MemAddr8)pC->WriterVideoAU.dataAddress;
}
else
{
memcpy((void *)pC->WriterVideoAU.dataAddress,
(void *)(pC->H264MCSTempBuffer + 4),
pC->H264MCSTempBufferDataSize - 4);
pC->WriterVideoAU.size = pC->H264MCSTempBufferDataSize - 4;
WritebufferAdd =
(M4OSA_MemAddr8)pC->WriterVideoAU.dataAddress;
}
}
/* H.264 Trimming */
else
{
memcpy((void *)pC->WriterVideoAU.dataAddress,
(void *)pC->ReaderVideoAU.m_dataAddress,
pC->ReaderVideoAU.m_size);
pC->WriterVideoAU.size = pC->ReaderVideoAU.m_size;
}
/**
* Convert CTS unit from milliseconds to timescale */
pC->WriterVideoAU.CTS =
(M4OSA_Time)((( pC->ReaderVideoAU.m_CTS - pC->dViDecStartingCts)
* (pC->WriterVideoStream.timeScale / 1000.0)));
pC->WriterVideoAU.nbFrag = 0;
pC->WriterVideoAU.attribute = pC->ReaderVideoAU.m_attribute;
M4OSA_TRACE3_1("M4MCS_intVideoNullEncoding(): video AU: CTS=%d ms",
pC->WriterVideoAU.CTS);
/**
* Write it to the output file */
pC->uiVideoAUCount++;
err = pC->pWriterDataFcts->pProcessAU(pC->pWriterContext,
M4MCS_WRITER_VIDEO_STREAM_ID, &pC->WriterVideoAU);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intVideoNullEncoding(): pWriterDataFcts->pProcessAU(Video) returns 0x%x",
err);
return err;
}
/* + CRLV6775 -H.264 Trimming */
if( M4OSA_TRUE == pC->bH264Trim )
{
if( pC->m_pInstance->is_done == 1 )
{
memcpy((void *)(WritebufferAdd - 4),
(void *)(pC->ReaderVideoAU.m_dataAddress), 4);
}
else
{
memcpy((void *)(WritebufferAdd - 4),
(void *)(pC->H264MCSTempBuffer), 4);
}
} /* H.264 Trimming */
}
/**
* Check for end cut. */
/* Bug fix 11/12/2008: We absolutely want to have less or same video duration ->
(2*videoAUDuration) to have a more precise end cut*/
if( pC->ReaderVideoAU.m_CTS + (2 *videoAUDuration) > pC->uiEndCutTime )
{
pC->VideoState = M4MCS_kStreamState_FINISHED;
}
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_intVideoNullEncoding(): returning M4NO_ERROR");
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intVideoTranscoding(M4MCS_InternalContext* pC)
* @author Alexis Vapillon (NXP Software Vision)
* @return M4NO_ERROR: No error
******************************************************************************
*/
static M4OSA_ERR M4MCS_intVideoTranscoding( M4MCS_InternalContext *pC )
{
M4OSA_ERR err = M4NO_ERROR;
M4_MediaTime mtTranscodedTime = 0.0;
M4ENCODER_FrameMode FrameMode;
M4OSA_Int32 derive = 0;
/**
* Get video CTS to decode */
mtTranscodedTime = pC->dViDecCurrentCts;
FrameMode = M4ENCODER_kNormalFrame;
/**
* Decode video */
M4OSA_TRACE3_1(
"M4MCS_intVideoTranscoding(): Calling m_pVideoDecoder->m_pFctDecode(%.2f)",
mtTranscodedTime);
pC->isRenderDup = M4OSA_FALSE;
err = pC->m_pVideoDecoder->m_pFctDecode(pC->pViDecCtxt, &mtTranscodedTime,
M4OSA_FALSE, 0);
if( M4WAR_NO_MORE_AU == err )
{
FrameMode =
M4ENCODER_kLastFrame; /**< We will give this value to the encoder to
ask for the end of the encoding */
pC->VideoState = M4MCS_kStreamState_FINISHED;
}
else if( err == M4WAR_VIDEORENDERER_NO_NEW_FRAME )
{
M4OSA_TRACE2_0("Decoding output the same frame as before 3");
pC->isRenderDup = M4OSA_TRUE;
}
else if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intVideoTranscoding(): m_pVideoDecoder->m_pFctDecode returns 0x%x!",
err);
return err;
}
/**
* Check for end cut.
* We must check here if the end cut is reached, because in that case we must
* call the last encode step (-> bLastFrame set to true) */
if( ( pC->dViDecCurrentCts + pC->dCtsIncrement ) >= (pC->uiEndCutTime
+ M4MCS_ABS(pC->dViDecStartingCts - pC->uiBeginCutTime)) )
{
FrameMode =
M4ENCODER_kLastFrame; /**< We will give this value to the encoder to
ask for the end of the encoding */
pC->VideoState = M4MCS_kStreamState_FINISHED;
derive = (M4OSA_Int32)(( pC->dViDecCurrentCts + pC->dCtsIncrement + 0.5)
- (pC->uiEndCutTime
+ M4MCS_ABS(pC->dViDecStartingCts - pC->uiBeginCutTime)));
}
/* Update starting CTS to have a more precise value (
the begin cut is not a real CTS)*/
if( pC->uiVideoAUCount == 0 )
{
pC->dViDecStartingCts = mtTranscodedTime;
pC->dViDecCurrentCts = pC->dViDecStartingCts;
}
/**
* Encode video */
M4OSA_TRACE3_1(
"M4MCS_intVideoTranscoding(): Calling pVideoEncoderGlobalFcts->pFctEncode with videoCts\
= %.2f",pC->ReaderVideoAU.m_CTS);
pC->uiVideoAUCount++;
/* update the given duration (the begin cut is not a real CTS)*/
err = pC->pVideoEncoderGlobalFcts->pFctEncode(pC->pViEncCtxt, M4OSA_NULL,
(pC->dViDecCurrentCts - pC->dViDecStartingCts - (derive >> 1)),
FrameMode);
return err;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intGetInputClipProperties(M4MCS_InternalContext* pContext)
* @author Dounya Manai (NXP Software Vision)
* @brief Retrieve the properties of the audio and video streams from the input file.
* @param pContext (IN) MCS context
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: pContext is M4OSA_NULL (If Debug Level >= 2)
******************************************************************************
*/
static M4OSA_ERR M4MCS_intGetInputClipProperties( M4MCS_InternalContext *pC )
{
M4DECODER_MPEG4_DecoderConfigInfo DecConfInfo;
M4READER_3GP_H263Properties H263prop;
M4OSA_ERR err;
M4OSA_UInt32 videoBitrate;
M4DECODER_VideoSize videoSize;
M4_AACType iAacType = 0;
/**
* Check input parameters */
M4OSA_DEBUG_IF2(M4OSA_NULL == pC, M4ERR_PARAMETER,
"M4MCS_intGetInputClipProperties: pC is M4OSA_NULL");
/**
* Reset common characteristics */
pC->InputFileProperties.bAnalysed = M4OSA_FALSE;
pC->InputFileProperties.FileType = 0;
pC->InputFileProperties.Version[0] = M4VIDEOEDITING_VERSION_MAJOR;
pC->InputFileProperties.Version[1] = M4VIDEOEDITING_VERSION_MINOR;
pC->InputFileProperties.Version[2] = M4VIDEOEDITING_VERSION_REVISION;
pC->InputFileProperties.uiClipDuration = 0;
memset((void *) &pC->InputFileProperties.ftyp,
0, sizeof(M4VIDEOEDITING_FtypBox));
/**
* Reset video characteristics */
pC->InputFileProperties.VideoStreamType = M4VIDEOEDITING_kNoneVideo;
pC->InputFileProperties.uiClipVideoDuration = 0;
pC->InputFileProperties.uiVideoBitrate = 0;
pC->InputFileProperties.uiVideoMaxAuSize = 0;
pC->InputFileProperties.uiVideoWidth = 0;
pC->InputFileProperties.uiVideoHeight = 0;
pC->InputFileProperties.uiVideoTimeScale = 0;
pC->InputFileProperties.fAverageFrameRate = 0.0;
pC->InputFileProperties.uiVideoLevel =
M4VIDEOEDITING_VIDEO_UNKNOWN_LEVEL;
pC->InputFileProperties.uiVideoProfile =
M4VIDEOEDITING_VIDEO_UNKNOWN_PROFILE;
pC->InputFileProperties.bMPEG4dataPartition = M4OSA_FALSE;
pC->InputFileProperties.bMPEG4rvlc = M4OSA_FALSE;
pC->InputFileProperties.bMPEG4resynchMarker = M4OSA_FALSE;
/**
* Reset audio characteristics */
pC->InputFileProperties.AudioStreamType = M4VIDEOEDITING_kNoneAudio;
pC->InputFileProperties.uiClipAudioDuration = 0;
pC->InputFileProperties.uiAudioBitrate = 0;
pC->InputFileProperties.uiAudioMaxAuSize = 0;
pC->InputFileProperties.uiNbChannels = 0;
pC->InputFileProperties.uiSamplingFrequency = 0;
pC->InputFileProperties.uiExtendedSamplingFrequency = 0;
pC->InputFileProperties.uiDecodedPcmSize = 0;
/* Reset compatibility chart (not used in MCS) */
pC->InputFileProperties.bVideoIsEditable = M4OSA_FALSE;
pC->InputFileProperties.bAudioIsEditable = M4OSA_FALSE;
pC->InputFileProperties.bVideoIsCompatibleWithMasterClip = M4OSA_FALSE;
pC->InputFileProperties.bAudioIsCompatibleWithMasterClip = M4OSA_FALSE;
/**
* Video stream properties */
if( M4OSA_NULL != pC->pReaderVideoStream )
{
switch( pC->pReaderVideoStream->m_basicProperties.m_streamType )
{
case M4DA_StreamTypeVideoMpeg4:
pC->InputFileProperties.VideoStreamType = M4VIDEOEDITING_kMPEG4;
break;
case M4DA_StreamTypeVideoH263:
pC->InputFileProperties.VideoStreamType = M4VIDEOEDITING_kH263;
break;
case M4DA_StreamTypeVideoMpeg4Avc:
pC->InputFileProperties.VideoStreamType = M4VIDEOEDITING_kH264;
break;
case M4DA_StreamTypeUnknown:
default:
pC->InputFileProperties.VideoStreamType =
M4VIDEOEDITING_kUnsupportedVideo;
break;
}
/* if bitrate not available retrieve an estimation of the overall bitrate */
pC->InputFileProperties.uiVideoBitrate =
pC->pReaderVideoStream->m_basicProperties.m_averageBitRate;
if( 0 == pC->InputFileProperties.uiVideoBitrate )
{
pC->m_pReader->m_pFctGetOption(pC->pReaderContext,
M4READER_kOptionID_Bitrate, &videoBitrate);
if( M4OSA_NULL != pC->pReaderAudioStream )
{
/* we get the overall bitrate, substract the audio bitrate if any */
videoBitrate -=
pC->pReaderAudioStream->m_basicProperties.m_averageBitRate;
}
pC->InputFileProperties.uiVideoBitrate = videoBitrate;
}
/**
* Retrieve the Profile & Level */
if( ( M4VIDEOEDITING_kH263 != pC->InputFileProperties.VideoStreamType)
&& (M4VIDEOEDITING_kH264
!= pC->InputFileProperties.VideoStreamType) )
{
/* Use the DSI parsing function from the external video shell decoder.
See the comments in M4VSS3GPP_ClipAnalysis.c, it's pretty much the
same issue. */
err = M4DECODER_EXTERNAL_ParseVideoDSI(pC->pReaderVideoStream->
m_basicProperties.m_pDecoderSpecificInfo,
pC->pReaderVideoStream->
m_basicProperties.m_decoderSpecificInfoSize,
&DecConfInfo, &videoSize);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intGetInputClipProperties():\
M4DECODER_EXTERNAL_ParseVideoDSI returns 0x%08X",
err);
return err;
}
pC->pReaderVideoStream->m_videoWidth = videoSize.m_uiWidth;
pC->pReaderVideoStream->m_videoHeight = videoSize.m_uiHeight;
pC->InputFileProperties.uiVideoTimeScale = DecConfInfo.uiTimeScale;
pC->InputFileProperties.bMPEG4dataPartition =
DecConfInfo.bDataPartition;
pC->InputFileProperties.bMPEG4rvlc = DecConfInfo.bUseOfRVLC;
pC->InputFileProperties.bMPEG4resynchMarker =
DecConfInfo.uiUseOfResynchMarker;
err = getMPEG4ProfileAndLevel(DecConfInfo.uiProfile,
&(pC->InputFileProperties.uiVideoProfile),
&(pC->InputFileProperties.uiVideoLevel));
if ( M4NO_ERROR != err ) {
M4OSA_TRACE1_1("M4MCS_intGetInputClipProperties():\
getMPEG4ProfileAndLevel returns 0x%08X", err);
return err;
}
}
else if( M4VIDEOEDITING_kH263 ==
pC->InputFileProperties.VideoStreamType ) {
err = getH263ProfileAndLevel(pC->pReaderVideoStream->
m_basicProperties.m_pDecoderSpecificInfo,
pC->pReaderVideoStream->m_basicProperties.m_decoderSpecificInfoSize,
&(pC->InputFileProperties.uiVideoProfile),
&(pC->InputFileProperties.uiVideoLevel));
if ( M4NO_ERROR != err ) {
M4OSA_TRACE1_1("M4MCS_intGetInputClipProperties():\
getH263ProfileAndLevel returns 0x%08X", err);
return err;
}
/* For h263 set default timescale : 30000:1001 */
pC->InputFileProperties.uiVideoTimeScale = 30000;
}
else if ( M4VIDEOEDITING_kH264 ==
pC->InputFileProperties.VideoStreamType ) {
pC->InputFileProperties.uiVideoTimeScale = 30000;
err = getAVCProfileAndLevel(pC->pReaderVideoStream->
m_basicProperties.m_pDecoderSpecificInfo,
pC->pReaderVideoStream->m_basicProperties.m_decoderSpecificInfoSize,
&(pC->InputFileProperties.uiVideoProfile),
&(pC->InputFileProperties.uiVideoLevel));
if ( M4NO_ERROR != err ) {
M4OSA_TRACE1_1("M4MCS_intGetInputClipProperties():\
getAVCProfileAndLevel returns 0x%08X", err);
return err;
}
}
/* Here because width x height is correct only after dsi parsing
(done in create decoder) */
pC->InputFileProperties.uiVideoHeight =
pC->pReaderVideoStream->m_videoHeight;
pC->InputFileProperties.uiVideoWidth =
pC->pReaderVideoStream->m_videoWidth;
pC->InputFileProperties.uiClipVideoDuration =
(M4OSA_UInt32)pC->pReaderVideoStream->m_basicProperties.m_duration;
pC->InputFileProperties.fAverageFrameRate =
pC->pReaderVideoStream->m_averageFrameRate;
pC->InputFileProperties.uiVideoMaxAuSize =
pC->pReaderVideoStream->m_basicProperties.m_maxAUSize;
pC->InputFileProperties.videoRotationDegrees =
pC->pReaderVideoStream->videoRotationDegrees;
}
else
{
if( M4OSA_TRUE == pC->bUnsupportedVideoFound )
{
pC->InputFileProperties.VideoStreamType =
M4VIDEOEDITING_kUnsupportedVideo;
}
else
{
pC->InputFileProperties.VideoStreamType = M4VIDEOEDITING_kNoneVideo;
}
}
/**
* Audio stream properties */
if( M4OSA_NULL != pC->pReaderAudioStream )
{
switch( pC->pReaderAudioStream->m_basicProperties.m_streamType )
{
case M4DA_StreamTypeAudioAmrNarrowBand:
pC->InputFileProperties.AudioStreamType =
M4VIDEOEDITING_kAMR_NB;
break;
case M4DA_StreamTypeAudioAac:
pC->InputFileProperties.AudioStreamType = M4VIDEOEDITING_kAAC;
break;
case M4DA_StreamTypeAudioMp3:
pC->InputFileProperties.AudioStreamType = M4VIDEOEDITING_kMP3;
break;
case M4DA_StreamTypeAudioEvrc:
pC->InputFileProperties.AudioStreamType = M4VIDEOEDITING_kEVRC;
break;
case M4DA_StreamTypeUnknown:
default:
pC->InputFileProperties.AudioStreamType =
M4VIDEOEDITING_kUnsupportedAudio;
break;
}
if( ( M4OSA_NULL != pC->m_pAudioDecoder)
&& (M4OSA_NULL == pC->pAudioDecCtxt) )
{
M4OSA_TRACE3_1(
"M4MCS_intGetInputClipProperties: calling CreateAudioDecoder, userData= 0x%x",
pC->m_pCurrentAudioDecoderUserData);
if( M4OSA_FALSE == pC->bExtOMXAudDecoder ) {
err = M4MCS_intCheckAndGetCodecProperties(pC);
}
else
{
err = pC->m_pAudioDecoder->m_pFctCreateAudioDec(
&pC->pAudioDecCtxt, pC->pReaderAudioStream,
pC->m_pCurrentAudioDecoderUserData);
if( M4NO_ERROR == err )
{
/* AAC properties*/
//get from Reader; temporary, till Audio decoder shell API available to
//get the AAC properties
pC->AacProperties.aNumChan =
pC->pReaderAudioStream->m_nbChannels;
pC->AacProperties.aSampFreq =
pC->pReaderAudioStream->m_samplingFrequency;
err = pC->m_pAudioDecoder->m_pFctGetOptionAudioDec(
pC->pAudioDecCtxt, M4AD_kOptionID_StreamType,
(M4OSA_DataOption) &iAacType);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intGetInputClipProperties:\
m_pAudioDecoder->m_pFctGetOptionAudioDec returns err 0x%x",
err);
iAacType = M4_kAAC; //set to default
err = M4NO_ERROR;
}
else
{
M4OSA_TRACE3_1(
"M4MCS_intGetInputClipProperties:\
m_pAudioDecoder->m_pFctGetOptionAudioDec returns streamType %d",
iAacType);
}
switch( iAacType )
{
case M4_kAAC:
pC->AacProperties.aSBRPresent = 0;
pC->AacProperties.aPSPresent = 0;
break;
case M4_kAACplus:
pC->AacProperties.aSBRPresent = 1;
pC->AacProperties.aPSPresent = 0;
pC->AacProperties.aExtensionSampFreq =
pC->pReaderAudioStream->
m_samplingFrequency; //TODO
break;
case M4_keAACplus:
pC->AacProperties.aSBRPresent = 1;
pC->AacProperties.aPSPresent = 1;
pC->AacProperties.aExtensionSampFreq =
pC->pReaderAudioStream->
m_samplingFrequency; //TODO
break;
case M4_kUnknown:
break;
default:
break;
}
M4OSA_TRACE3_2(
"M4MCS_intGetInputClipProperties: AAC NBChans=%d, SamplFreq=%d",
pC->AacProperties.aNumChan,
pC->AacProperties.aSampFreq);
}
}
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intGetInputClipProperties:\
m_pAudioDecoder->m_pFctCreateAudioDec returns 0x%x",
err);
return err;
}
}
//EVRC
if( pC->pReaderAudioStream->m_basicProperties.m_streamType
== M4DA_StreamTypeAudioEvrc )
{
/* decoder not implemented yet, provide some default values for the null encoding */
pC->pReaderAudioStream->m_nbChannels = 1;
pC->pReaderAudioStream->m_samplingFrequency = 8000;
}
/**
* Bugfix P4ME00001128: With some IMTC files, the AMR bit rate is 0 kbps according
the GetProperties function */
if( 0 == pC->pReaderAudioStream->m_basicProperties.m_averageBitRate )
{
if( M4VIDEOEDITING_kAMR_NB
== pC->InputFileProperties.AudioStreamType )
{
/**
* Better returning a guessed 12.2 kbps value than a sure-to-be-false
0 kbps value! */
pC->InputFileProperties.uiAudioBitrate =
M4VIDEOEDITING_k12_2_KBPS;
}
else if( M4VIDEOEDITING_kEVRC
== pC->InputFileProperties.AudioStreamType )
{
/**
* Better returning a guessed 8.5 kbps value than a sure-to-be-false
0 kbps value! */
pC->InputFileProperties.uiAudioBitrate =
M4VIDEOEDITING_k9_2_KBPS;
}
else
{
M4OSA_UInt32 FileBitrate;
/* Can happen also for aac, in this case we calculate an approximative */
/* value from global bitrate and video bitrate */
err = pC->m_pReader->m_pFctGetOption(pC->pReaderContext,
M4READER_kOptionID_Bitrate,
(M4OSA_DataOption) &FileBitrate);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_intGetInputClipProperties: M4READER_kOptionID_Bitrate returns 0x%x",
err);
return err;
}
pC->InputFileProperties.uiAudioBitrate =
FileBitrate
- pC->
InputFileProperties.
uiVideoBitrate /* normally setted to 0, if no video */;
}
}
else
{
pC->InputFileProperties.uiAudioBitrate =
pC->pReaderAudioStream->m_basicProperties.m_averageBitRate;
}
pC->InputFileProperties.uiNbChannels =
pC->pReaderAudioStream->m_nbChannels;
pC->InputFileProperties.uiSamplingFrequency =
pC->pReaderAudioStream->m_samplingFrequency;
pC->InputFileProperties.uiClipAudioDuration =
(M4OSA_UInt32)pC->pReaderAudioStream->m_basicProperties.m_duration;
pC->InputFileProperties.uiAudioMaxAuSize =
pC->pReaderAudioStream->m_basicProperties.m_maxAUSize;
/* Bug: with aac, value is 0 until decoder start() is called */
pC->InputFileProperties.uiDecodedPcmSize =
pC->pReaderAudioStream->m_byteFrameLength
* pC->pReaderAudioStream->m_byteSampleSize
* pC->pReaderAudioStream->m_nbChannels;
/* New aac properties */
if( M4DA_StreamTypeAudioAac
== pC->pReaderAudioStream->m_basicProperties.m_streamType )
{
pC->InputFileProperties.uiNbChannels = pC->AacProperties.aNumChan;
pC->InputFileProperties.uiSamplingFrequency =
pC->AacProperties.aSampFreq;
if( pC->AacProperties.aSBRPresent )
{
pC->InputFileProperties.AudioStreamType =
M4VIDEOEDITING_kAACplus;
pC->InputFileProperties.uiExtendedSamplingFrequency =
pC->AacProperties.aExtensionSampFreq;
}
if( pC->AacProperties.aPSPresent )
{
pC->InputFileProperties.AudioStreamType =
M4VIDEOEDITING_keAACplus;
}
}
}
else
{
if( M4OSA_TRUE == pC->bUnsupportedAudioFound )
{
pC->InputFileProperties.AudioStreamType =
M4VIDEOEDITING_kUnsupportedAudio;
}
else
{
pC->InputFileProperties.AudioStreamType = M4VIDEOEDITING_kNoneAudio;
}
}
/* Get 'ftyp' atom */
err = pC->m_pReader->m_pFctGetOption(pC->pReaderContext,
M4READER_kOptionID_3gpFtypBox, &pC->InputFileProperties.ftyp);
/* Analysis is successful */
if( pC->InputFileProperties.uiClipVideoDuration
> pC->InputFileProperties.uiClipAudioDuration )
pC->InputFileProperties.uiClipDuration =
pC->InputFileProperties.uiClipVideoDuration;
else
pC->InputFileProperties.uiClipDuration =
pC->InputFileProperties.uiClipAudioDuration;
pC->InputFileProperties.FileType = pC->InputFileType;
pC->InputFileProperties.bAnalysed = M4OSA_TRUE;
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_UInt32 M4MCS_intGetFrameSize_AMRNB(M4OSA_MemAddr8 pAudioFrame)
* @brief Return the length, in bytes, of the AMR Narrow-Band frame contained in the given buffer
* @note
* @param pCpAudioFrame (IN) AMRNB frame
* @return M4NO_ERROR: No error
******************************************************************************
*/
static M4OSA_UInt32 M4MCS_intGetFrameSize_AMRNB( M4OSA_MemAddr8 pAudioFrame )
{
M4OSA_UInt32 frameSize = 0;
M4OSA_UInt32 frameType = ( ( *pAudioFrame) &(0xF << 3)) >> 3;
switch( frameType )
{
case 0:
frameSize = 95;
break; /* 4750 bps */
case 1:
frameSize = 103;
break; /* 5150 bps */
case 2:
frameSize = 118;
break; /* 5900 bps */
case 3:
frameSize = 134;
break; /* 6700 bps */
case 4:
frameSize = 148;
break; /* 7400 bps */
case 5:
frameSize = 159;
break; /* 7950 bps */
case 6:
frameSize = 204;
break; /* 10200 bps */
case 7:
frameSize = 244;
break; /* 12000 bps */
case 8:
frameSize = 39;
break; /* SID (Silence) */
case 15:
frameSize = 0;
break; /* No data */
default:
M4OSA_TRACE3_0(
"M4MCS_intGetFrameSize_AMRNB(): Corrupted AMR frame! returning 0.");
return 0;
}
return (1 + (( frameSize + 7) / 8));
}
/**
******************************************************************************
* M4OSA_UInt32 M4MCS_intGetFrameSize_EVRC(M4OSA_MemAddr8 pAudioFrame)
* @brief Return the length, in bytes, of the EVRC frame contained in the given buffer
* @note
* 0 1 2 3
* +-+-+-+-+
* |fr type| RFC 3558
* +-+-+-+-+
*
* Frame Type: 4 bits
* The frame type indicates the type of the corresponding codec data
* frame in the RTP packet.
*
* For EVRC and SMV codecs, the frame type values and size of the
* associated codec data frame are described in the table below:
*
* Value Rate Total codec data frame size (in octets)
* ---------------------------------------------------------
* 0 Blank 0 (0 bit)
* 1 1/8 2 (16 bits)
* 2 1/4 5 (40 bits; not valid for EVRC)
* 3 1/2 10 (80 bits)
* 4 1 22 (171 bits; 5 padded at end with zeros)
* 5 Erasure 0 (SHOULD NOT be transmitted by sender)
*
* @param pCpAudioFrame (IN) EVRC frame
* @return M4NO_ERROR: No error
******************************************************************************
*/
static M4OSA_UInt32 M4MCS_intGetFrameSize_EVRC( M4OSA_MemAddr8 pAudioFrame )
{
M4OSA_UInt32 frameSize = 0;
M4OSA_UInt32 frameType = ( *pAudioFrame) &0x0F;
switch( frameType )
{
case 0:
frameSize = 0;
break; /* blank */
case 1:
frameSize = 16;
break; /* 1/8 */
case 2:
frameSize = 40;
break; /* 1/4 */
case 3:
frameSize = 80;
break; /* 1/2 */
case 4:
frameSize = 171;
break; /* 1 */
case 5:
frameSize = 0;
break; /* erasure */
default:
M4OSA_TRACE3_0(
"M4MCS_intGetFrameSize_EVRC(): Corrupted EVRC frame! returning 0.");
return 0;
}
return (1 + (( frameSize + 7) / 8));
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intCheckMaxFileSize(M4MCS_Context pContext)
* @brief Check if max file size is greater enough to encode a file with the
* current selected bitrates and duration.
* @param pContext (IN) MCS context
* @return M4NO_ERROR
* @return M4MCS_ERR_MAXFILESIZE_TOO_SMALL
******************************************************************************
*/
static M4OSA_ERR M4MCS_intCheckMaxFileSize( M4MCS_Context pContext )
{
M4MCS_InternalContext *pC = (M4MCS_InternalContext *)(pContext);
M4OSA_UInt32 duration;
M4OSA_UInt32 audiobitrate;
M4OSA_UInt32 videobitrate;
/* free file size : OK */
if( pC->uiMaxFileSize == 0 )
return M4NO_ERROR;
/* duration */
if( pC->uiEndCutTime == 0 )
{
duration = pC->InputFileProperties.uiClipDuration - pC->uiBeginCutTime;
}
else
{
duration = pC->uiEndCutTime - pC->uiBeginCutTime;
}
/* audio bitrate */
if( pC->noaudio )
{
audiobitrate = 0;
}
else if( pC->AudioEncParams.Format == M4ENCODER_kAudioNULL )
{
audiobitrate = pC->InputFileProperties.uiAudioBitrate;
}
else if( pC->uiAudioBitrate == M4VIDEOEDITING_kUndefinedBitrate )
{
switch( pC->AudioEncParams.Format )
{
case M4ENCODER_kAMRNB:
audiobitrate = M4VIDEOEDITING_k12_2_KBPS;
break;
//EVRC
// case M4ENCODER_kEVRC:
// audiobitrate = M4VIDEOEDITING_k9_2_KBPS;
// break;
default: /* AAC and MP3*/
audiobitrate =
(pC->AudioEncParams.ChannelNum == M4ENCODER_kMono)
? M4VIDEOEDITING_k16_KBPS : M4VIDEOEDITING_k32_KBPS;
break;
}
}
else
{
audiobitrate = pC->uiAudioBitrate;
}
/* video bitrate */
if( pC->novideo )
{
videobitrate = 0;
}
else if( pC->EncodingVideoFormat == M4ENCODER_kNULL )
{
videobitrate = pC->InputFileProperties.uiVideoBitrate;
}
else if( pC->uiVideoBitrate == M4VIDEOEDITING_kUndefinedBitrate )
{
videobitrate = M4VIDEOEDITING_k16_KBPS;
}
else
{
videobitrate = pC->uiVideoBitrate;
}
/* max file size */
if( (M4OSA_UInt32)pC->uiMaxFileSize
< (M4OSA_UInt32)(M4MCS_MOOV_OVER_FILESIZE_RATIO
* (audiobitrate + videobitrate) * (duration / 8000.0)) )
return M4MCS_ERR_MAXFILESIZE_TOO_SMALL;
else
return M4NO_ERROR;
}
/**
******************************************************************************
* M4VIDEOEDITING_Bitrate M4MCS_intGetNearestBitrate(M4OSA_UInt32 freebitrate, M4OSA_Int8 mode)
* @brief Returns the closest bitrate value from the enum list of type M4VIDEOEDITING_Bitrate
* @param freebitrate: unsigned int value
* @param mode: -1:previous,0:current,1:next
* @return bitrate value in enum list M4VIDEOEDITING_Bitrate
******************************************************************************
*/
static M4VIDEOEDITING_Bitrate
M4MCS_intGetNearestBitrate( M4OSA_Int32 freebitrate, M4OSA_Int8 mode )
{
M4OSA_Int32 bitarray [] =
{
0, M4VIDEOEDITING_k16_KBPS, M4VIDEOEDITING_k24_KBPS,
M4VIDEOEDITING_k32_KBPS, M4VIDEOEDITING_k48_KBPS,
M4VIDEOEDITING_k64_KBPS, M4VIDEOEDITING_k96_KBPS,
M4VIDEOEDITING_k128_KBPS, M4VIDEOEDITING_k192_KBPS,
M4VIDEOEDITING_k256_KBPS, M4VIDEOEDITING_k288_KBPS,
M4VIDEOEDITING_k384_KBPS, M4VIDEOEDITING_k512_KBPS,
M4VIDEOEDITING_k800_KBPS, M4VIDEOEDITING_k2_MBPS,
M4VIDEOEDITING_k5_MBPS,
M4VIDEOEDITING_k8_MBPS, /*+ New Encoder bitrates */
M4OSA_INT32_MAX
};
const M4OSA_UInt32 nbbitrates = 14;
M4OSA_UInt32 i;
for ( i = 0; freebitrate >= bitarray[i]; i++ );
switch( mode )
{
case -1: /* previous */
if( i <= 2 )
return 0;
else
return bitarray[i - 2];
break;
case 0: /* current */
if( i <= 1 )
return 0;
else
return bitarray[i - 1];
break;
case 1: /* next */
if( i >= nbbitrates )
return M4OSA_INT32_MAX;
else
return bitarray[i];
break;
}
return 0;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_intCleanUp_ReadersDecoders(M4MCS_InternalContext* pC);
* @brief Free all resources allocated by M4MCS_open()
* @param pContext (IN) MCS context
* @return M4NO_ERROR: No error
******************************************************************************
*/
static M4OSA_ERR M4MCS_intCleanUp_ReadersDecoders( M4MCS_InternalContext *pC )
{
M4OSA_ERR err = M4NO_ERROR;
M4OSA_TRACE2_1("M4MCS_intCleanUp_ReadersDecoders called with pC=0x%x", pC);
/**/
/* ----- Free video decoder stuff, if needed ----- */
if( M4OSA_NULL != pC->pViDecCtxt )
{
err = pC->m_pVideoDecoder->m_pFctDestroy(pC->pViDecCtxt);
pC->pViDecCtxt = M4OSA_NULL;
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_cleanUp: m_pVideoDecoder->pFctDestroy returns 0x%x",
err);
/**< don't return, we still have stuff to free */
}
}
/* ----- Free the audio decoder stuff ----- */
if( M4OSA_NULL != pC->pAudioDecCtxt )
{
err = pC->m_pAudioDecoder->m_pFctDestroyAudioDec(pC->pAudioDecCtxt);
pC->pAudioDecCtxt = M4OSA_NULL;
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_cleanUp: m_pAudioDecoder->m_pFctDestroyAudioDec returns 0x%x",
err);
/**< don't return, we still have stuff to free */
}
}
if( M4OSA_NULL != pC->AudioDecBufferOut.m_dataAddress )
{
free(pC->AudioDecBufferOut.m_dataAddress);
pC->AudioDecBufferOut.m_dataAddress = M4OSA_NULL;
}
/* ----- Free reader stuff, if needed ----- */
// We cannot free the reader before decoders because the decoders may read
// from the reader (in another thread) before being stopped.
if( M4OSA_NULL != pC->
pReaderContext ) /**< may be M4OSA_NULL if M4MCS_open was not called */
{
err = pC->m_pReader->m_pFctClose(pC->pReaderContext);
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1("M4MCS_cleanUp: m_pReader->m_pFctClose returns 0x%x",
err);
/**< don't return, we still have stuff to free */
}
err = pC->m_pReader->m_pFctDestroy(pC->pReaderContext);
pC->pReaderContext = M4OSA_NULL;
if( M4NO_ERROR != err )
{
M4OSA_TRACE1_1(
"M4MCS_cleanUp: m_pReader->m_pFctDestroy returns 0x%x", err);
/**< don't return, we still have stuff to free */
}
}
if( pC->m_pDataAddress1 != M4OSA_NULL )
{
free(pC->m_pDataAddress1);
pC->m_pDataAddress1 = M4OSA_NULL;
}
if( pC->m_pDataAddress2 != M4OSA_NULL )
{
free(pC->m_pDataAddress2);
pC->m_pDataAddress2 = M4OSA_NULL;
}
/*Bug fix 11/12/2008 (to obtain more precise video end cut)*/
if( pC->m_pDataVideoAddress1 != M4OSA_NULL )
{
free(pC->m_pDataVideoAddress1);
pC->m_pDataVideoAddress1 = M4OSA_NULL;
}
if( pC->m_pDataVideoAddress2 != M4OSA_NULL )
{
free(pC->m_pDataVideoAddress2);
pC->m_pDataVideoAddress2 = M4OSA_NULL;
}
return M4NO_ERROR;
}
/**
******************************************************************************
* M4OSA_ERR M4MCS_open_normalMode(M4MCS_Context pContext, M4OSA_Void* pFileIn,
* M4OSA_Void* pFileOut, M4OSA_Void* pTempFile);
* @brief Set the MCS input and output files. It is the same as M4MCS_open without
* M4MCS_WITH_FAST_OPEN flag
It is used in VideoArtist
* @note It opens the input file, but the output file is not created yet.
* @param pContext (IN) MCS context
* @param pFileIn (IN) Input file to transcode (The type of this parameter
* (URL, pipe...) depends on the OSAL implementation).
* @param mediaType (IN) Container type (.3gp,.amr, ...) of input file.
* @param pFileOut (IN) Output file to create (The type of this parameter
* (URL, pipe...) depends on the OSAL implementation).
* @param pTempFile (IN) Temporary file for the constant memory writer to store
* metadata ("moov.bin").
* @return M4NO_ERROR: No error
* @return M4ERR_PARAMETER: At least one parameter is M4OSA_NULL (debug only)
* @return M4ERR_STATE: MCS is not in an appropriate state for this function to be called
* @return M4ERR_ALLOC: There is no more available memory
* @return M4ERR_FILE_NOT_FOUND: The input file has not been found
* @return M4MCS_ERR_INVALID_INPUT_FILE: The input file is not a valid file, or is corrupted
* @return M4MCS_ERR_INPUT_FILE_CONTAINS_NO_SUPPORTED_STREAM: The input file contains no
* supported audio or video stream
******************************************************************************
*/
M4OSA_ERR M4MCS_open_normalMode(M4MCS_Context pContext, M4OSA_Void* pFileIn,
M4VIDEOEDITING_FileType InputFileType,
M4OSA_Void* pFileOut, M4OSA_Void* pTempFile)
{
M4MCS_InternalContext *pC = (M4MCS_InternalContext*)(pContext);
M4OSA_ERR err;
M4READER_MediaFamily mediaFamily;
M4_StreamHandler* pStreamHandler;
M4OSA_TRACE2_3("M4MCS_open_normalMode called with pContext=0x%x, pFileIn=0x%x,\
pFileOut=0x%x", pContext, pFileIn, pFileOut);
/**
* Check input parameters */
M4OSA_DEBUG_IF2((M4OSA_NULL == pContext), M4ERR_PARAMETER,
"M4MCS_open_normalMode: pContext is M4OSA_NULL");
M4OSA_DEBUG_IF2((M4OSA_NULL == pFileIn) , M4ERR_PARAMETER,
"M4MCS_open_normalMode: pFileIn is M4OSA_NULL");
if ((InputFileType == M4VIDEOEDITING_kFileType_JPG)
||(InputFileType == M4VIDEOEDITING_kFileType_PNG)
||(InputFileType == M4VIDEOEDITING_kFileType_GIF)
||(InputFileType == M4VIDEOEDITING_kFileType_BMP))
{
M4OSA_TRACE1_0("M4MCS_open_normalMode: Still picture is not\
supported with this function");
return M4MCS_ERR_INPUT_FILE_CONTAINS_NO_SUPPORTED_STREAM;
}
/**
* Check state automaton */
if (M4MCS_kState_CREATED != pC->State)
{
M4OSA_TRACE1_1("M4MCS_open_normalMode(): Wrong State (%d), returning M4ERR_STATE",
pC->State);
return M4ERR_STATE;
}
/* Copy function input parameters into our context */
pC->pInputFile = pFileIn;
pC->InputFileType = InputFileType;
pC->pOutputFile = pFileOut;
pC->pTemporaryFile = pTempFile;
/***********************************/
/* Open input file with the reader */
/***********************************/
err = M4MCS_setCurrentReader(pContext, pC->InputFileType);
M4ERR_CHECK_RETURN(err);
/**
* Reset reader related variables */
pC->VideoState = M4MCS_kStreamState_NOSTREAM;
pC->AudioState = M4MCS_kStreamState_NOSTREAM;
pC->pReaderVideoStream = M4OSA_NULL;
pC->pReaderAudioStream = M4OSA_NULL;
/*******************************************************/
/* Initializes the reader shell and open the data file */
/*******************************************************/
err = pC->m_pReader->m_pFctCreate(&pC->pReaderContext);
if (M4NO_ERROR != err)
{
M4OSA_TRACE1_1("M4MCS_open_normalMode(): m_pReader->m_pFctCreate returns 0x%x", err);
return err;
}
/**
* Link the reader interface to the reader context */
pC->m_pReaderDataIt->m_readerContext = pC->pReaderContext;
/**
* Set the reader shell file access functions */
err = pC->m_pReader->m_pFctSetOption(pC->pReaderContext,
M4READER_kOptionID_SetOsaFileReaderFctsPtr,
(M4OSA_DataOption)pC->pOsaFileReadPtr);
if (M4NO_ERROR != err)
{
M4OSA_TRACE1_1("M4MCS_open_normalMode(): m_pReader->m_pFctSetOption returns 0x%x", err);
return err;
}
/**
* Open the input file */
err = pC->m_pReader->m_pFctOpen(pC->pReaderContext, pC->pInputFile);
if (M4NO_ERROR != err)
{
M4OSA_UInt32 uiDummy, uiCoreId;
M4OSA_TRACE1_1("M4MCS_open_normalMode(): m_pReader->m_pFctOpen returns 0x%x", err);
if (err == ((M4OSA_UInt32)M4ERR_UNSUPPORTED_MEDIA_TYPE)) {
M4OSA_TRACE1_0("M4MCS_open_normalMode(): returning M4MCS_ERR_FILE_DRM_PROTECTED");
return M4MCS_ERR_FILE_DRM_PROTECTED;
} else {
/**
* If the error is from the core reader, we change it to a public VXS error */
M4OSA_ERR_SPLIT(err, uiDummy, uiCoreId, uiDummy);
if (M4MP4_READER == uiCoreId)
{
M4OSA_TRACE1_0("M4MCS_open_normalMode(): returning M4MCS_ERR_INVALID_INPUT_FILE");
return M4MCS_ERR_INVALID_INPUT_FILE;
}
}
return err;
}
/**
* Get the streams from the input file */
while (M4NO_ERROR == err)
{
err = pC->m_pReader->m_pFctGetNextStream(pC->pReaderContext, &mediaFamily,
&pStreamHandler);
/**
* In case we found a BIFS stream or something else...*/
if((err == ((M4OSA_UInt32)M4ERR_READER_UNKNOWN_STREAM_TYPE))
|| (err == ((M4OSA_UInt32)M4WAR_TOO_MUCH_STREAMS)))
{
err = M4NO_ERROR;
continue;
}
if (M4NO_ERROR == err) /**< One stream found */
{
/**
* Found the first video stream */
if ((M4READER_kMediaFamilyVideo == mediaFamily) \
&& (M4OSA_NULL == pC->pReaderVideoStream))
{
if ((M4DA_StreamTypeVideoH263==pStreamHandler->m_streamType) ||
(M4DA_StreamTypeVideoMpeg4==pStreamHandler->m_streamType)
#ifdef M4VSS_SUPPORT_VIDEO_AVC
||(M4DA_StreamTypeVideoMpeg4Avc==pStreamHandler->m_streamType))
#else
||((M4DA_StreamTypeVideoMpeg4Avc==pStreamHandler->m_streamType)
&&(pC->m_pVideoDecoderItTable[M4DECODER_kVideoTypeAVC] != M4OSA_NULL)))
#endif
{
M4OSA_TRACE3_0("M4MCS_open_normalMode():\
Found a H263 or MPEG-4 video stream in input 3gpp clip");
/**
* Keep pointer to the video stream */
pC->pReaderVideoStream = (M4_VideoStreamHandler*)pStreamHandler;
pC->bUnsupportedVideoFound = M4OSA_FALSE;
pStreamHandler->m_bStreamIsOK = M4OSA_TRUE;
/**
* Init our video stream state variable */
pC->VideoState = M4MCS_kStreamState_STARTED;
/**
* Reset the stream reader */
err = pC->m_pReader->m_pFctReset(pC->pReaderContext,
(M4_StreamHandler*)pC->pReaderVideoStream);
if (M4NO_ERROR != err)
{
M4OSA_TRACE1_1("M4MCS_open_normalMode():\
m_pReader->m_pFctReset(video) returns 0x%x", err);
return err;
}
/**
* Initializes an access Unit */
err = pC->m_pReader->m_pFctFillAuStruct(pC->pReaderContext, pStreamHandler,
&pC->ReaderVideoAU);
if (M4NO_ERROR != err)
{
M4OSA_TRACE1_1("M4MCS_open_normalMode():\
m_pReader->m_pFctFillAuStruct(video) returns 0x%x", err);
return err;
}
}
else /**< Not H263 or MPEG-4 (H264, etc.) */
{
M4OSA_TRACE1_1("M4MCS_open_normalMode():\
Found an unsupported video stream (0x%x) in input 3gpp clip",
pStreamHandler->m_streamType);
pC->bUnsupportedVideoFound = M4OSA_TRUE;
pStreamHandler->m_bStreamIsOK = M4OSA_FALSE;
}
}
/**
* Found the first audio stream */
else if ((M4READER_kMediaFamilyAudio == mediaFamily)
&& (M4OSA_NULL == pC->pReaderAudioStream))
{
if ((M4DA_StreamTypeAudioAmrNarrowBand==pStreamHandler->m_streamType) ||
(M4DA_StreamTypeAudioAac==pStreamHandler->m_streamType) ||
(M4DA_StreamTypeAudioMp3==pStreamHandler->m_streamType) ||
(M4DA_StreamTypeAudioEvrc==pStreamHandler->m_streamType) )
{
M4OSA_TRACE3_0("M4MCS_open_normalMode(): Found an AMR-NB, AAC \
or MP3 audio stream in input clip");
/**
* Keep pointer to the audio stream */
pC->pReaderAudioStream = (M4_AudioStreamHandler*)pStreamHandler;
pStreamHandler->m_bStreamIsOK = M4OSA_TRUE;
pC->bUnsupportedAudioFound = M4OSA_FALSE;
/**
* Init our audio stream state variable */
pC->AudioState = M4MCS_kStreamState_STARTED;
/**
* Reset the stream reader */
err = pC->m_pReader->m_pFctReset(pC->pReaderContext,
(M4_StreamHandler*)pC->pReaderAudioStream);
if (M4NO_ERROR != err)
{
M4OSA_TRACE1_1("M4MCS_open_normalMode():\
m_pReader->m_pFctReset(audio) returns 0x%x", err);
return err;
}
/**
* Initializes an access Unit */
err = pC->m_pReader->m_pFctFillAuStruct(pC->pReaderContext, pStreamHandler,
&pC->ReaderAudioAU);
if (M4NO_ERROR != err)
{
M4OSA_TRACE1_1("M4MCS_open_normalMode(): \
m_pReader->m_pFctFillAuStruct(audio) returns 0x%x", err);
return err;
}
/**
* Output max AU size is equal to input max AU size (this value
* will be changed if there is audio transcoding) */
pC->uiAudioMaxAuSize = pStreamHandler->m_maxAUSize;
}
else
{
/**< Not AMR-NB, AAC, MP3 nor EVRC (AMR-WB, WAV...) */
M4OSA_TRACE1_1("M4MCS_open_normalMode(): Found an unsupported audio stream\
(0x%x) in input 3gpp clip", pStreamHandler->m_streamType);
pC->bUnsupportedAudioFound = M4OSA_TRUE;
pStreamHandler->m_bStreamIsOK = M4OSA_FALSE;
}
}
}
} /**< end of while (M4NO_ERROR == err) */
/**
* Check we found at least one supported stream */
if((M4OSA_NULL == pC->pReaderVideoStream) && (M4OSA_NULL == pC->pReaderAudioStream))
{
M4OSA_TRACE1_0("M4MCS_open_normalMode(): returning \
M4MCS_ERR_INPUT_FILE_CONTAINS_NO_SUPPORTED_STREAM");
return M4MCS_ERR_INPUT_FILE_CONTAINS_NO_SUPPORTED_STREAM;
}
#ifndef M4VSS_ENABLE_EXTERNAL_DECODERS
if(pC->VideoState == M4MCS_kStreamState_STARTED)
{
err = M4MCS_setCurrentVideoDecoder(pContext,
pC->pReaderVideoStream->m_basicProperties.m_streamType);
M4ERR_CHECK_RETURN(err);
}
#endif
if(pC->AudioState == M4MCS_kStreamState_STARTED)
{
//EVRC
if(M4DA_StreamTypeAudioEvrc != pStreamHandler->m_streamType)
/* decoder not supported yet, but allow to do null encoding */
{
err = M4MCS_setCurrentAudioDecoder(pContext,
pC->pReaderAudioStream->m_basicProperties.m_streamType);
M4ERR_CHECK_RETURN(err);
}
}
/**
* Get the audio and video stream properties */
err = M4MCS_intGetInputClipProperties(pC);
if (M4NO_ERROR != err)
{
M4OSA_TRACE1_1("M4MCS_open_normalMode():\
M4MCS_intGetInputClipProperties returns 0x%x", err);
return err;
}
/**
* Set the begin cut decoding increment according to the input frame rate */
if (0. != pC->InputFileProperties.fAverageFrameRate) /**< sanity check */
{
pC->iVideoBeginDecIncr = (M4OSA_Int32)(3000. \
/ pC->InputFileProperties.fAverageFrameRate); /**< about 3 frames */
}
else
{
pC->iVideoBeginDecIncr = 200; /**< default value: 200 milliseconds (3 frames @ 15fps)*/
}
/**
* Update state automaton */
pC->State = M4MCS_kState_OPENED;
/**
* Return with no error */
M4OSA_TRACE3_0("M4MCS_open_normalMode(): returning M4NO_ERROR");
return M4NO_ERROR;
}
M4OSA_ERR M4MCS_intCheckAndGetCodecProperties(
M4MCS_InternalContext *pC) {
M4OSA_ERR err = M4NO_ERROR;
M4AD_Buffer outputBuffer;
uint32_t optionValue =0;
M4OSA_TRACE3_0("M4MCS_intCheckAndGetCodecProperties :start");
// Decode first audio frame from clip to get properties from codec
if (M4DA_StreamTypeAudioAac ==
pC->pReaderAudioStream->m_basicProperties.m_streamType) {
err = pC->m_pAudioDecoder->m_pFctCreateAudioDec(
&pC->pAudioDecCtxt,
pC->pReaderAudioStream, &(pC->AacProperties));
} else {
err = pC->m_pAudioDecoder->m_pFctCreateAudioDec(
&pC->pAudioDecCtxt,
pC->pReaderAudioStream,
pC->m_pCurrentAudioDecoderUserData);
}
if (M4NO_ERROR != err) {
M4OSA_TRACE1_1(
"M4MCS_intCheckAndGetCodecProperties: m_pFctCreateAudioDec \
returns 0x%x", err);
return err;
}
pC->m_pAudioDecoder->m_pFctSetOptionAudioDec(pC->pAudioDecCtxt,
M4AD_kOptionID_3gpReaderInterface, (M4OSA_DataOption) pC->m_pReaderDataIt);
pC->m_pAudioDecoder->m_pFctSetOptionAudioDec(pC->pAudioDecCtxt,
M4AD_kOptionID_AudioAU, (M4OSA_DataOption) &pC->ReaderAudioAU);
if( pC->m_pAudioDecoder->m_pFctStartAudioDec != M4OSA_NULL ) {
err = pC->m_pAudioDecoder->m_pFctStartAudioDec(pC->pAudioDecCtxt);
if( M4NO_ERROR != err ) {
M4OSA_TRACE1_1(
"M4MCS_intCheckAndGetCodecProperties: m_pFctStartAudioDec \
returns 0x%x", err);
return err;
}
}
/**
* Allocate output buffer for the audio decoder */
outputBuffer.m_bufferSize =
pC->pReaderAudioStream->m_byteFrameLength
* pC->pReaderAudioStream->m_byteSampleSize
* pC->pReaderAudioStream->m_nbChannels;
if( outputBuffer.m_bufferSize > 0 ) {
outputBuffer.m_dataAddress =
(M4OSA_MemAddr8)M4OSA_32bitAlignedMalloc(outputBuffer.m_bufferSize \
*sizeof(short), M4MCS, (M4OSA_Char *)"outputBuffer.m_bufferSize");
if( M4OSA_NULL == outputBuffer.m_dataAddress ) {
M4OSA_TRACE1_0(
"M4MCS_intCheckAndGetCodecProperties():\
unable to allocate outputBuffer.m_dataAddress, returning M4ERR_ALLOC");
return M4ERR_ALLOC;
}
}
err = pC->m_pAudioDecoder->m_pFctStepAudioDec(pC->pAudioDecCtxt,
M4OSA_NULL, &outputBuffer, M4OSA_FALSE);
if ( err == M4WAR_INFO_FORMAT_CHANGE ) {
// Get the properties from codec node
pC->m_pAudioDecoder->m_pFctGetOptionAudioDec(pC->pAudioDecCtxt,
M4AD_kOptionID_AudioNbChannels, (M4OSA_DataOption) &optionValue);
// Reset Reader structure value also
pC->pReaderAudioStream->m_nbChannels = optionValue;
pC->m_pAudioDecoder->m_pFctGetOptionAudioDec(pC->pAudioDecCtxt,
M4AD_kOptionID_AudioSampFrequency, (M4OSA_DataOption) &optionValue);
// Reset Reader structure value also
pC->pReaderAudioStream->m_samplingFrequency = optionValue;
if (M4DA_StreamTypeAudioAac ==
pC->pReaderAudioStream->m_basicProperties.m_streamType) {
pC->AacProperties.aNumChan =
pC->pReaderAudioStream->m_nbChannels;
pC->AacProperties.aSampFreq =
pC->pReaderAudioStream->m_samplingFrequency;
}
} else if( err != M4NO_ERROR) {
M4OSA_TRACE1_1("M4MCS_intCheckAndGetCodecProperties:\
m_pFctStepAudioDec returns err = 0x%x", err);
}
free(outputBuffer.m_dataAddress);
// Reset the stream reader
err = pC->m_pReader->m_pFctReset(pC->pReaderContext,
(M4_StreamHandler *)pC->pReaderAudioStream);
if (M4NO_ERROR != err) {
M4OSA_TRACE1_1("M4MCS_intCheckAndGetCodecProperties\
Error in reseting reader: 0x%x", err);
}
return err;
}
M4OSA_ERR M4MCS_intLimitBitratePerCodecProfileLevel(
M4ENCODER_AdvancedParams* EncParams) {
M4OSA_ERR err = M4NO_ERROR;
switch (EncParams->Format) {
case M4ENCODER_kH263:
EncParams->Bitrate = M4MCS_intLimitBitrateForH263Enc(
EncParams->videoProfile,
EncParams->videoLevel, EncParams->Bitrate);
break;
case M4ENCODER_kMPEG4:
EncParams->Bitrate = M4MCS_intLimitBitrateForMpeg4Enc(
EncParams->videoProfile,
EncParams->videoLevel, EncParams->Bitrate);
break;
case M4ENCODER_kH264:
EncParams->Bitrate = M4MCS_intLimitBitrateForH264Enc(
EncParams->videoProfile,
EncParams->videoLevel, EncParams->Bitrate);
break;
default:
M4OSA_TRACE1_1("M4MCS_intLimitBitratePerCodecProfileLevel: \
Wrong enc format %d", EncParams->Format);
err = M4ERR_PARAMETER;
break;
}
return err;
}
M4OSA_Int32 M4MCS_intLimitBitrateForH264Enc(M4OSA_Int32 profile,
M4OSA_Int32 level, M4OSA_Int32 bitrate) {
M4OSA_Int32 vidBitrate = 0;
switch (profile) {
case OMX_VIDEO_AVCProfileBaseline:
case OMX_VIDEO_AVCProfileMain:
switch (level) {
case OMX_VIDEO_AVCLevel1:
vidBitrate = (bitrate > 64000) ? 64000 : bitrate;
break;
case OMX_VIDEO_AVCLevel1b:
vidBitrate = (bitrate > 128000) ? 128000 : bitrate;
break;
case OMX_VIDEO_AVCLevel11:
vidBitrate = (bitrate > 192000) ? 192000 : bitrate;
break;
case OMX_VIDEO_AVCLevel12:
vidBitrate = (bitrate > 384000) ? 384000 : bitrate;
break;
case OMX_VIDEO_AVCLevel13:
vidBitrate = (bitrate > 768000) ? 768000 : bitrate;
break;
case OMX_VIDEO_AVCLevel2:
vidBitrate = (bitrate > 2000000) ? 2000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel21:
vidBitrate = (bitrate > 4000000) ? 4000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel22:
vidBitrate = (bitrate > 4000000) ? 4000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel3:
vidBitrate = (bitrate > 10000000) ? 10000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel31:
vidBitrate = (bitrate > 14000000) ? 14000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel32:
vidBitrate = (bitrate > 20000000) ? 20000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel4:
vidBitrate = (bitrate > 20000000) ? 20000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel41:
vidBitrate = (bitrate > 50000000) ? 50000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel42:
vidBitrate = (bitrate > 50000000) ? 50000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel5:
vidBitrate = (bitrate > 135000000) ? 135000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel51:
vidBitrate = (bitrate > 240000000) ? 240000000 : bitrate;
break;
default:
vidBitrate = bitrate;
break;
}
break;
case OMX_VIDEO_AVCProfileHigh:
switch (level) {
case OMX_VIDEO_AVCLevel1:
vidBitrate = (bitrate > 80000) ? 80000 : bitrate;
break;
case OMX_VIDEO_AVCLevel1b:
vidBitrate = (bitrate > 160000) ? 160000 : bitrate;
break;
case OMX_VIDEO_AVCLevel11:
vidBitrate = (bitrate > 240000) ? 240000 : bitrate;
break;
case OMX_VIDEO_AVCLevel12:
vidBitrate = (bitrate > 480000) ? 480000 : bitrate;
break;
case OMX_VIDEO_AVCLevel13:
vidBitrate = (bitrate > 960000) ? 960000 : bitrate;
break;
case OMX_VIDEO_AVCLevel2:
vidBitrate = (bitrate > 2500000) ? 2500000 : bitrate;
break;
case OMX_VIDEO_AVCLevel21:
vidBitrate = (bitrate > 5000000) ? 5000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel22:
vidBitrate = (bitrate > 5000000) ? 5000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel3:
vidBitrate = (bitrate > 12500000) ? 12500000 : bitrate;
break;
case OMX_VIDEO_AVCLevel31:
vidBitrate = (bitrate > 17500000) ? 17500000 : bitrate;
break;
case OMX_VIDEO_AVCLevel32:
vidBitrate = (bitrate > 25000000) ? 25000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel4:
vidBitrate = (bitrate > 25000000) ? 25000000 : bitrate;
break;
case OMX_VIDEO_AVCLevel41:
vidBitrate = (bitrate > 62500000) ? 62500000 : bitrate;
break;
case OMX_VIDEO_AVCLevel42:
vidBitrate = (bitrate > 62500000) ? 62500000 : bitrate;
break;
case OMX_VIDEO_AVCLevel5:
vidBitrate = (bitrate > 168750000) ? 168750000 : bitrate;
break;
case OMX_VIDEO_AVCLevel51:
vidBitrate = (bitrate > 300000000) ? 300000000 : bitrate;
break;
default:
vidBitrate = bitrate;
break;
}
break;
default:
// We do not handle any other AVC profile for now.
// Return input bitrate
vidBitrate = bitrate;
break;
}
return vidBitrate;
}
M4OSA_Int32 M4MCS_intLimitBitrateForMpeg4Enc(M4OSA_Int32 profile,
M4OSA_Int32 level, M4OSA_Int32 bitrate) {
M4OSA_Int32 vidBitrate = 0;
switch (profile) {
case OMX_VIDEO_MPEG4ProfileSimple:
switch (level) {
case OMX_VIDEO_MPEG4Level0:
vidBitrate = (bitrate > 64000) ? 64000 : bitrate;
break;
case OMX_VIDEO_MPEG4Level0b:
vidBitrate = (bitrate > 128000) ? 128000 : bitrate;
break;
case OMX_VIDEO_MPEG4Level1:
vidBitrate = (bitrate > 64000) ? 64000 : bitrate;
break;
case OMX_VIDEO_MPEG4Level2:
vidBitrate = (bitrate > 128000) ? 128000 : bitrate;
break;
case OMX_VIDEO_MPEG4Level3:
vidBitrate = (bitrate > 384000) ? 384000 : bitrate;
break;
default:
vidBitrate = bitrate;
break;
}
break;
default:
// We do not handle any other MPEG4 profile for now.
// Return input bitrate
vidBitrate = bitrate;
break;
}
return vidBitrate;
}
M4OSA_Int32 M4MCS_intLimitBitrateForH263Enc(M4OSA_Int32 profile,
M4OSA_Int32 level, M4OSA_Int32 bitrate) {
M4OSA_Int32 vidBitrate = 0;
switch (profile) {
case OMX_VIDEO_H263ProfileBaseline:
switch (level) {
case OMX_VIDEO_H263Level10:
vidBitrate = (bitrate > 64000) ? 64000 : bitrate;
break;
case OMX_VIDEO_H263Level20:
vidBitrate = (bitrate > 128000) ? 128000 : bitrate;
break;
case OMX_VIDEO_H263Level30:
vidBitrate = (bitrate > 384000) ? 384000 : bitrate;
break;
default:
vidBitrate = bitrate;
break;
}
break;
default:
// We do not handle any other H263 profile for now.
// Return input bitrate
vidBitrate = bitrate;
break;
}
return vidBitrate;
}