bool PacketBuffer::GetPacket(Packet &packet)
{
// check packet
if (PacketVaild())
{
Packet *pPacket = (Packet *)raw();
//INFO("Has a Packet");
// block unnecessary packet
if (PreProcess())
{
// delete a packet
del(pPacket->GetPacketLen());
return false;
}
else
{
// copy packet
//packet = *pPacket; // this may dangerous
::memcpy(&packet, pPacket, pPacket->GetPacketLen());
del(pPacket->GetPacketLen());
return true;
}
}
return false;
}
BOOL MzBarDecoder::DecodeFromFile(PCTSTR FileName,BYTE* pcode, DWORD* pnsize, DECODEPARA_ptr pPara){
BOOL bRet = false;
if(FileName == NULL || pcode == NULL) return bRet;
DECODEPARA_t param;
if(pPara == NULL) {
param.dwThrehold = 128;
param.dwScanRegion.left = 0; param.dwScanRegion.right = m_dib.GetImageWidth();
param.dwScanRegion.top = 0; param.dwScanRegion.bottom = m_dib.GetImageHeight();
}else{
param.dwThrehold = pPara->dwThrehold;
param.dwScanRegion = pPara->dwScanRegion;
if(param.dwScanRegion.right == 0){
param.dwScanRegion.right = m_dib.GetImageWidth();
}
if(param.dwScanRegion.bottom == 0){
param.dwScanRegion.bottom = m_dib.GetImageHeight();
}
}
if(LoadImage(FileName)){
GrayImage(¶m.dwScanRegion);
BinaryImage(param.dwThrehold);
if(PreProcess()){
bRet = Recognize(pcode,pnsize);
}
}
return bRet;
}
bool ElMaxPlugin::ExportMeshAnim(LPCTSTR filename)
{
// Open the stream
outfile.open(filename);
if (!outfile.good())
return false;
// Set format of the stream
outfile << setprecision(4) << setiosflags(ios::fixed);
// Add bones to out bone list, in case some bone be
// exported as GeomObject
boneList.Clear();
PreProcess(ip->GetRootNode());
// Export global info
ExportGlobalInfo();
// Export animation of each object found in the scene
nodeEnumForAnim(ip->GetRootNode());
// Close the stream
outfile.close();
return true;
}
bool bgGlobalMax::Initialize(Interface* p3DMax)
{
m_p3DMax = p3DMax;
m_pRootNode = p3DMax->GetRootNode();
if (m_p3DMax == NULL && m_pRootNode == NULL)
return false;
if (CheckFile(m_p3DMax) == false)
return true;
m_Interval = m_p3DMax->GetAnimRange();
memset(&m_Scene, 0, sizeof(m_Scene));
m_Scene.iVersion = 100;
m_Scene.iFirstFrame = m_Interval.Start() / GetTicksPerFrame();
m_Scene.iLastFrame = m_Interval.End() / GetTicksPerFrame();
m_Scene.iFrameSpeed = GetFrameRate();
m_Scene.iTickPerFrame = GetTicksPerFrame();
PreProcess(m_pRootNode);
m_Scene.iNumMesh = m_MatrixMap.Count();
m_Scene.iMaxWeight = 1;
return true;
}
int main()
{
PreProcess("/home/cc/addNewFun/list.txt","/home/cc/addNewFun/Picture/");
FFmpeg2Video("/home/cc/addNewFun/Picture/");
ClearList("/home/cc/addNewFun/list.txt","/home/cc/addNewFun/Picture/");
return 0;
}
bool ElMaxPlugin::ExportSkeletalAnim(LPCTSTR filename)
{
// Open the stream
outfile.open(filename);
if (!outfile.good())
return false;
// Set format of the stream
outfile << setprecision(4) << setiosflags(ios::fixed);
// Export global info
ExportGlobalInfo();
// Add bones to out bone list
boneList.Clear();
PreProcess(ip->GetRootNode());
// Export list of animation
ExportSkeletalAnim();
// Close the stream
outfile.close();
return true;
}
bool PrePostProcessor::Process() {
if(!PreProcess()) return false;
if(!DoProcess()) return false;
if(!PostProcess()) return false;
return ProcessNextMethod();
}
bool bgDInput::Frame()
{
PreProcess();
KeyProcess();
MouseProcess();
return true;
}
void AscOut::PreProcess(INode* node, int& nodeCount)
{
nodeCount++;
// For each child of this node, we recurse into ourselves
// and increment the counter until no more children are found.
for (int c = 0; c < node->NumberOfChildren(); c++) {
PreProcess(node->GetChildNode(c), nodeCount);
}
}
Shader::Shader(const String& name, const String& source)
: m_Name(name), m_Source(source)
{
String** shaders = new String*[2];
shaders[0] = &m_VertexSource;
shaders[1] = &m_FragmentSource;
PreProcess(source, shaders);
m_ShaderID = Load(m_VertexSource, m_FragmentSource);
ResolveUniforms();
ValidateUniforms();
}
void XsiExp::PreProcess(INode* node, int& nodeCount)
{
nodeCount++;
// Add the nodes material to out material list
// Null entries are ignored when added...
mtlList.AddMtl(node->GetMtl());
// For each child of this node, we recurse into ourselves
// and increment the counter until no more children are found.
for (int c = 0; c < node->NumberOfChildren(); c++)
{
PreProcess(node->GetChildNode(c), nodeCount);
}
}
int CheckEndBuffer(char **ppcCheckPoint,char *pcSubName)//检测是否越界,并自动切换缓冲区，bufferL越界返回1，bufferR越界返回2，没有越界返回0
{
static char fcBuffer ='L';//初始化第一次扫描bufferl
int iTempOffset;//临时偏移量变量
fcBuffer=='L'?(iTempOffset=*ppcCheckPoint-acScanBufL):(iTempOffset=*ppcCheckPoint-acScanBufR);//计算偏移量
if(iTempOffset>=SBUFSIZE-1)//越界
{
if(fcBuffer=='L')
{
PreProcess(pcSubName);//装入Buffer
*ppcCheckPoint=acScanBufR;//修改当前的指示器到下一个缓冲区的开始
fcBuffer='R';//修改buffer标志，当前指针在bufferR中
return 1;//bufferL越界返回1
}
else
{
PreProcess(pcSubName);//装入Buffer
*ppcCheckPoint=acScanBufL;//修改当前的指示器到下一个缓冲区的开始
fcBuffer='L';//修改buffer标志，当前指针在bufferL中
return 2;//bufferR越界返回2
}
}
return 0;//没有越界返回0
}
void bgGlobalMax::PreProcess(INode* pNode)
{
if (pNode == NULL)
return;
AddObject(pNode);
AddMtl(pNode);
int iNumChildren = pNode->NumberOfChildren();
for (int iCnt = 0; iCnt < iNumChildren; iCnt++)
{
INode* pChild = pNode->GetChildNode(iCnt);
PreProcess(pChild);
}
}
void Parser::Do(Stream& in, const Vector<String>& ignore, CppBase& _base,
const String& p, const String& f) throw(Parser::Error)
{
base = &_base;
file = PreProcess(in);
lex = ~file.text;
lex.Ignore(ignore);
context.nesting.Clear();
context.nameing = "::";
context.access = PUBLIC;
context.typenames.Clear();
package = p;
filename = f;
lpos = 0;
line = 0;
Do();
}
bool CGenericProcessingMachine::Run(void)
{
if (!PreProcess()) return false;
//
bool result = true;
CString source_directory;
CString target_directory;
if (PSC().VarDefined(GPM_VAR_NAME_INDIR))
{
source_directory = CheckLastChar(PSC().VarNamed(GPM_VAR_NAME_INDIR).GetString(),'/');
PSC().VarNamed(GPM_VAR_NAME_INDIR).SetString(source_directory);
}
if (PSC().VarDefined(GPM_VAR_NAME_OUTDIR))
{
target_directory = CheckLastChar(PSC().VarNamed(GPM_VAR_NAME_OUTDIR).GetString(),'/');
PSC().VarNamed(GPM_VAR_NAME_OUTDIR).SetString(target_directory);
}
bool do_rename_outfile = ((!PSC().VarDefined(GPM_VAR_NAME_LIST))&&(PSC().VarDefined(GPM_VAR_NAME_OUT)));
bool do_create_outlist = ((PSC().VarDefined(GPM_VAR_NAME_LIST))&&(PSC().VarDefined(GPM_VAR_NAME_OUT)));
//if ((ILST().GetCount()>1)||(!PSC().VarDefined(GPM_VAR_NAME_OUT)))
for (int i = 0; i < ILST().GetCount(); i++)
{
m_FileIndex = i;
if (ILST().GetString(i).GetLength()==0) continue;
CString source_file_name = source_directory + ILST().GetString(i);
CString target_name = TargetName(i,ILST().GetString(i));
if (do_rename_outfile)
{
target_name = PSC().VarNamed(GPM_VAR_NAME_OUT).GetString();
}
CString target_file_name = target_directory + target_name;
result = result && ProcessFile(source_file_name,target_file_name);
if (!target_file_name.IsEmpty())
{
OLST().Insert(target_name);
}
}
if (do_create_outlist)
{
OLST().SaveToFile(PSC().VarNamed(GPM_VAR_NAME_OUT).GetString());
}
//
result = result && PostProcess();
return result;
}
// Classify
int imageNet::Classify( float* rgba, uint32_t width, uint32_t height, float* confidence )
{
// verify parameters
if( !rgba || width == 0 || height == 0 )
{
printf(LOG_TRT "imageNet::Classify( 0x%p, %u, %u ) -> invalid parameters\n", rgba, width, height);
return -1;
}
// downsample and convert to band-sequential BGR
if( !PreProcess(rgba, width, height) )
{
printf(LOG_TRT "imageNet::Classify() -- PreProcess() failed\n");
return -1;
}
return Classify(confidence);
}
//------------------------------------------------------------------------
// Pre-process the progress bar
//------------------------------------------------------------------------
void SMDExporter::PreProcess( INode* node,int& nodeCount )
{
Mtl* mtl = node->GetMtl();
if( !exportSelected || node->Selected() )
{
// The ObjectState is a 'thing' that flows down the pipeline containing
// all information about the object. By calling EvalWorldState() we tell
// max to evaluate the object at the end of pipeline
ObjectState os = node->EvalWorldState(0);
// The obj member of ObjectState is the actual
// object we will export
if( os.obj )
{
// We look at the superclassID to determin the type of the object
switch( os.obj->SuperClassID() )
{
case GEOMOBJECT_CLASS_ID:
// Add the materials to our material list!
// Only export the Material which have four colors
// and the Diffuse texMap.
if( (StdMat*)mtl )
{
mtlList.AddMtl( mtl );
}
nodeCount++;
break;
}
}
}
// Traverse the child nodes
for( int c=0;c<node->NumberOfChildren();c++ )
{
PreProcess( node->GetChildNode(c),nodeCount );
}
}
int GetToken(
char *pcToken)
/******************************************************************************/
/* get a token from the input file. Return a put back token if available */
/******************************************************************************/
{
int iResult;
if (bPutBackTokenValid == TRUE)
{
strcpy((char *) pcToken, (char *) pcPutBackToken);
bPutBackTokenValid = FALSE;
iResult = iPutBackTokenType;
}
else
{
iResult = GetNewToken(pcToken);
while (iResult == PRECOMPILER_TOKEN)
{
iResult = PreProcess(pcToken);
if (iResult == NO_SCANNER_ERROR)
{
iResult = GetNewToken(pcToken);
}
}
if (iResult == IDENTIFIER_TOKEN)
{
iResult = EvaluateMacroList(pcToken);
}
iPutBackTokenType = iResult;
}
strcpy((char *) pcPutBackToken, (char *) pcToken);
return iResult;
}
// Start the exporter!
// This is the real entrypoint to the exporter. After the user has selected
// the filename (and he's prompted for overwrite etc.) this method is called.
//
int XsiExp::DoExport( const TCHAR * name, ExpInterface * ei, Interface * i, BOOL suppressPrompts, DWORD options)
{
// Set a global prompt display switch
showPrompts = suppressPrompts ? FALSE : TRUE;
exportSelected = (options & SCENE_EXPORT_SELECTED) ? TRUE : FALSE;
// Grab the interface pointer.
ip = i;
int numChildren = ip->GetRootNode()->NumberOfChildren();
if (!numChildren)
{
return 1;
}
// Get the options the user selected the last time
ReadConfig();
if(showPrompts)
{
// Prompt the user with our dialogbox, and get all the options.
if (!DialogBoxParam(hInstance, MAKEINTRESOURCE(IDD_EXPORT_DLG),
ip->GetMAXHWnd(), ExportDlgProc, (LPARAM)this))
{
return 1;
}
}
else
{ // Set default parameters here
bIncludeAnim = TRUE;
bIncludeVertexColors = FALSE;
bAlwaysSample = FALSE;
nKeyFrameStep = 5;
nMeshFrameStep = 5;
nPrecision = 4;
nStaticFrame = 0;
}
sprintf(szFmtStr, "%%4.%df", nPrecision);
// Open the stream
pStream = _tfopen(name,_T("wt"));
if (!pStream)
{
return 0;
}
// Startup the progress bar.
ip->ProgressStart(GetString(IDS_PROGRESS_MSG), TRUE, fn, NULL);
// Get a total node count by traversing the scene
// We don't really need to do this, but it doesn't take long, and
// it is nice to have an accurate progress bar.
nTotalNodeCount = 0;
nCurNode = 0;
PreProcess(ip->GetRootNode(), nTotalNodeCount);
// First we write out a file header with global information.
ExportGlobalInfo();
// export meshes
for (int idx = 0; idx < numChildren; idx++)
{
if (ip->GetCancel())
{
break;
}
nodeEnumMesh( ip->GetRootNode()->GetChildNode(idx), 0);
}
for (idx = 0; idx < numChildren; idx++)
{
if (ip->GetCancel())
{
break;
}
nodeEnumBone( ip->GetRootNode()->GetChildNode(idx), 0);
}
// close brace for hierarchy
fprintf(pStream,"}\n\n");
if (bIncludeAnim)
{
int animHit = FALSE; // write anim list head only the first time
for (idx = 0; idx < numChildren; idx++)
{
if (ip->GetCancel())
{
break;
}
nodeEnumAnim( ip->GetRootNode()->GetChildNode(idx), animHit);
}
if (animHit)
{
fprintf(pStream,"}\n\n");
}
}
for (idx = 0; idx < numChildren; idx++)
{
if (ip->GetCancel())
{
break;
}
nodeEnumSkin( ip->GetRootNode()->GetChildNode(idx));
}
// We're done. Finish the progress bar.
ip->ProgressEnd();
// Close the stream
fclose(pStream);
// Write the current options to be used next time around.
WriteConfig();
return 1;
}
/*
* Source - main driver
*/
vi_rc Source( char *fn, char *data, int *ln )
{
undo_stack *atomic = NULL;
labels *lab, lb;
vlist vl;
files fi;
sfile *sf, *curr;
char tmp[MAX_SRC_LINE];
char sname[FILENAME_MAX];
vi_rc rc;
bool sicmp, wfb, ssa, exm;
resident *res;
int cTokenID;
/*
* startup
*/
LastRC = LastRetCode;
memset( &fi, 0, sizeof( fi ) );
vl.head = vl.tail = NULL;
res = residentScript( fn );
if( res != NULL && EditFlags.LoadResidentScript ) {
return( ERR_SCRIPT_ALREADY_RESIDENT );
}
if( EditFlags.CompileScript || res == NULL ) {
lab = &lb;
memset( lab, 0, sizeof( labels ) );
sf = NULL;
} else {
lab = &res->lab;
sf = res->sf;
}
if( EditFlags.CompileScript ) {
sname[0] = 0;
NextWord1( data, sname );
}
/*
* initialize variables
*/
memset( &fi, 0, sizeof( fi ) );
rc = initSource( &vl, data );
if( rc != ERR_NO_ERR ) {
return( rc );
}
/*
* pre-process
*/
sicmp = EditFlags.ScriptIsCompiled;
SourceErrCount = 0;
if( EditFlags.CompileScript || res == NULL ) {
EditFlags.ScriptIsCompiled = FALSE;
rc = PreProcess( fn, &sf, lab );
finiSourceErrFile( fn );
if( rc != ERR_NO_ERR || SourceErrCount > 0 ) {
EditFlags.ScriptIsCompiled = sicmp;
return( rc );
}
} else {
EditFlags.ScriptIsCompiled = res->scriptcomp;
}
/*
* if we were loading a resident script, then add it
*/
if( EditFlags.LoadResidentScript ) {
finiSource( NULL, &vl, NULL, NULL );
if( SourceErrCount == 0 ) {
addResidentScript( fn, sf, lab );
}
EditFlags.ScriptIsCompiled = sicmp;
return( ERR_NO_ERR );
}
/*
* if we were compiling, dump results and go back
*/
if( EditFlags.CompileScript ) {
rc = barfScript( fn, sf, &vl, ln, sname );
finiSource( lab, &vl, sf, NULL );
return( rc );
}
/*
* process each source line
*/
exm = EditFlags.ExMode;
wfb = EditFlags.WatchForBreak;
ssa = EditFlags.SourceScriptActive;
EditFlags.SourceScriptActive = TRUE;
EditFlags.WatchForBreak = TRUE;
EditFlags.ExMode = TRUE;
curr = sf->next;
while( curr != NULL ) {
cTokenID = curr->token - SRC_T_NULL - 1;
if( !EditFlags.Starting ) {
if( EditFlags.BreakPressed ) {
ClearBreak();
break;
}
}
rc = LastError = ERR_NO_ERR;
if( curr->data != NULL ) {
strcpy( tmp, curr->data );
} else {
tmp[0] = 0;
}
if( EditFlags.Appending ) {
if( curr->hasvar) {
Expand( tmp, &vl );
}
rc = AppendAnother( tmp );
goto evil_continue;
}
if( cTokenID == PCL_T_ENDFILETYPESOURCE ) {
rc = FTSEnd();
goto evil_continue;
}
if( EditFlags.FileTypeSource ) {
rc = FTSAddCmd( tmp, curr->token );
goto evil_continue;
}
if( curr->token > SRC_T_NULL ) {
if( curr->hasvar) {
Expand( tmp, &vl );
}
rc = TryCompileableToken( cTokenID, tmp, FALSE, 0 );
if( rc == NOT_COMPILEABLE_TOKEN ) {
rc = ProcessWindow( cTokenID, tmp );
}
if( rc < ERR_NO_ERR ) {
rc = ERR_NO_ERR;
}
} else switch( curr->token ) {
case SRC_T_ATOMIC:
if( atomic == NULL ) {
atomic = UndoStack;
StartUndoGroup( atomic );
}
break;
case SRC_T_IF:
rc = SrcIf( &curr, &vl );
break;
case SRC_T_GOTO:
rc = SrcGoTo( &curr, tmp, lab );
break;
case SRC_T_LABEL:
break;
case SRC_T_RETURN:
if( curr->data != NULL ) {
int ret;
GetErrorTokenValue( &ret, curr->data );
rc = ret;
} else {
rc = ERR_NO_ERR;
}
goto evil_exit;
case SRC_T_GET:
SrcGet( tmp, &vl );
rc = ERR_NO_ERR;
break;
case SRC_T_INPUT:
LastRC = SrcInput( tmp, &vl );
if( LastRC != NO_VALUE_ENTERED && LastRC != ERR_NO_ERR ) {
rc = LastRC;
}
break;
case SRC_T_NEXTWORD:
rc = SrcNextWord( tmp, &vl );
break;
case SRC_T_ASSIGN:
rc = SrcAssign( tmp, &vl );
break;
case SRC_T_EXPR:
rc = SrcExpr( curr, &vl );
break;
case SRC_T_OPEN:
LastRC = SrcOpen( curr, &vl, &fi, tmp );
if( LastRC != ERR_FILE_NOT_FOUND && LastRC != ERR_NO_ERR ) {
rc = LastRC;
}
break;
case SRC_T_READ:
LastRC = SrcRead( curr, &fi, tmp, &vl );
if( LastRC != END_OF_FILE && LastRC != ERR_NO_ERR ) {
rc = LastRC;
}
break;
case SRC_T_WRITE:
rc = SrcWrite( curr, &fi, tmp, &vl );
break;
case SRC_T_CLOSE:
rc = SrcClose( curr, &vl, &fi, tmp );
break;
default:
#ifdef __WIN__
{
if( RunWindowsCommand( tmp, &LastRC, &vl ) ) {
rc = LastRC;
break;
}
}
#endif
if( curr->hasvar ) {
Expand( tmp, &vl );
}
LastRC = RunCommandLine( tmp );
if( LastRC == DO_NOT_CLEAR_MESSAGE_WINDOW ) {
LastRC = LastError;
}
break;
}
evil_continue:
if( rc != ERR_NO_ERR ) {
break;
}
curr = curr->next;
}
evil_exit:
if( EditFlags.Appending ) {
AppendAnother( "." );
}
if( curr != NULL ) {
*ln = curr->line;
} else {
*ln = CurrentSrcLine;
rc = ERR_NO_ERR;
}
EditFlags.WatchForBreak = wfb;
EditFlags.SourceScriptActive = ssa;
EditFlags.ScriptIsCompiled = sicmp;
EditFlags.ExMode = exm;
if( res != NULL && !EditFlags.CompileScript ) {
sf = NULL;
lab = NULL;
}
finiSource( lab, &vl, sf, atomic );
return( rc );
} /* Source */
BOOL CShockWaveEffect::Process(FLOAT time)
{
FLOAT fDeltaTime, fProcessedTime;
BOOL bRet, bRender;
if(!PreProcess(time, bRet, bRender, fDeltaTime, fProcessedTime))
{
if(!bRender) SetNotRenderAtThisFrame();
return bRet;
}
//color 정보
FLOAT fadeVal = this->GetFadeValue(fProcessedTime);
if(fadeVal == 1.0f && m_bColorWhite)
{
//nothing
}
else
{
m_vectorGFXColor.clear();
m_vectorGFXColor.reserve(m_iSplitCount*2);
UBYTE ubColElement = UBYTE(255.0f * fadeVal);
GFXColor col;
if( m_eBlendType == PBT_BLEND || m_eBlendType == PBT_ADDALPHA )
{
col = 0xFFFFFF00 | ubColElement; //fade by alpha
}
else if( m_eBlendType == PBT_ADD )
{
col = (ubColElement << 24) | (ubColElement << 16) | (ubColElement << 8) | 0x000000FF; //fade by color
}
else col = 0xFFFFFFFF; //fade 의미 없음.
for(INDEX i=0; i<m_iSplitCount; ++i)
{
m_vectorGFXColor.push_back(col);
m_vectorGFXColor.push_back(col);
}
}
//wave 정보
m_ssHeight.Prepare();
FLOAT3D height(0, m_ssHeight.Value(fProcessedTime), 0);
FLOAT radiusInner = 0, radiusOuter = 0;
m_ssRadius.Prepare();
m_ssWidth.Prepare();
if(m_bInnerBasis)
{
radiusInner = m_ssRadius.Value(fProcessedTime);
radiusOuter = radiusInner + m_ssWidth.Value(fProcessedTime);
}
else
{
radiusOuter = m_ssRadius.Value(fProcessedTime);
radiusInner = radiusOuter - m_ssWidth.Value(fProcessedTime);
}
//tag의 정보
if(m_ePosition == EOTT_ALWAYS) m_vTagPos = m_ptrAttachTag->CurrentTagInfo().m_vPos;
if(m_eRotation == EOTT_ALWAYS) m_qTagRot = m_ptrAttachTag->CurrentTagInfo().m_qRot;
//gfx vertex fill, every frame
GFXVertex vtx;
FLOAT3D pos;
const FLOAT angleUnit = 2 * PI / m_iSplitCount;
FLOAT angle = 0;
INDEX index = 0;
m_vectorGFXVertex.clear();
m_vectorGFXColor.reserve(m_iSplitCount*2);
for(INDEX i=0; i<m_iSplitCount; ++i)
{
index = 2*i+0;
pos = m_vectorMoveVector[index] * radiusOuter + height;
RotateVector(pos, m_qTagRot);
pos += m_vTagPos;
vtx.x = pos(1); vtx.y = pos(2); vtx.z = pos(3);
m_vectorGFXVertex.push_back(vtx);
++index;
pos = m_vectorMoveVector[index] * radiusInner;
RotateVector(pos, m_qTagRot);
pos += m_vTagPos;
vtx.x = pos(1); vtx.y = pos(2); vtx.z = pos(3);
m_vectorGFXVertex.push_back(vtx);
angle += angleUnit;
}
PostProcess();
return TRUE;
}
int main(int argc, const char* argv[])
{
mutl::ArgumentParser parser;
if( false == parser.Initialize(argc, argv, descs, sizeof(descs)/sizeof(Desc))
|| parser.IsEnabled("h")
|| parser.GetArgumentCount() < 2 )
{
usage(param);
return 0;
}
param.upperValue = 32767.0;
param.optimize = false;
param.optimizeSeparately = false;
param.outputLog = false;
param.inputLength = -1;
param.inputFilepath = parser.GetArgument(0);
param.referenceFilepath = parser.GetArgument(1);
size_t& tapps = param.tapps;
tapps = 256;
if (parser.IsEnabled("m"))
{
tapps = atoi( parser.GetOption("m").c_str() );
}
if ( tapps < 1 )
{
ERROR_LOG("tapps (an argument of \"-m\" swtich) must be larger than 0: %d\n", static_cast<int>(tapps) );
return 0;
}
if (parser.IsEnabled("c"))
{
param.upperValue = atof( parser.GetOption("c").c_str() );
if (param.upperValue <= 0.0)
{
ERROR_LOG("The specified value with -c (%f) must be positive.\n", param.upperValue);
return 0;
}
}
if (parser.IsEnabled("l"))
{
param.inputLength = atoi( parser.GetOption("l").c_str() );
if (param.inputLength < 1)
{
ERROR_LOG("The specified value with -l (%d) must be positive.\n", static_cast<int>(param.inputLength) );
return 0;
}
}
if (parser.IsEnabled("opt"))
{
param.optimize = true;
}
if (parser.IsEnabled("sep"))
{
param.optimizeSeparately = true;
}
if (parser.IsEnabled("log"))
{
param.outputLog = true;
}
std::string outputPrefix;
if (parser.IsEnabled("o"))
{
outputPrefix = parser.GetOption("o");
}
else
{
mutl::NodePath _inputPath(param.inputFilepath);
mutl::NodePath _referencePath(param.referenceFilepath);
char tappsString[11];
sprintf(tappsString, "%d", static_cast<int>(tapps));
outputPrefix = std::string("./Af_")
+ std::string(tappsString)
+ std::string("tapps_")
+ _inputPath.GetBasename()
+ std::string("_")
+ _referencePath.GetBasename();
}
std::string outdir("./");
if ( parser.IsEnabled("d") )
{
outdir = parser.GetOption("d");
outdir += std::string("/");
}
param.outputBase = outdir + outputPrefix;
// Display messages real-time
setvbuf(stdout, NULL, _IONBF, 0);
LOG("Input: %s\n", param.inputFilepath.c_str());
LOG("Reference: %s\n", param.referenceFilepath.c_str());
LOG("Tapps: %d\n", static_cast<int>(tapps) );
LOG("Clamped Value: %g\n", param.upperValue);
LOG("\n");
status_t status;
status = Setup(¶m);
if ( NO_ERROR != status )
{
ERROR_LOG("Failed in Startup(): %d\n", status);
return 0;
}
LOG("[Input]\n");
LOG(" File : %s\n", param.inputFilepath.c_str());
LOG(" SamplingRate: %d\n", static_cast<int>(param.samplingRate) );
LOG(" Length : %d\n", static_cast<int>(param.inputSignal.GetColumnLength()) );
LOG("\n");
LOG("[Reference]\n");
LOG(" File : %s\n", param.referenceFilepath.c_str());
LOG(" Length: %d\n", static_cast<int>(param.referenceSignal.GetLength()));
LOG("\n");
status = PreProcess(¶m);
if ( NO_ERROR != status )
{
ERROR_LOG("Failed in PreProcess(): %d\n", status);
return 0;
}
status = Process(¶m);
if ( NO_ERROR != status )
{
ERROR_LOG("Failed in Estimater(): %d\n", status);
return 0;
}
status = PostProcess(¶m);
if ( NO_ERROR != status )
{
ERROR_LOG("Failed in PostProcess(): %d\n", status);
return 0;
}
status = Cleanup(¶m);
if ( NO_ERROR != status )
{
ERROR_LOG("Failed in Cleanup(): %d\n", status);
return 0;
}
return 0;
}
// Create the model from an X-File, returns true on success
bool CMesh::Load( const string& fileName )
{
// Create a X-File import helper class
CImportXFile importFile;
// Add media folder path
string fullFileName = MediaFolder + fileName;
// Check that the given file is an X-file
if (!importFile.IsXFile( fullFileName ))
{
return false;
}
// Import the file, return on failure
EImportError error = importFile.ImportFile( fullFileName );
if (error != kSuccess)
{
if (error == kFileError)
{
string errorMsg = "Error loading mesh " + fullFileName;
SystemMessageBox( errorMsg.c_str(), "Mesh Error" );
}
return false;
}
// Release any existing geometry
if (m_HasGeometry)
{
ReleaseResources();
}
// Get node data from import class
m_NumNodes = importFile.GetNumNodes();
m_Nodes = new SMeshNode[m_NumNodes];
if (!m_Nodes)
{
return false;
}
for (TUInt32 node = 0; node < m_NumNodes; ++node)
{
importFile.GetNode( node, &m_Nodes[node] );
}
// Get submesh data from import class - convert to DirectX data for rendering
// but retain original data for easy access to vertices / faces
TUInt32 requiredSubMeshes = importFile.GetNumSubMeshes();
m_SubMeshes = new SSubMesh[requiredSubMeshes];
m_SubMeshesDX = new SSubMeshDX[requiredSubMeshes];
if (!m_SubMeshes || !m_SubMeshesDX)
{
ReleaseResources();
return false;
}
for (m_NumSubMeshes = 0; m_NumSubMeshes < requiredSubMeshes; ++m_NumSubMeshes)
{
// Determine if the render method for this mesh needs tangents
ERenderMethod meshMethod = importFile.GetSubMeshRenderMethod( m_NumSubMeshes );
bool needTangents = RenderMethodUsesTangents( meshMethod );
importFile.GetSubMesh( m_NumSubMeshes, &m_SubMeshes[m_NumSubMeshes], needTangents );
if (!CreateSubMeshDX( m_SubMeshes[m_NumSubMeshes], &m_SubMeshesDX[m_NumSubMeshes] ))
{
ReleaseResources();
return false;
}
}
// Get material data from import class, also load textures
TUInt32 requiredMaterials = importFile.GetNumMaterials();
m_Materials = new SMeshMaterialDX[requiredMaterials];
if (!m_Materials)
{
ReleaseResources();
return false;
}
for (m_NumMaterials = 0; m_NumMaterials < requiredMaterials; ++m_NumMaterials)
{
SMeshMaterial importMaterial;
importFile.GetMaterial( m_NumMaterials, &importMaterial );
if (!CreateMaterialDX( importMaterial, &m_Materials[m_NumMaterials] ))
{
ReleaseResources();
return false;
}
}
// Geometry pre-processing - just calculating bounding box in this example
if (!PreProcess())
{
ReleaseResources();
return false;
}
m_HasGeometry = true;
return true;
}
//------------------------------------------------------------------------
// Name: DoExport()
// Desc: Start the exporter!
//------------------------------------------------------------------------
int SMDExporter::DoExport( const TCHAR* name,ExpInterface* ei,Interface* i,
BOOL suppressPrompts,DWORD options )
{
// Set a global prompt display switch
showPrompts = suppressPrompts ? FALSE : TRUE;
exportSelected = (options & SCENE_EXPORT_SELECTED) ? TRUE : FALSE;
// Store the Interface pointer
m_ip = i;
m_sFilename = name;
if( showPrompts )
{
// If user click "Cancel" then exit the plug-in
if( !DialogBoxParam(hInstance,"SMDExporterDlg",m_ip->GetMAXHWnd(),ExporterDlgProc,(LPARAM)this) )
return TRUE;
}
// Open a file to write data
m_pFile = fopen( name,"wb" );
if( !m_pFile ) return FALSE;
// Startup the progress bar.
m_ip->ProgressStart( GetString(IDS_PROGRESS_MSG),TRUE,fn,NULL );
// Get the total node count by traversing the scene
// It's nice to have a accurate progress bar
m_nTotalNodeCount = 0;
m_nCurNode = 0;
PreProcess( m_ip->GetRootNode(),m_nTotalNodeCount );
// Call our node Enumerator.
// The nodeEnum function will recourse itself and
// Export each object found in the scene
int numChildren = m_ip->GetRootNode()->NumberOfChildren();
fputc( 'S',m_pFile );
fputc( 'M',m_pFile );
fputc( 'D',m_pFile );
fputc( '\0',m_pFile );
ExportBinaryHeader();
// Check the count of mesh
m_nNumMeshes = m_nTotalNodeCount;
m_pMeshes = new SMDMESH[m_nNumMeshes];
memset( m_pMeshes,0,sizeof(SMDMESH)*m_nNumMeshes );
for( int c=0;c<numChildren;c++ )
{
if( m_ip->GetCancel() ) break;
nodeEnum( m_ip->GetRootNode()->GetChildNode(c) );
}
// Exported all datas, Close the file
m_ip->ProgressEnd();
fclose( m_pFile );
// Clean up the memory
CleanUpMem();
return TRUE;
}
struct sBinaryRelation LexicalAnalyzer(char *pcSubName)//词法分析器
{
static char fcFirst='Y';
//初始化扫描指示器为第一个元素
static char *fpcStart;
char **fppcStart=&fpcStart;//取fpcstart的地址
static char *fpcSerching;
char **fppcfpcSerching=&fpcSerching;//取fpcSerching的地址
static int iLine=1;//记录当前的行数
int *piLine=&iLine;//指向行数的指针
struct sBinaryRelation sTempResult;//存放返回结果
if(fcFirst=='Y')//第一次调用装入bufferl
{
PreProcess(pcSubName);
fcFirst='N';
fpcStart=acScanBufL;//将start和serch都指向第一个地址
}
while(*fpcStart==0x20)
{
if(!CheckEndBuffer(fppcStart,pcSubName)) fpcStart++;//检查是否越界,若没越界将start指针指向一个不为空格的字符
}
fpcSerching=fpcStart;//serching指向start
//fpcSerching++;//serching指向start的下一个位置
while(*fpcSerching!=0x00)
{
if(CheckNewLine(*fpcStart,piLine))//检查回车，记录行数加一
{
//待扩建是否将\n也算作标识符
fpcStart++;
fpcSerching=fpcStart;//serching指向start
}
else if(isalpha(*fpcStart))//第一个字符是字母，为关键字
{
char cTempResult[SBUFSIZE]={0};
char *pcCurrent=cTempResult;
//检查是否为变量或关键字
while(isalnum(*fpcSerching))//下一个是字符或数字
{
//if(isspace(*fpcSerching)) break;//若为空格结束
*(pcCurrent++)=*fpcSerching;//将字符保存到临时数组，并且指针后移
if(!CheckEndBuffer(fppcfpcSerching,pcSubName)) fpcSerching++; //检查是否越界,若没越界将serching++
}//循环完成时fpceSerching指向当前标识符的下一个位置
//将start和serching重合
fpcStart=fpcSerching;
//返回当前的标识符放到结构体中
int KeyWordScript;//关键字的下标
if((KeyWordScript=CheckKeyWords(cTempResult))!=0)//检查是否为关键字还是普通变量
{
sTempResult.iId=0;//标志符置为0，关键字的下标
sTempResult.iSubScript=KeyWordScript;
sTempResult.acTempValName[0]='\0';//赋值
}
else//普通变量
{
sTempResult.iId=1;//单词为变量
int i=-1;
while(cTempResult[++i]!='\0')//将变量的值赋给变量名字数组
{
sTempResult.acTempValName[i]=cTempResult[i];
}
sTempResult.acTempValName[i]=cTempResult[i];//赋值个'\0'
sTempResult.iSubScript=0;//赋值
}
//返回结构体
return sTempResult;
}
else if(isdigit(*fpcStart))//如果是数字常量
{
int iTemp=0;
while(*fpcSerching!=0x20)//下面字符都要是数字
{
if((!isdigit(*fpcSerching))&&(isalpha(*fpcSerching)))//若后面是字幕或者不是操作符
{
printf("词法分析：");
Error(iLine);//不是数字报错
printf(" %d %c非法字符\n",iTemp,*fpcSerching);
}
iTemp=iTemp*10+int(*fpcSerching-0x30);//将数字字符转化为整形
if(!CheckEndBuffer(fppcfpcSerching,pcSubName)) fpcSerching++; //检查是否越界,若没越界将serching++
//判断是否是；若下一个字符是分号或者操作符就结束
if(*fpcSerching==';') break;
if(CheckOperate(*fpcSerching)) break;
}
//循环完成时fpceSerching指向当前标识符的下一个位置
fpcStart=fpcSerching;//将start和serching重合
//返回当前的标识符放到结构体中
sTempResult.iId=2;
sTempResult.iSubScript=iTemp;
sTempResult.acTempValName[0]='\0';//赋值
return sTempResult;
}
else if(CheckOperate(*fpcStart)) //判断运算符
{
int iTempOperateOffset;//记录标识符下标
iTempOperateOffset=CheckOperate(*fpcStart);
//不需要因为serching本来就在start的下一个fpceSerching++;
if(!CheckEndBuffer(fppcStart,pcSubName)) fpcStart=++fpcSerching;//检查serching是否越界,若没越界将start和serching重合
//返回当前的标识符放到结构体中
sTempResult.iId=3;
sTempResult.iSubScript=iTempOperateOffset;
sTempResult.acTempValName[0]='\0';//赋值
return sTempResult;
}
else
{
printf("词法分析：");
Error(iLine);//不是数字报错
printf(" %c非法字符\n",*fpcSerching);
exit(1);//退出程序
}
}
if(*fpcSerching!=0) printf("词法分析：未知错误\n");//若不为结束符，显示未知错误
exit(1);//失败返回空
}
// Start the exporter!
// This is the real entrypoint to the exporter. After the user has selected
// the filename (and he's prompted for overwrite etc.) this method is called.
int AscOut::DoExport(const TCHAR *name,ExpInterface *ei,Interface *i, BOOL suppressPrompts, DWORD options)
{
// Set a global prompt display switch
showPrompts = suppressPrompts ? FALSE : TRUE;
exportSelected = (options & SCENE_EXPORT_SELECTED) ? TRUE : FALSE;
// Grab the interface pointer.
ip = i;
// Get the options the user selected the last time
ReadConfig();
if(showPrompts) {
// Prompt the user with our dialogbox, and get all the options.
if (!DialogBoxParam(hInstance, MAKEINTRESOURCE(IDD_ASCOUT_DLG),
ip->GetMAXHWnd(), ExportDlgProc, (LPARAM)this)) {
return 1;
}
}
sprintf(szFmtStr, "%%4.%df", nPrecision);
// Open the stream
pStream = _tfopen(name,_T("wt"));
if (!pStream) {
return 0;
}
// Startup the progress bar.
ip->ProgressStart(GetString(IDS_PROGRESS_MSG), TRUE, fn, NULL);
// Get a total node count by traversing the scene
// We don't really need to do this, but it doesn't take long, and
// it is nice to have an accurate progress bar.
nTotalNodeCount = 0;
nCurNode = 0;
PreProcess(ip->GetRootNode(), nTotalNodeCount);
// First we write out a file header with global information.
ExportGlobalInfo();
int numChildren = ip->GetRootNode()->NumberOfChildren();
// Call our node enumerator.
// The nodeEnum function will recurse into itself and
// export each object found in the scene.
for (int idx=0; idx<numChildren; idx++) {
if (ip->GetCancel())
break;
nodeEnum(ip->GetRootNode()->GetChildNode(idx), 0);
}
// We're done. Finish the progress bar.
ip->ProgressEnd();
// Close the stream
fclose(pStream);
// Write the current options to be used next time around.
WriteConfig();
return 1;
}
void sseConcurrentContextGuard::Render(sseGrafxInterface *pRenderer)
{
PreProcess(pRenderer, m_pTextureLoader);
DrawObject(pRenderer, m_pTextureLoader);
PostProcess(pRenderer, m_pTextureLoader);
}