void fp_EmbedRun::mapXYToPosition(UT_sint32 x, UT_sint32 /*y*/, PT_DocPosition& pos, bool& bBOL, bool& bEOL, bool & /*isTOC*/)
{
if (x > getWidth())
pos = getBlock()->getPosition() + getBlockOffset() + getLength();
else
pos = getBlock()->getPosition() + getBlockOffset();
bBOL = false;
bEOL = false;
}
//Note: il faut traduire une vraie adresse en offset
int oslVramMgrFreeBlock(void *blockAddress, int blockSize) {
int i, j, updateNeeded;
int blockOffset = (u32)blockAddress - (u32)osl_vramBase;
//Sans le manager, c'est plus simple...
if (!osl_useVramManager) {
osl_currentVramPtr -= blockSize;
//Pas vraiment utile, juste là pour s'assurer qu'on ne dépassera jamais de l'espace alloué
if (osl_currentVramPtr < osl_vramBase)
osl_currentVramPtr = osl_vramBase;
return 1;
}
//Trouvons le bloc qui va bien
for (i=0;i<osl_vramBlocksNb;i++) {
if (getBlockOffset(i) == blockOffset)
break;
}
//Impossible de trouver le bloc
if (i >= osl_vramBlocksNb)
return 0;
//Le bloc est maintenant libre ^^
setBlockFree(i, 1);
//Bon maintenant reste à "assembler" les blocs libres adjacents
do {
updateNeeded = 0;
for (j=0;j<osl_vramBlocksNb-1;j++) {
//Cherchons deux blocs adjacents
if ((isBlockFree(j) && isBlockFree(j + 1))
|| (isBlockFree(j) && getBlockSize(j) == 0)) {
//Assemblons ces blocs maintenant
int newSize = getBlockSize(j) + getBlockSize(j + 1), newAdd = getBlockOffset(j);
memmove(osl_vramBlocks + j, osl_vramBlocks + j + 1, sizeof(OSL_VRAMBLOCK) * (osl_vramBlocksNb - j - 1));
setBlockOffset(j, newAdd);
setBlockSize(j, newSize);
//Le bloc entre deux est supprimé
osl_vramBlocksNb--;
//ATT: On devra refaire un tour pour vérifier si de nouveaux blocs n'ont pas été créés
updateNeeded = 1;
}
}
} while (updateNeeded);
return 1;
}
void writeBlock(BLOCK * blockP, void * mem)
{
if(NULL == mem){
return ;
}
fseek(dataFp, getBlockOffset(blockP->blockNumber), SEEK_SET);
Fwrite(mem, superBlockPointer->blockSize, 1, dataFp);
}
bool Log::BlockBuffer::writeBack() {
if (!ready || !dirty) return true;
off_t offset = getBlockOffset(id);
if (!Disk::diskWrite(offset, block, BLOCK_SIZE))
return false;
dirty = false;
return true;
}
void BufferManager::pageIn(int index, int pageNum) {
// Read page data from disk into buffer
char buffer[4096] = {};
int blockOffset = getBlockOffset(pageNum);
fm->read(dbName, blockOffset, 8, buffer);
// Create page
pages[index] = Page(buffer);
// Set page status
pageNums[index] = pageNum;
dirtied[index] = 0;
pinned[index] = 0;
}
RingBufferBlock* RingBuffer::getNextBlock(RingBufferBlock *block)
{
if (NULL == block) {
return NULL;
}
int alignLength = ALIGN(block->m_length);
int offset = getBlockOffset(block);
int nextOffset = offset + sizeof(RingBufferBlock) + alignLength;
if (nextOffset >= m_size) {
return NULL;
}
return (RingBufferBlock*)(m_data + nextOffset);
}
void BufferManager::pageOut(int index) {
// If page is dirty, write it to disk
if (dirtied[index] == 1) {
char buffer[4096] = {};
char* pageBytes = (char*) &pages[index];
for (int i = 0; i < 4096; i++) { buffer[i] = pageBytes[i]; }
int blockOffset = getBlockOffset(pageNums[index]);
fm->write(dbName, blockOffset, 8, buffer);
}
// Evict page
pages[index] = Page();
// Reset page status
pageNums[index] = 0;
dirtied[index] = 0;
pinned[index] = 0;
}
bool Log::BlockBuffer::prepareBlock(uint32_t blockId) {
// Check valid id.
if (!isValidBlockId(blockId)) return false;
// If the block is dirty, write it back.
if (!writeBack()) return false;
// If the block is already loaded, just return.
if (id == blockId && ready) return true;
// Read in block.
if (!Disk::diskRead(getBlockOffset(blockId), block, BLOCK_SIZE))
return false;
id = blockId;
ready = true;
return true;
}
INODE * getINODE(int inodeNumber)
{
INODE * inodeP = (INODE *)Malloc(sizeof(INODE));
inodeP->mem = Malloc(superBlockPointer->blockSize);
int time_tmp = 0;
fseek(dataFp, getInodeAreaOffset(superBlockPointer) + inodeNumber * superBlockPointer->inodeSize, SEEK_SET);
fread(&time_tmp, 4, 1, dataFp);
inodeP->aTime = time_tmp;
fread(&time_tmp, 4, 1, dataFp);
inodeP->cTime = time_tmp;
fread(&time_tmp, 4, 1, dataFp);
inodeP->mTime = time_tmp;
fread(&inodeP->GID, 4, 1, dataFp);
fread(&inodeP->UID, 4, 1, dataFp);
fread(&inodeP->authority, 4, 1, dataFp);
fread(&inodeP->inodeNumber, 4, 1, dataFp);
fread(&inodeP->blockNumber, 4, 1, dataFp);
fread(&inodeP->length, 4, 1, dataFp);
fseek(dataFp, getBlockOffset(inodeP->blockNumber), SEEK_SET);
fread(inodeP->mem, superBlockPointer->blockSize, 1, dataFp);
return inodeP;
}
/**
* Transfer the block form the remote rank, that holds it,
* or if it´s the same rank, copy it by using memcpy.
*/
void grid::NumaDistStaticGrid::getBlock(unsigned long block,
long oldBlock,
unsigned long cacheIndex,
unsigned char *cache) {
unsigned long blockSize = getTotalBlockSize();
int remoteRank = getBlockRank(block);
incCounter(perf::Counter::MPI);
int mpiResult;
if (remoteRank == getMPIRank()) {
//The block is located in the same NUMA Domain, but in the memspace of another thread.
pthread_t remoteId = getThreadId(block);
size_t offset = getType().getSize()*blockSize*getBlockThreadOffset(block);
//copy the block
// std::cout << "Memcpy Thread: " << remoteId << " Pointer: " << &(m_threadHandle.getStaticPtr(remoteId, m_id));
memcpy(cache, m_threadHandle.getStaticPtr(remoteId, m_id) + offset, getType().getSize()*blockSize);
}
else {
//This section is critical. Only one Thread is allowed to access.
//TODO: Find a better solution than pthread mutex.
unsigned long offset = getBlockOffset(block);
NDBG_UNUSED(mpiResult);
mpiResult = m_threadHandle.getBlock(cache,
blockSize,
getType().getMPIType(),
remoteRank,
offset * blockSize,
blockSize,
getType().getMPIType(),
m_threadHandle.mpiWindow);
assert(mpiResult == MPI_SUCCESS);
}
}
/*!
Dump fp_TextRun information
\param fp File where the dump should be written to
*/
void fp_TextRun::__dump(FILE * fp) const
{
fp_Run::__dump(fp);
fprintf(fp," [");
if (getLength() != 0)
{
UT_uint32 koff=getBlockOffset();
UT_uint32 klen=getLength();
PD_StruxIterator text(getBlock()->getStruxDocHandle(),
koff + fl_BLOCK_STRUX_OFFSET);
for(UT_uint32 k = 0; k < klen; k++)
{
unsigned char c = static_cast<unsigned char>(text[k+fl_BLOCK_STRUX_OFFSET] & 0x00ff);
UT_return_if_fail(text.getStatus() == UTIter_OK);
fprintf(fp,"%c",c);
}
}
fprintf(fp,"]\n");
}
RingBufferBlock* RingBuffer::splitBlock(int sum, int size)
{
int alignLength = ALIGN(sizeof(struct RingBufferBlock) + size);
// 切割出第一个长度为size的block
struct RingBufferBlock *head = getHead();
head->m_length = size;
head->m_skip = 0;
head->m_next = NULL;
head->m_link = NULL;
// 切割出第二个长度为sum - size的block
struct RingBufferBlock *next = getNextBlock(head);
if (next) {
int nextOffset = getBlockOffset(next);
// 如果第二块位于末尾，判断空间是否足够再构造一个block
if (m_size - nextOffset > sizeof(RingBufferBlock)) {
if (alignLength < sum) {
next->m_length = sum - alignLength - sizeof(RingBufferBlock);
next->m_link = NULL;
next->m_next = NULL;
next->m_skip = 0;
if (next->m_length <= 0) {
LOG_ERROR << "next->m_length = " << next->m_length;
statistic();
}
}
}
} else {
// m_head = 0;
}
// 返回第一块block
return head;
}
void fp_EmbedRun::findPointCoords(UT_uint32 iOffset, UT_sint32& x, UT_sint32& y, UT_sint32& x2, UT_sint32& y2, UT_sint32& height, bool& bDirection)
{
//UT_DEBUGMSG(("fintPointCoords: ImmageRun\n"));
UT_sint32 xoff;
UT_sint32 yoff;
UT_ASSERT(getLine());
getLine()->getOffsets(this, xoff, yoff);
if (iOffset == (getBlockOffset() + getLength()))
{
x = xoff + getWidth();
x2 = x;
}
else
{
x = xoff;
x2 = x;
}
y = yoff + getAscent() - m_iPointHeight;
height = m_iPointHeight;
y2 = y;
bDirection = (getVisDirection() != UT_BIDI_LTR);
}
void fp_AnnotationRun::_draw(dg_DrawArgs* pDA)
{
if(!displayAnnotations())
return;
if(!m_bIsStart)
return;
GR_Graphics * pG = pDA->pG;
UT_sint32 xoff = 0, yoff = 0;
GR_Painter painter(pG);
// need screen locations of this run
getLine()->getScreenOffsets(this, xoff, yoff);
UT_sint32 iYdraw = pDA->yoff - getAscent()-1;
UT_uint32 iRunBase = getBlock()->getPosition() + getBlockOffset();
//
// Sevior was here
// UT_sint32 iFillTop = iYdraw;
UT_sint32 iFillTop = iYdraw+1;
UT_sint32 iFillHeight = getAscent() + getDescent();
FV_View* pView = _getView();
UT_uint32 iSelAnchor = pView->getSelectionAnchor();
UT_uint32 iPoint = pView->getPoint();
UT_uint32 iSel1 = UT_MIN(iSelAnchor, iPoint);
UT_uint32 iSel2 = UT_MAX(iSelAnchor, iPoint);
UT_ASSERT(iSel1 <= iSel2);
bool bIsInTOC = getBlock()->isContainedByTOC();
if (
isInSelectedTOC() || (!bIsInTOC && (
/* pView->getFocus()!=AV_FOCUS_NONE && */
(iSel1 <= iRunBase)
&& (iSel2 > iRunBase)))
)
{
UT_RGBColor color(_getView()->getColorSelBackground());
pG->setColor(_getView()->getColorAnnotation(this));
painter.fillRect(color, pDA->xoff, iFillTop, getWidth(), iFillHeight);
}
else
{
Fill(getGraphics(),pDA->xoff, iFillTop, getWidth(), iFillHeight);
pG->setColor(_getColorFG());
}
pG->setFont(_getFont());
pG->setColor(_getView()->getColorAnnotation(this));
UT_DEBUGMSG(("Drawing string m_sValue %s \n",m_sValue.utf8_str()));
painter.drawChars(m_sValue.ucs4_str().ucs4_str(), 0,m_sValue.ucs4_str().size(), pDA->xoff,iYdraw, NULL);
//
// Draw underline/overline/strikethough
//
UT_sint32 yTopOfRun = pDA->yoff - getAscent()-1; // Hack to remove
//character dirt
drawDecors( xoff, yTopOfRun,pG);
}
void *oslVramMgrAllocBlock(int blockSize) {
int i;
osl_skip = osl_vramBlocks[0].size;
//Le bloc ne peut pas être de taille nulle ou négative
if (blockSize <= 0)
return NULL;
//La taille est toujours multiple de 16 - arrondir au bloc supérieur
if (blockSize & 15)
blockSize += 16;
//Sans le manager, c'est plus simple...
if (!osl_useVramManager) {
int ptr = osl_currentVramPtr;
//Dépassement de la mémoire?
if (osl_currentVramPtr + blockSize >= osl_vramBase + osl_vramSize)
return NULL;
osl_currentVramPtr += blockSize;
return (void*)ptr;
}
for (i=0;i<osl_vramBlocksNb;i++) {
//Ce bloc est-il suffisant?
if (isBlockFree(i) && getBlockSize(i) >= blockSize)
break;
}
//Aucun bloc libre
if (i >= osl_vramBlocksNb)
return NULL;
//Pile la mémoire qu'il faut? - pas géré, il faut toujours que le dernier bloc soit marqué comme libre (même s'il reste 0 octet) pour ulSetTexVramParameters
if (getBlockSize(i) == blockSize && i != osl_vramBlocksNb - 1) {
//Il n'est plus libre
setBlockFree(i, 0);
}
else {
//On va ajouter un nouveau bloc
osl_vramBlocksNb++;
//Plus de mémoire pour le tableau? On l'aggrandit
if (osl_vramBlocksNb >= osl_vramBlocksMax) {
OSL_VRAMBLOCK *oldBlock = osl_vramBlocks;
osl_vramBlocksMax += DEFAULT_TABLE_SIZE;
osl_vramBlocks = (OSL_VRAMBLOCK*)realloc(osl_vramBlocks, osl_vramBlocksMax);
//Vérification que la mémoire a bien pu être allouée
if (!osl_vramBlocks) {
osl_vramBlocks = oldBlock;
osl_vramBlocksMax -= DEFAULT_TABLE_SIZE;
//Pas assez de mémoire
return NULL;
}
}
//Décalage pour insérer notre nouvel élément
memmove(osl_vramBlocks + i + 1, osl_vramBlocks + i, sizeof(OSL_VRAMBLOCK) * (osl_vramBlocksNb - i - 1));
//Remplissons notre nouveau bloc
setBlockSize(i, blockSize);
//Il a l'adresse du bloc qui était là avant
setBlockOffset(i, getBlockOffset(i + 1));
//Il n'est pas libre
setBlockFree(i, 0);
//Pour le prochain, sa taille diminue
setBlockSize(i + 1, getBlockSize(i + 1) - blockSize);
//ATTENTION: calcul d'offset
setBlockOffset(i + 1, getBlockOffset(i + 1) + blockSize);
}
//Note: il faut traduire l'offset en vraie adresse
return (void*)(getBlockOffset(i) + osl_vramBase);
}
void readBlock(BLOCK * blockP, void * mem)
{
fseek(dataFp, getBlockOffset(blockP->blockNumber), SEEK_SET);
fread(mem, superBlockPointer->blockSize, 1, dataFp);
}
