MatrixMxN<Scalar>::MatrixMxN(unsigned int rows, unsigned int cols, Scalar *entries)
{
allocMemory(rows,cols);
for(unsigned int i = 0; i < rows; ++i)
for(unsigned int j = 0; j < cols; ++j)
(*this)(i,j) = entries[i*cols+j];
}
MultiLayerNet *MultiLayerFactory::createFromInfo(const BuildInfo &newInfo) {
currentMode = 1;
MultiLayerNet *bpNewNet = 0;
nnInfo = newInfo;
bpNewNet = allocMemory(bpNewNet);
return bpNewNet;
}
MatrixMxN<Scalar>::MatrixMxN(unsigned int rows, unsigned int cols, Scalar value)
{
allocMemory(rows,cols);
for(unsigned int i = 0; i < rows; ++i)
for(unsigned int j = 0; j < cols; ++j)
(*this)(i,j) = value;
}
void parseAndLoadArgs(unsigned int procID,char *string)
{
struct taskStruct *t;
t=getTask(procID);
if(t==0)
return;
t->argv=(char **)(t->dataSegmentBase+t->dataSegmentSize);
/*
unsigned int tmp=t->dataSegmentBase+t->dataSegmentSize+4;
allocMemory(procID,t->argv+user_start,5+4+1000);
memcpyToTask( &tmp, 4,user_start+t->dataSegmentBase+t->dataSegmentSize,procID );
memcpyToTask( "test\0", 5,user_start+t->dataSegmentBase+t->dataSegmentSize+4,procID );
t->dataSegmentSize+=4+5;
*/
int n=parseArgsNum(string);
t->argc=n;
unsigned int *array=kmalloc(4*n);
char *buffer=kmalloc(strlen(string)+1);
unsigned int c,i=0,d=0;
char apice=0;
for(c=0; c<strlen(string); c++)
{
if(string[c]==' ')
break;
}
if(c==strlen(string) || c+1==strlen(string))
{
t->argc=0;
kfree(array);
kfree(buffer);
return;
}
for(; c<strlen(string); c++)
{
if(string[c]=='\'')
{
apice=!apice;
continue;
}
if(string[c]==' ' && !apice)
{
array[i]=t->dataSegmentBase+t->dataSegmentSize+(4*n)+d+1;
i++;
}
else
{
buffer[d]=string[c];
buffer[d+1]=0;
}
d++;
}
allocMemory(procID,user_start+t->dataSegmentBase+t->dataSegmentSize,(4*n)+d+1);
memcpyToTask( (char*)array, 4*n,(char*)(user_start+t->dataSegmentBase+t->dataSegmentSize),procID );
memcpyToTask( buffer, d+1,(char*)(user_start+t->dataSegmentBase+t->dataSegmentSize+(4*n)),procID );
t->dataSegmentSize+=(4*n)+d+1;
kfree(array);
kfree(buffer);
}
Error_t CFft::init( int iBlockLength, int iZeroPadFactor, WindowFunction_t eWindow /*= kWindowHann*/, Windowing_t eWindowing /*= kPreWindow*/ )
{
Error_t rErr = kNoError;
// sanity check
if (!CUtil::isPowOf2(iBlockLength) || iZeroPadFactor <= 0 || !CUtil::isPowOf2(iBlockLength*iZeroPadFactor))
return kFunctionInvalidArgsError;
// clean up
reset();
m_iDataLength = iBlockLength;
m_iFftLength = iBlockLength * iZeroPadFactor;
m_ePrePostWindowOpt = eWindowing;
rErr = allocMemory ();
if (rErr)
return rErr;
rErr = computeWindow (eWindow);
m_bIsInitialized = true;
return rErr;
}
void openTrace(void)
{
if(traceFlag) return;
traceFlag = TRACE_TRUE;
currentFunc = nilSymbol;
debugStackIdx = 0;
debugStack = (UINT *)allocMemory(MAX_CPU_STACK * 2 * sizeof(UINT));
}
u32 allocMemoryInPage(u32 size)
{
if (size>0) {
size = (size+0xfff)&0xfffff000;
return allocMemory(size);
}
return 0;
}
void MatrixMxN<Scalar>::resize(unsigned int new_rows, unsigned int new_cols)
{
#ifdef PHYSIKA_USE_EIGEN_MATRIX
(*ptr_eigen_matrix_MxN_).resize(new_rows,new_cols);
#elif defined(PHYSIKA_USE_BUILT_IN_MATRIX)
delete[] data_;
allocMemory(new_rows, new_cols);
#endif
}
StartButton *createStartButton(int x, int y, int w, int h, u32 sector)
{
StartButton *startButton = (StartButton *)allocMemory(sizeof(StartButton));
startButton = (StartButton*)initWithViewFunction((View*)startButton, x, y, w, h);
(*startButton).initWithImage = initWithImage;
Image *image = loadImageFromStorage(sector);
(*startButton).initWithImage(startButton, image);
return startButton;
}
void CThreadError::operator=(thread_error_t & st)
{
unsigned int tid = CLightThread::GetCurrentThreadId();
internal_thread_error_t *temp = search(tid);
if(!temp)
{
temp = allocMemory(tid);
}
memcpy(&temp->threaderror, &st, sizeof(thread_error_t));
}
VectorND<Scalar>::VectorND(const VectorND<Scalar> &vec2)
#ifdef PHYSIKA_USE_EIGEN_VECTOR
:eigen_vector_Nx_(vec2.eigen_vector_Nx_)
#endif
{
#ifdef PHYSIKA_USE_BUILT_IN_VECTOR
allocMemory(vec2.dims());
*this = vec2;
#endif
}
extern struct Deque *
deque_createDeque()
{
struct Deque *deque;
deque = (struct Deque *) allocMemory(1, sizeof (struct Deque));
if (!deque) return (struct Deque *) 0;
deque->first = deque->last = (struct DequeEntry *) 0;
return deque;
}
GraphPanel *createGraphPanel(int x, int y, int w, int h)
{
GraphPanel *graphPanel = (GraphPanel *)allocMemory(sizeof(GraphPanel));
graphPanel = (GraphPanel*)initWithViewFunction((View*)graphPanel, x, y, w, h);
(*graphPanel).canvas = createView(x, y, w, h);
(*graphPanel).initPanel = initGraphPanel;
(*graphPanel).initPanel(graphPanel);
(*graphPanel).view.onMouseDown = onMouseDown;
return graphPanel;
}
void CThreadError::operator=(const char * msg)
{
unsigned int tid = CLightThread::GetCurrentThreadId();
internal_thread_error_t *temp = search(tid);
if(!temp)
{
temp = allocMemory(tid);
}
temp->threaderror.errorno = GX_UNDEFINED;
gxstrcpy(temp->threaderror.errormsg, 510, msg);
}
void CThreadError::operator=(int errorno)
{
unsigned int tid = CLightThread::GetCurrentThreadId();
internal_thread_error_t *temp = search(tid);
if(!temp)
{
temp = allocMemory(tid);
}
temp->threaderror.errorno = errorno;
temp->threaderror.errormsg[0] = '\0';
}
MultiLayerNet *MultiLayerFactory::createFromFile(const QString &filename) {
currentMode = 0;
MultiLayerNet *bpNewNet = 0;
parseFile(filename);
bpNewNet = allocMemory(bpNewNet);
if (recArea != "")
bpNewNet->setRecArea(recArea);
return bpNewNet;
}
VectorND<Scalar>::VectorND(unsigned int dim, Scalar value)
#ifdef PHYSIKA_USE_EIGEN_VECTOR
:eigen_vector_Nx_(dim)
#endif
{
#ifdef PHYSIKA_USE_BUILT_IN_VECTOR
allocMemory(dim);
#endif
for(unsigned int i = 0; i < dim; ++i)
(*this)[i] = value;
}
int main()
{
long long *numPtr;
// 단일 포인터 long long *numPtr의 메모리 주소는 long long **와 같음, 할당할 크기도 넣음
allocMemory(&numPtr, sizeof(long long));
*numPtr = 10;
printf("%lld\n", *numPtr);
free(numPtr); // 동적 메모리 해제
return 0;
}
void VectorND<Scalar>::resize(unsigned int new_dim, Scalar init_val)
{
#ifdef PHYSIKA_USE_EIGEN_VECTOR
eigen_vector_Nx_.resize(new_dim);
#elif defined(PHYSIKA_USE_BUILT_IN_VECTOR)
if(data_)
delete[] data_;
allocMemory(new_dim);
#endif
//initialize
for (unsigned int i = 0; i < new_dim; ++i)
(*this)[i] = init_val;
}
Image* loadImageFromStorage(u32 sector)
{
u8 *head = (u8 *)allocMemory(IMAGE_HEADER_SIZE);
readHardDisk(sector, head, IMAGE_HEADER_SIZE);
u16 *width = (u16 *)(head+4);
u16 *height = (u16 *)(head+6);
freeMemory((u32)head, IMAGE_HEADER_SIZE);
u32 size = (*width)*(*height)*SCREEN_DENSITY;
u8 *buffer = (u8 *)allocMemory(size);
readHardDisk(sector, buffer, size);
Image *image = (Image*)allocMemoryInPage(sizeof(Image));
(*image).width = 1024;
(*image).height = 768;
(*image).x = 0;
(*image).y = 0;
(*image).data = buffer+8;
(*image).head = head;
(*image).buffer = buffer;
return image;
}
int main()
{
long long *numPtr = NULL;
// numPtr과 할당할 크기를 넣어줌
allocMemory(numPtr, sizeof(long long));
*numPtr = 10; // 메모리가 할당되지 않았으므로 실행 에러
printf("%lld\n", *numPtr);
free(numPtr);
return 0;
}
extern void *
trimMemory(void *mem)
{
int len;
void *res;
len = strlen((char *) mem);
res = allocMemory(len + 1, sizeof (u1));
if (!res)
return (void *) 0;
memcpy(res, mem, len);
freeMemory(mem);
return res;
}
void startMathematicsApplication()
{
if (mathematicsProcess==null) {
mathematicsProcess = requestProcess();
(*mathematicsProcess).tss.esp = allocMemory(64 * 1024) + 64 * 1024;
(*mathematicsProcess).tss.eip = (int) &mathematicsApplicationMain;
(*mathematicsProcess).tss.es = 2 * 8;
(*mathematicsProcess).tss.cs = 1 * 8;
(*mathematicsProcess).tss.ss = 2 * 8;
(*mathematicsProcess).tss.ds = 2 * 8;
(*mathematicsProcess).tss.fs = 2 * 8;
(*mathematicsProcess).tss.gs = 2 * 8;
(*mathematicsProcess).tss.cr3 = 0x60000;
startRunProcess(mathematicsProcess, 4);
}
}
void startDataGraphApplication()
{
if (dataGraphProcess==null) {
dataGraphProcess = requestProcess();
(*dataGraphProcess).tss.esp = allocMemory(64 * 1024) + 64 * 1024;
(*dataGraphProcess).tss.eip = (int) &dataGraphApplicationMain;
(*dataGraphProcess).tss.es = 2 * 8;
(*dataGraphProcess).tss.cs = 1 * 8;
(*dataGraphProcess).tss.ss = 2 * 8;
(*dataGraphProcess).tss.ds = 2 * 8;
(*dataGraphProcess).tss.fs = 2 * 8;
(*dataGraphProcess).tss.gs = 2 * 8;
(*dataGraphProcess).tss.cr3 = 0x60000;
startRunProcess(dataGraphProcess, 4);
}
}
CELL * p_dup(CELL * params)
{
CELL * list;
CELL * expr;
char * str;
ssize_t n, len;
expr = evaluateExpression(params);
if((params = params->next) != nilCell)
getInteger(params, (UINT *)&n);
else n = 2;
if(n < 0) n = 0;
if(expr->type == CELL_STRING && !getFlag(params->next) )
{
len = expr->aux - 1;
list = getCell(CELL_STRING);
str = allocMemory(len * n + 1);
list->contents = (UINT)str;
list->aux = (len * n + 1);
*(str + len * n) = 0;
while(n--)
{
memcpy(str, (char *)expr->contents, len);
str += len;
}
return(list);
}
list = getCell(CELL_EXPRESSION);
if(n-- > 0)
{
list->contents = (UINT)copyCell(expr);
params = (CELL *)list->contents;
while(n--)
{
params->next = copyCell(expr);
params = params->next;
}
}
return(list);
}
void ParticleSystemQuad::setBatchNode(ParticleBatchNode * batchNode)
{
if( _batchNode != batchNode )
{
ParticleBatchNode* oldBatch = _batchNode;
ParticleSystem::setBatchNode(batchNode);
// NEW: is self render ?
if( ! batchNode )
{
allocMemory();
initIndices();
setTexture(oldBatch->getTexture());
if (Configuration::getInstance()->supportsShareableVAO())
{
setupVBOandVAO();
}
else
{
setupVBO();
}
}
// OLD: was it self render ? cleanup
else if( !oldBatch )
{
// copy current state to batch
V3F_C4B_T2F_Quad *batchQuads = _batchNode->getTextureAtlas()->getQuads();
V3F_C4B_T2F_Quad *quad = &(batchQuads[_atlasIndex] );
memcpy( quad, _quads, _totalParticles * sizeof(_quads[0]) );
CC_SAFE_FREE(_quads);
CC_SAFE_FREE(_indices);
glDeleteBuffers(2, &_buffersVBO[0]);
memset(_buffersVBO, 0, sizeof(_buffersVBO));
if (Configuration::getInstance()->supportsShareableVAO())
{
glDeleteVertexArrays(1, &_VAOname);
GL::bindVAO(0);
_VAOname = 0;
}
}
}
}
void startCalculatorApplication()
{
if (calculatorProcess==null) {
calculatorProcess = requestProcess();
prepareProcessLdt(calculatorProcess);
(*calculatorProcess).tss.esp = allocMemory(64 * 1024) + 64 * 1024;
(*calculatorProcess).tss.eip = (int) &calculatorApplicationMain;
(*calculatorProcess).tss.cs = 0 * 8 + 4;
(*calculatorProcess).tss.ds = 1 * 8 + 4;
(*calculatorProcess).tss.es = 1 * 8 + 4;
(*calculatorProcess).tss.fs = 1 * 8 + 4;
(*calculatorProcess).tss.gs = 1 * 8 + 4;
(*calculatorProcess).tss.ss = 2 * 8 + 4;
(*calculatorProcess).tss.cr3 = 0x60000;
startRunProcess(calculatorProcess, 4);
}
}
void CCParticleSystemQuad::setBatchNode(CCParticleBatchNode * batchNode)
{
if( m_pBatchNode != batchNode )
{
CCParticleBatchNode* oldBatch = m_pBatchNode;
CCParticleSystem::setBatchNode(batchNode);
// NEW: is self render ?
if( ! batchNode )
{
allocMemory();
initIndices();
setTexture(oldBatch->getTexture());
#if CC_TEXTURE_ATLAS_USE_VAO
setupVBOandVAO();
#else
setupVBO();
#endif
}
// OLD: was it self render ? cleanup
else if( !oldBatch )
{
// copy current state to batch
ccV3F_C4B_T2F_Quad *batchQuads = m_pBatchNode->getTextureAtlas()->getQuads();
ccV3F_C4B_T2F_Quad *quad = &(batchQuads[m_uAtlasIndex] );
memcpy( quad, m_pQuads, m_uTotalParticles * sizeof(m_pQuads[0]) );
CC_SAFE_FREE(m_pQuads);
CC_SAFE_FREE(m_pIndices);
glDeleteBuffers(2, &m_pBuffersVBO[0]);
memset(m_pBuffersVBO, 0, sizeof(m_pBuffersVBO));
#if CC_TEXTURE_ATLAS_USE_VAO
glDeleteVertexArrays(1, &m_uVAOname);
ccGLBindVAO(0);
m_uVAOname = 0;
#endif
}
}
}
SkStream* FontConfigTypeface::onOpenStream(int* ttcIndex) const {
SkStream* stream = this->getLocalStream();
if (stream) {
// should have been provided by CreateFromStream()
*ttcIndex = 0;
SkAutoTUnref<SkStream> dupStream(stream->duplicate());
if (dupStream) {
return dupStream.detach();
}
// TODO: update interface use, remove the following code in this block.
size_t length = stream->getLength();
const void* memory = stream->getMemoryBase();
if (NULL != memory) {
return new SkMemoryStream(memory, length, true);
}
SkAutoTMalloc<uint8_t> allocMemory(length);
stream->rewind();
if (length == stream->read(allocMemory.get(), length)) {
SkAutoTUnref<SkMemoryStream> copyStream(new SkMemoryStream());
copyStream->setMemoryOwned(allocMemory.detach(), length);
return copyStream.detach();
}
stream->rewind();
stream->ref();
} else {
SkAutoTUnref<SkFontConfigInterface> fci(RefFCI());
if (NULL == fci.get()) {
return NULL;
}
stream = fci->openStream(this->getIdentity());
*ttcIndex = this->getIdentity().fTTCIndex;
}
return stream;
}
extern int
deque_addLast(struct Deque *deque, int size, void *value)
{
struct DequeEntry *entry;
if (!deque)
{
logError("Parameter 'deque' is NULL in method %s!\r\n", __func__);
return -1;
}
entry = (struct DequeEntry *) allocMemory(1, sizeof (struct DequeEntry));
if (!entry) return -1;
entry->size = size;
entry->value = value;
entry->prev = deque->last;
entry->next = (struct DequeEntry *) 0;
if (deque->last)
deque->last->next = entry;
else // deque is empty
deque->first = entry;
deque->last = entry;
return 0;
}