// -------------------------------------------------------------
void pushQueue( Queue s, T x )
{
if (s->tail == NULL) {
s->head = s->tail = newCell( x, NULL );
} else {
s->tail->next = newCell( x, NULL );
s->tail = s->tail->next;
}
s->size++;
}
void tableTemplateWidget::insRow(void)
{
int tr, rc;
int i, j;
selectionRange = selectedRanges();
for (i = 0; i < selectionRange.count(); i++)
{
tr = selectionRange[i].topRow();
rc = selectionRange[i].rowCount();
for (j = 0; j < rc; j++)
insertRow(tr);
}
for (i = 0; i < rc; i++)
{
for (j = 0; j < numCol; j++)
newCell(tr+i, j, 0);
}
numRow = rowCount();
isDirty = true;
}
void tableTemplateWidget::insColumn(void)
{
int lc, cc;
int i, j;
selectionRange = selectedRanges();
for (i = 0; i < selectionRange.count(); i++)
{
lc = selectionRange[i].leftColumn();
cc = selectionRange[i].columnCount();
for (j = 0; j < cc; j++)
insertColumn(lc);
}
for (i = 0; i < numRow; i++)
{
for (j = 0; j < cc; j++)
newCell(i, lc+j, 0);
}
numCol = columnCount();
isDirty = true;
}
void fileInput(char argv[1], char board[41][41], char tempBoard[41][41]) {
FILE *fp;
char input;
int coordinate1, coordinate2;
int value = 1;
fp = fopen(argv, "r"); // open file with commands
blankBoard(board, tempBoard);
while(value != 0) {
fscanf(fp, "%c", &input);
switch(input) {
case 'a': // create new cell
fscanf(fp, "%i%i", &coordinate1, &coordinate2);
newCell(coordinate1, coordinate2, board);
break;
case 'r': // remove cell
fscanf(fp, "%i%i", &coordinate1, &coordinate2);
removeCell(coordinate1, coordinate2, board);
break;
case 'n': // next iteration
advance(board, tempBoard);
break;
case 'q': // quit
value = 0;
break;
case 'p': // run forever
while(1) {
advance(board, tempBoard);
usleep(100000);
}
break;
}
}
}
main(){
struct cell_m* c1 = newCell(23);
struct cell_m* c2 = newCell(34);
struct cell_m* c3 = newCell(45);
struct cell_m* c4 = newCell(56);
//struct cell_m* c4_2 = newCell(4); //Decommenter ici pour tester.
//struct cell_m* faux = newCell(99); //Decommenter ici pour tester.
struct cell_m* c5 = newCell(45);
struct cell_m* c6 = newCell(34);
struct cell_m* c7 = newCell(23);
struct cell_m* list = NULL;
push(c1, &list);
push(c2, &list);
push(c3, &list);
push(c4, &list);
//push(c4_2, &list); //Decommenter ici pour tester.
//push(faux, &list); //Decommenter ici pour tester.
push(c5, &list);
push(c6, &list);
push(c7, &list);
print(list);
printf("--------\n");
printf("Is palindrome: %d\n", palindrome(list));
printf("Rnverse and add: %d\n", inverseAdd(list));
}
/*
* adfGetDelEnt
*
*/
struct List* adfGetDelEnt(struct Volume *vol)
{
struct GenBlock *block;
long i;
struct List *list, *head;
BOOL delEnt;
list = head = NULL;
block = NULL;
delEnt = TRUE;
for(i=vol->firstBlock; i<=vol->lastBlock; i++) {
if (adfIsBlockFree(vol, i)) {
if (delEnt) {
block = (struct GenBlock*)malloc(sizeof(struct GenBlock));
if (!block) return NULL;
//printf("%p\n",block);
}
adfReadGenBlock(vol, i, block);
delEnt = (block->type==T_HEADER
&& (block->secType==ST_DIR || block->secType==ST_FILE) );
if (delEnt) {
if (head==NULL)
list = head = newCell(NULL, (void*)block);
else
list = newCell(list, (void*)block);
}
}
}
if (block!=NULL && list!=NULL && block!=list->content) {
free(block);
// printf("%p\n",block);
}
return head;
}
int userInput(char board[41][41], char tempBoard[41][41]) {
char input;
int coordinate1, coordinate2;
int value;
printf("\nPlease select an option.\na: Create a new cell\nr: Remove a cell\nn: Advance to the next iteration\nq: Quit\np: Play the game continuously\n");
scanf("%c", &input);
while(getchar() != '\n');
switch(input) {
case 'a':
printf("Enter coordinates (row, column) for a new live cell: ");
scanf("%i%i", &coordinate1, &coordinate2);
while(getchar() != '\n');
newCell(coordinate1, coordinate2, board);
value = 1;
break;
case 'r':
printf("Enter coordinates (row, column) to remove a cell: ");
scanf("%i%i", &coordinate1, &coordinate2);
while(getchar() != '\n');
removeCell(coordinate1, coordinate2, board);
value = 1;
break;
case 'n': // advance to next iteration
advance(board, tempBoard);
value = 1;
break;
case 'q': // to quit
value = 0;
break;
case 'p': // run game forever
while(1) {
advance(board, tempBoard);
usleep(100000);
}
value = 1;
break;
default:
printf("This is not a valid option. Try again.\n");
value = 1;
break;
}
return value;
}
/*
* Створюємо новий пустий шаблон кросворду
*/
void tableTemplateWidget::createNew(void)
{
QDialog *dialog = new QDialog();
sizeOfTemplate = new Ui::SizeOfTemplate();
sizeOfTemplate->setupUi(dialog);
dialog->setModal(true);
dialog->exec();
if (dialog->result() == QDialog::Accepted)
{
numRow = sizeOfTemplate->spinRows->value();
numCol = sizeOfTemplate->spinColumns->value();
QSqlQuery query;
query.prepare("INSERT INTO crossword.templates (_rows, _columns) VALUES (?, ?);");
query.addBindValue(QVariant(numRow));
query.addBindValue(QVariant(numCol));
query.exec();
QSqlError le = query.lastError();
if (le.type() == QSqlError::NoError)
templateId = query.lastInsertId().toInt();
else
qDebug() << "createNew: " << le.text();
wi.clear();
setRowCount(numRow);
setColumnCount(numCol);
for (int i = 0; i < numRow; i++)
for (int j = 0; j < numCol; j++)
newCell(i, j, 0);
isDirty = true;
}
delete dialog;
}
void AbstractGrid::initializeGrid(uint width, uint height, Wrapping wrapping)
{
if ((width * height) != (m_width * m_height)) {
qDeleteAll(m_cells);
m_cells.clear();
for (uint index = 0; index < width*height; ++index) {
m_cells.append(newCell(index));
}
}
m_width = width;
m_height = height;
m_isWrapped = wrapping;
createGrid();
while(hasUnneededCables() || solutionCount() != 1) {
// the grid is invalid: create a new one
createGrid();
}
m_minimumMoves = 0;
const int shuffleLimit = cellCount() * minCellRatio;
QList<int> notShuffledCells;
for (int i = 0; i < cellCount(); ++i)
notShuffledCells.append(i);
// select a random cell that is not yet shuffled
// rotate such that initial and final states are not same
// repeat above two steps until minimum moves equal to shuffle limit
while(m_minimumMoves < shuffleLimit)
{
// selecting a random index
int index = qrand() % notShuffledCells.count();
int cellNo = notShuffledCells[index];
// removing the selected index so that it must not be used again
notShuffledCells.removeAt(index);
AbstractCell *cell = m_cells[cellNo];
Directions dir = cell->cables();
// excludes None(Empty cell)
if (dir == None) {
continue;
}
// if straight line rotate once
// cant rotate twice(it will be back on its initial state)
else if ((dir == (Up | Down)) || (dir == (Left | Right))) {
m_minimumMoves += 1;
cell->rotateClockwise();
}
// for every other case rotate 1..3 times
else {
int rotation = qrand() % 3 + 1; // 1..3
// cant rotate twice when m_minimumMoves == shuffleLimit - 1
if (m_minimumMoves == shuffleLimit - 1 && rotation == 2){
rotation = (qrand() % 2)? 1 : 3; // 1 or 3
}
m_minimumMoves += (rotation == 3) ? 1 : rotation;
while(rotation--) {
cell->rotateClockwise();
}
}
}
updateConnections();
}
/*
* adfGetDirEntCache
*
* replace 'adfGetDirEnt'. returns a the dir contents based on the dircache list
*/
struct List* adfGetDirEntCache(struct Volume *vol, SECTNUM dir, BOOL recurs)
{
struct bEntryBlock parent;
struct bDirCacheBlock dirc;
int offset, n;
struct List *cell, *head;
struct CacheEntry caEntry;
struct Entry *entry;
SECTNUM nSect;
if (adfReadEntryBlock(vol,dir,&parent)!=RC_OK)
return NULL;
nSect = parent.extension;
cell = head = NULL;
do {
/* one loop per cache block */
n = offset = 0;
if (adfReadDirCBlock(vol, nSect, &dirc)!=RC_OK)
return NULL;
while (n<dirc.recordsNb) {
/* one loop per record */
entry = (struct Entry*)calloc(1,sizeof(struct Entry));
if (!entry) {
adfFreeDirList(head);
return NULL;
}
adfGetCacheEntry(&dirc, &offset, &caEntry);
/* converts a cache entry into a dir entry */
entry->type = (int)caEntry.type;
#if defined (WIN32)
entry->name = _strdup(caEntry.name);
#else
entry->name = strdup(caEntry.name);
#endif
if (entry->name==NULL) {
free(entry); adfFreeDirList(head);
return NULL;
}
entry->sector = caEntry.header;
#if defined (WIN32)
entry->comment = _strdup(caEntry.comm);
#else
entry->comment = strdup(caEntry.comm);
#endif
if (entry->comment==NULL) {
free(entry->name); adfFreeDirList(head);
return NULL;
}
entry->size = caEntry.size;
entry->access = caEntry.protect;
adfDays2Date( caEntry.days, &(entry->year), &(entry->month),
&(entry->days) );
entry->hour = caEntry.mins/60;
entry->mins = caEntry.mins%60;
entry->secs = caEntry.ticks/50;
/* add it into the linked list */
if (head==NULL)
head = cell = newCell(NULL, (void*)entry);
else
cell = newCell(cell, (void*)entry);
if (cell==NULL) {
adfFreeEntry(entry);
adfFreeDirList(head);
return NULL;
}
if (recurs && entry->type==ST_DIR)
cell->subdir = adfGetDirEntCache(vol,entry->sector,recurs);
n++;
}
nSect = dirc.nextDirC;
}while (nSect!=0);
return head;
}
void Grid::generatePuzzle(unsigned short cells)
{
for (int row = 0; row < 9; row++)
{
for (int col = 0; col < 9; col++)
{
if (row == 7)
{
row = 7;
}
grid[row][col] = Cell();
}
}
// display();
srand(time(NULL)); //set the time for srand to NULL.
int col, row, val;
for (int i = 0; i < cells; i++)
{
bool invalid = true; //To signal a good value has been found
set<unsigned short> triedVals; //To not repeat ourselves.
bool RESET = false; //Helps us get out of ruts
while (invalid)
{
RESET = false;
col = (rand() % 9);
row = (rand() % 9);
//If it's empty, start trying to put new values in
if (grid[row][col].isEmpty())
{
if (RESET)
break;
val = (rand() % 9) + 1;
Cell newCell(val, true);
Coordinate c(col, row);
//While it's not valid, generate new values and try again.
while (!cellIsValid(c, newCell))
{
if (RESET)
break;
triedVals.insert(val); //Put it in the set
//Generate a new value until we get one we haven't tried.
while (triedVals.find(val) != triedVals.end())
{
if (RESET)
break;
if (triedVals.size() == 9)
{
RESET = true;
break;
}
val = (rand() % 9) + 1;
}
newCell = Cell(val, true);
}
//After a valid cell has been found, set it and set the invalid flag to false
grid[row][col] = newCell;
invalid = false;
}
}
}
display();
}
/**
* Seta o valor de uma célula da matriz. Se já existir apenas altera o valor.
*/
void setCell(SparseMatrix* matrix, long x, long y, long value)
{
Cell* cell = getCell(matrix, x, y);
// Se existir, a célula troca o valor
if (cell != NULL)
{
cell->_value = value;
return;
}
// Verifica os índices máximos da matriz, e os troca se preciso
if (x > matrix->_maximumX)
{
matrix->_maximumX = x;
}
if (y > matrix->_maximumY)
{
matrix->_maximumY = y;
}
// Cria uma nova célula
cell = newCell(x, y, value);
// Verifica se o índice (linha) atual existe
Index* index = matrix->_firstIndex;
Index* cellIndex = NULL;
while (index != NULL)
{
// Se a linha for igual, existe
if (index->_value == y)
{
cellIndex = index;
break;
}
index = index->_nextIndex;
}
// Se o índice não existir, cria um novo
if (cellIndex == NULL)
{
cellIndex = newIndex(y);
}
// Adiciona o índice a matriz
// Se o primeiro for vazio, tá certo
if (matrix->_firstIndex == NULL)
{
matrix->_firstIndex = cellIndex;
}
// Senão insere o novo índice na ordem
else
{
Index* currentIndex = matrix->_firstIndex;
Index* previousIndex = matrix->_firstIndex;
while (true)
{
// Se for maior, vai para frente, senão insere
if (currentIndex == NULL || cellIndex->_value < currentIndex->_value)
{
previousIndex->_nextIndex = cellIndex;
cellIndex->_nextIndex = currentIndex;
break;
}
else
{
previousIndex = currentIndex;
currentIndex = currentIndex->_nextIndex;
}
}
}
// Insere a célula
if (cellIndex->_cell == NULL)
{
cellIndex->_cell = cell;
}
else
{
Cell* currentCell = cellIndex->_cell;
Cell* previousCell = currentCell;
while (true)
{
// Se o índice x for maior, vai para frente, senão insere
if (currentCell == NULL || cell->_x < currentCell->_x)
{
previousCell->_nextCell = cell;
cell->_nextCell = currentCell;
break;
}
else
{
previousCell = currentCell;
currentCell = currentCell->_nextCell;
}
}
}
}
int main(int argc, char* argv[])
{
int i, j;
BOOL rflag, lflag, xflag, cflag, vflag, sflag, dflag, pflag, qflag;
struct List* files, *rtfiles;
char *devname, *dirname;
char strbuf[80];
unsigned char *extbuf;
int vInd, dInd, fInd, aInd;
BOOL nextArg;
struct Device *dev;
struct Volume *vol;
struct List *list, *cell;
int volNum;
BOOL true = TRUE;
if (argc<2) {
help();
exit(0);
}
rflag = lflag = cflag = vflag = sflag = dflag = pflag = qflag = FALSE;
vInd = dInd = fInd = aInd = -1;
xflag = TRUE;
dirname = NULL;
devname = NULL;
files = rtfiles = NULL;
volNum = 0;
fprintf(stderr,"unADF v%s : a unzip like for .ADF files, powered by ADFlib (v%s - %s)\n\n",
UNADF_VERSION, adfGetVersionNumber(),adfGetVersionDate());
/* parse options */
i=1;
while(i<argc) {
if (argv[i][0]=='-') {
j=1;
nextArg = FALSE;
while(j<(int)strlen(argv[i]) && !nextArg) {
switch(argv[i][j]) {
case 'v':
vflag = TRUE;
if ((i+1)<(argc-1)) {
i++;
nextArg = TRUE;
errno = 0;
volNum = atoi(argv[i]);
if (errno!=0 || volNum<0) {
fprintf(stderr,"invalid volume number, aborting.\n");
exit(1);
}
}
else
fprintf(stderr,"no volume number, -v option ignored.\n");
break;
case 'l':
lflag = TRUE;
xflag = FALSE;
break;
case 's':
sflag = TRUE;
break;
case 'c':
cflag = TRUE;
break;
case 'r':
rflag = TRUE;
break;
case 'd':
if (devname!=NULL && xflag && (i+1)==(argc-1)) {
i++;
dirname = argv[i];
if (dirname[strlen(dirname)-1]==DIRSEP)
dirname[strlen(dirname)-1]='\0';
nextArg = TRUE;
dflag = TRUE;
}
break;
case 'p':
if (xflag) {
fprintf(stderr,"sending files to pipe.\n");
pflag = TRUE;
qflag = TRUE;
}
else
fprintf(stderr,"-p option must be used with extraction, ignored.\n");
break;
case 'h':
default:
help();
exit(0);
} /* switch */
j++;
} /* while */
} /* if */
else {
/* the last non option string is taken as a filename */
if (devname==NULL) /* if the device name has been already given */
devname = argv[i];
else {
if (xflag) {
if (rtfiles==NULL)
rtfiles = files = newCell(NULL, (void*)argv[i]);
else
files = newCell(files, (void*)argv[i]);
}
else
fprintf(stderr,"Must be used with extraction, ignored.\n");
}
}
i++;
} /* while */
extbuf =(unsigned char*)malloc(EXTBUFL*sizeof(char));
if (!extbuf) { fprintf(stderr,"malloc error\n"); exit(1); }
/* initialize the library */
adfEnvInitDefault();
dev = adfMountDev( devname,TRUE );
if (!dev) {
sprintf(strbuf,"Can't mount the dump device '%s'.\n", devname);
fprintf(stderr, strbuf);
adfEnvCleanUp(); exit(1);
}
if (!qflag)
printDev(dev);
if (volNum>=dev->nVol) {
fprintf(stderr,"This device has only %d volume(s), aborting.\n",dev->nVol);
exit(1);
}
vol = adfMount(dev, volNum, TRUE);
if (!vol) {
adfUnMountDev(dev);
fprintf(stderr, "Can't mount the volume\n");
adfEnvCleanUp(); exit(1);
}
if (!qflag) {
printVol(vol, volNum);
putchar('\n');
}
if (cflag && isDIRCACHE(vol->dosType) && lflag) {
adfChgEnvProp(PR_USEDIRC,&true);
if (!qflag)
puts("Using dir cache blocks.");
}
if (lflag) {
if (!rflag) {
cell = list = adfGetDirEnt(vol,vol->curDirPtr);
while(cell) {
printEnt(vol,cell->content,"", sflag);
cell = cell->next;
}
adfFreeDirList(list);
} else {
cell = list = adfGetRDirEnt(vol,vol->curDirPtr,TRUE);
printTree(vol,cell,"", sflag);
adfFreeDirList(list);
}
}else if (xflag) {
if (rtfiles!=NULL) {
files = rtfiles;
while(files!=NULL) {
if (dirname!=NULL)
processFile(vol, (char*)files->content, dirname, extbuf, pflag, qflag);
else
processFile(vol, (char*)files->content, "", extbuf, pflag, qflag);
files = files->next;
}
freeList(rtfiles);
}
else {
cell = list = adfGetRDirEnt(vol,vol->curDirPtr,TRUE);
if (dirname==NULL)
extractTree(vol, cell, "", extbuf, pflag, qflag);
else
extractTree(vol, cell, dirname, extbuf, pflag, qflag);
adfFreeDirList(list);
}
}
else
help();
free(extbuf);
adfUnMount(vol);
adfUnMountDev(dev);
adfEnvCleanUp();
return(0);
}
/*
* adfMountHd
*
* normal not used directly : called by adfMount()
*
* fills geometry fields and volumes list (dev->nVol and dev->volList[])
*/
RETCODE adfMountHd(struct Device *dev)
{
struct bRDSKblock rdsk;
struct bPARTblock part;
struct bFSHDblock fshd;
struct bLSEGblock lseg;
int32_t next;
struct List *vList, *listRoot;
int i;
struct Volume* vol;
int len;
if (adfReadRDSKblock( dev, &rdsk )!=RC_OK)
return RC_ERROR;
dev->cylinders = rdsk.cylinders;
dev->heads = rdsk.heads;
dev->sectors = rdsk.sectors;
/* PART blocks */
listRoot = NULL;
next = rdsk.partitionList;
dev->nVol=0;
vList = NULL;
while( next!=-1 ) {
if (adfReadPARTblock( dev, next, &part )!=RC_OK) {
adfFreeTmpVolList(listRoot);
(*adfEnv.eFct)("adfMountHd : malloc");
return RC_ERROR;
}
vol=(struct Volume*)malloc(sizeof(struct Volume));
if (!vol) {
adfFreeTmpVolList(listRoot);
(*adfEnv.eFct)("adfMountHd : malloc");
return RC_ERROR;
}
vol->volName=NULL;
dev->nVol++;
vol->firstBlock = rdsk.cylBlocks * part.lowCyl;
vol->lastBlock = (part.highCyl+1)*rdsk.cylBlocks -1 ;
vol->rootBlock = (vol->lastBlock - vol->firstBlock+1)/2;
vol->blockSize = part.blockSize*4;
len = min(31, part.nameLen);
vol->volName = (char*)malloc(len+1);
if (!vol->volName) {
adfFreeTmpVolList(listRoot);
(*adfEnv.eFct)("adfMount : malloc");
return RC_ERROR;
}
memcpy(vol->volName,part.name,len);
vol->volName[len] = '\0';
vol->mounted = FALSE;
/* stores temporaly the volumes in a linked list */
if (listRoot==NULL)
vList = listRoot = newCell(NULL, (void*)vol);
else
vList = newCell(vList, (void*)vol);
if (vList==NULL) {
adfFreeTmpVolList(listRoot);
(*adfEnv.eFct)("adfMount : newCell() malloc");
return RC_ERROR;
}
next = part.next;
}
/* stores the list in an array */
dev->volList = (struct Volume**)malloc(sizeof(struct Volume*) * dev->nVol);
if (!dev->volList) {
adfFreeTmpVolList(listRoot);
(*adfEnv.eFct)("adfMount : unknown device type");
return RC_ERROR;
}
vList = listRoot;
for(i=0; i<dev->nVol; i++) {
dev->volList[i]=(struct Volume*)vList->content;
vList = vList->next;
}
freeList(listRoot);
next = rdsk.fileSysHdrList;
while( next!=-1 ) {
if (adfReadFSHDblock( dev, next, &fshd )!=RC_OK) {
for(i=0;i<dev->nVol;i++) free(dev->volList[i]);
free(dev->volList);
(*adfEnv.eFct)("adfMount : adfReadFSHDblock");
return RC_ERROR;
}
next = fshd.next;
}
next = fshd.segListBlock;
while( next!=-1 ) {
if (adfReadLSEGblock( dev, next, &lseg )!=RC_OK) {
(*adfEnv.wFct)("adfMount : adfReadLSEGblock");
}
next = lseg.next;
}
return RC_OK;
}
/*
* adfGetRDirEnt
*
*/
struct List* adfGetRDirEnt(struct Volume* vol, SECTNUM nSect, BOOL recurs )
{
struct bEntryBlock entryBlk;
struct List *cell, *head;
int i;
struct Entry *entry;
SECTNUM nextSector;
int32_t *hashTable;
struct bEntryBlock parent;
if (adfEnv.useDirCache && isDIRCACHE(vol->dosType))
return (adfGetDirEntCache(vol, nSect, recurs ));
if (adfReadEntryBlock(vol,nSect,&parent)!=RC_OK)
return NULL;
hashTable = parent.hashTable;
cell = head = NULL;
for(i=0; i<HT_SIZE; i++) {
if (hashTable[i]!=0) {
entry = (struct Entry *)calloc(1,sizeof(struct Entry));
if (!entry) {
adfFreeDirList(head);
(*adfEnv.eFct)("adfGetDirEnt : malloc");
return NULL;
}
if (adfReadEntryBlock(vol, hashTable[i], &entryBlk)!=RC_OK) {
adfFreeDirList(head);
return NULL;
}
if (adfEntBlock2Entry(&entryBlk, entry)!=RC_OK) {
adfFreeDirList(head); return NULL;
}
entry->sector = hashTable[i];
if (head==NULL)
head = cell = newCell(0, (void*)entry);
else
cell = newCell(cell, (void*)entry);
if (cell==NULL) {
adfFreeDirList(head); return NULL;
}
if (recurs && entry->type==ST_DIR)
cell->subdir = adfGetRDirEnt(vol,entry->sector,recurs);
/* same hashcode linked list */
nextSector = entryBlk.nextSameHash;
while( nextSector!=0 ) {
entry = (struct Entry *)calloc(1,sizeof(struct Entry));
if (!entry) {
adfFreeDirList(head);
(*adfEnv.eFct)("adfGetDirEnt : malloc");
return NULL;
}
if (adfReadEntryBlock(vol, nextSector, &entryBlk)!=RC_OK) {
adfFreeDirList(head); return NULL;
}
if (adfEntBlock2Entry(&entryBlk, entry)!=RC_OK) {
adfFreeDirList(head);
return NULL;
}
entry->sector = nextSector;
cell = newCell(cell, (void*)entry);
if (cell==NULL) {
adfFreeDirList(head); return NULL;
}
if (recurs && entry->type==ST_DIR)
cell->subdir = adfGetRDirEnt(vol,entry->sector,recurs);
nextSector = entryBlk.nextSameHash;
}
}
}
/* if (parent.extension && isDIRCACHE(vol->dosType) )
adfReadDirCache(vol,parent.extension);
*/
return head;
}
/*
* Завантажуємо шаблон кросворду з БД
*/
void tableTemplateWidget::loadFromDB()
{
if (templateId == 0)
return;
isMaked = false;
int countRecord = -1;
int rowNo, colNo, valNo, countWordsNo;
int row, col, val;
QSqlQuery query;
query.prepare("SELECT _rows, _columns, _count_words FROM crossword.templates WHERE _id = ?;");
query.addBindValue(QVariant(templateId));
query.exec();
QSqlError le = query.lastError();
if (le.type() == QSqlError::NoError)
{
if (query.isActive() && query.isSelect())
countRecord = query.size();
else
countRecord = -1;
if (countRecord > 0)
{
query.first();
rowNo = query.record().indexOf("_rows");
colNo = query.record().indexOf("_columns");
countWordsNo = query.record().indexOf("_count_words");
numRow = query.value(rowNo).toInt();
numCol = query.value(colNo).toInt();
countWords = query.value(countWordsNo).toInt();
setRowCount(numRow);
setColumnCount(numCol);
}
query.finish();
}
else
qDebug() << "loadFromDB: " << le.text();
query.prepare("SELECT _row, _column, _value FROM crossword.grids WHERE _template = ?;");
query.addBindValue(QVariant(templateId));
query.exec();
le = query.lastError();
if (le.type() == QSqlError::NoError)
{
if (query.isActive() && query.isSelect())
countRecord = query.size();
else
countRecord = -1;
if (countRecord > 0 && countRecord == numRow*numCol)
{
rowNo = query.record().indexOf("_row");
colNo = query.record().indexOf("_column");
valNo = query.record().indexOf("_value");
while (query.next())
{
row = query.value(rowNo).toInt();
col = query.value(colNo).toInt();
val = query.value(valNo).toInt();
newCell(row, col, val);
}
query.finish();
}
}
else
qDebug() << "loadFromDB: " << le.text();
loadPrivateData();
}
