int main6(int argc, char *argv[]) {
Intstack cell, co;
int rank, upb, nr = 0;
assert(argc > 1);
rank = atoi(argv[1]);
upb = 1 << rank;
co = newIntstack(upb, NULL);
cell = readCell();
while (cell) {
nr = getCnr();
printCell(nr, cell);
complement(upb, cell, co);
printf("COM ");
printCell(0, co);
freestack(cell);
printf("\n");
cell = readCell();
}
freestack(cell);
freestack(co);
#if 0
reportTime();
reportCnt();
#endif
finalizeScanner();
return 0;
}
static void* cycleWander(void *maxPtr) {
int maxX = *((int *) maxPtr);
int index = randUnif(1, 87);
int sleepFor = 0;
while (1) {
index = randNextCell(index);
pthread_mutex_lock(&mutex);
printFolly(maxX);
printCell(index, maxX);
sleepFor = randUnif(0, 4);
move(0, 0);
pthread_mutex_unlock(&mutex);
if (sleepFor == 0) {
usleep(250000);
} else if (sleepFor == 1) {
usleep(450000);
} else if (sleepFor == 2) {
usleep(500000);
} else if (sleepFor == 3) {
usleep(550000);
} else {
usleep(1250000);
}
}
return NULL;
}
void traceExit(CELL * result, CELL * cell, CELL * pCell, CELL * args)
{
if(traceFlag & (TRACE_IN_ENTRY | TRACE_IN_EXIT | TRACE_SIGNAL | TRACE_SIGINT | TRACE_TIMER)) return;
if(traceFlag == TRACE_PRINT_EVAL)
{
tracePrint("exit", result);
return;
}
traceFlag |= TRACE_IN_EXIT;
#ifdef DEBUGGER
if(traceFlag & TRACE_DEBUG_NEXT)
{
if(currentLevel >= recursionCount)
traceFlag &= ~TRACE_DEBUG_NEXT;
else
{
traceFlag &= ~TRACE_IN_EXIT;
return;
}
}
if( (pCell->type == CELL_LAMBDA || pCell->type == CELL_FEXPR)
&& args->type == CELL_SYMBOL)
{
if((UINT)recursionCount == *(debugStack + debugStackIdx - 2) )
{
debugStackIdx -= 2;
if(debugStackIdx > 0)
currentFunc = (SYMBOL *)*(debugStack + debugStackIdx - 1);
if(debugStackIdx == 0)
traceFlag &= ~TRACE_DEBUG_NEXT;
}
}
if(debugPrintFunction(cell))
{
varPrintf(OUT_CONSOLE, "\nRESULT: ");
printCell(result, TRUE, OUT_CONSOLE);
varPrintf(OUT_CONSOLE, "\n");
if(debugStackIdx > 0)
{
getDebuggerInput(DEBUG_EXIT);
if(!traceFlag) return;
}
}
if(traceFlag & TRACE_DEBUG_NEXT)
currentLevel = recursionCount;
#endif /* DEBUGGER */
traceFlag &= ~TRACE_IN_EXIT;
}
void tracePrint(char * label, CELL * expr)
{
UINT printDeviceSave = printDevice;
printDevice = tracePrintDevice;
varPrintf(OUT_DEVICE, "%d %s: ", recursionCount, label);
if(expr) printCell(expr, TRUE, OUT_DEVICE);
varPrintf(OUT_DEVICE, "%s", "\n");
printDevice = printDeviceSave;
}
void printTbl(htmltbl_t * tbl, int ind)
{
htmlcell_t **cells = tbl->u.n.cells;
indent(ind);
fprintf(stderr, "tbl %d %d ", tbl->cc, tbl->rc);
printData(&tbl->data);
fputs("\n", stderr);
while (*cells)
printCell(*cells++, ind + 1);
}
static int newLISP_eval_stream(lua_State *L, STREAM *strStream) {
CELL * cell = evaluateStream(strStream, 0, 1);
STREAM libStrStream = {0, NULL, NULL, 0, 0};
openStrStream(&libStrStream, 8192, 1);
printCell(cell, 0, (UINT)&libStrStream);
char * result = libStrStream.buffer;
lua_pushstring(L, result);
return 1;
}
void DualPolyhedron_3::makeConsistent()
{
DEBUG_START;
unsigned iIteration = 0;
unsigned numResolved = countResolvedItems();
std::set<std::pair<Cell_handle, unsigned>> touched;
while (numResolved < items.size())
{
std::cout << "===== Iteration #" << iIteration << " ====="
<< std::endl;
std::cout << " Resolved " << numResolved << " items from "
<< items.size() << std::endl;
const auto &outerCells = getOuterCells();
auto steps = iterate(outerCells, items, infinite_vertex());
auto it = steps.begin();
do
{
while (touched.find(std::make_pair(
it->cell, it->iNearest)) != touched.end())
++it;
ASSERT(it != steps.end()
&& "No possible step has been found.");
touched.insert(std::make_pair(it->cell, it->iNearest));
std::cout << "Next cell to be iterated on: ";
printCell(it->cell, infinite_vertex());
std::cout << "Nearest plane ID: " << it->iNearest
<< std::endl;
std::cout << "Nearest distance: " << it->distance
<< std::endl;
} while (!lift(it->cell, it->iNearest));
/* FIXME: Optimize this by local graph traversal */
initialize();
unsigned numResolvedPrev = numResolved;
numResolved = countResolvedItems();
std::cout << " Change in the number of resolved items: "
<< numResolved - numResolvedPrev << std::endl;
ASSERT(numResolved >= numResolvedPrev
&& "Degradation happened");
++iIteration;
}
DEBUG_END;
}
void Printer::printLine(string type, string line, string text, string val)
{
cout << _cellSeparator;
printCell(type, TOKEN_TYPE_LEN);
printCell(line, TOKEN_LINE_LEN);
printCell(text, TOKEN_TEXT_LEN);
size_t lpos = 0, rpos;
while ((rpos = val.find('\n', lpos)) != string::npos) {
printCell(val.substr(lpos, rpos - 1), TOKEN_VALUE_LEN, 1);
cout << endl << '|';
lpos = rpos + 1;
printCell("", TOKEN_TYPE_LEN);
printCell("", TOKEN_LINE_LEN);
printCell("", TOKEN_TEXT_LEN);
}
rpos = rpos != string::npos ? rpos : val.length();
printCell(val.substr(lpos, rpos), TOKEN_VALUE_LEN, 1);
cout << endl;
}
/*******************************************************************
* Function: void printMap(void)
* Input Variables: void
* Output Return: void
* Overview: Print the map
********************************************************************/
void printMap(void)
{
unsigned char r;
unsigned char c;
unsigned char cell;
unsigned char curRow = currentCellWorld >> 2;
unsigned char curCol = currentCellWorld & 0b0011;
BOOL isrobot;
for(r = 0; r < WORLD_ROW_SIZE; r++){
for(c = 0; c < WORLD_COLUMN_SIZE; c++){
cell = ROBOT_WORLD[r][c];
isrobot = (r == curRow)&&(c == curCol);
printCell(cell, r, c, isrobot, currentOrientation);
}
}
}
void printTreeRec(cellptr cell, int level)
{
int i, l;
nodeptr q;
for (i = 0; i < NCHILD; i++) {
if ((q = Child(cell)[i]) != NULL) {
if (Type(q) == BODY) {
for (l = 1; l < level; l++)
printf(" ");
printf("%d B ", findIndex((bodyptr) q, cell));
printBody((bodyptr) q);
printf("\n");
} else {
for (l = 1; l < level; l++)
printf(" ");
printf("%d C ", findIndex((bodyptr) q, cell));
printCell((cellptr) q);
printf("\n");
printTreeRec((cellptr) q, level + 1);
}
}
}
}
void
Maze::writeMazeToFile (void *pFile, bool isShowMouse)
{
char buf;
for (int i = 0; i < (mazeMAX_ROW_SIZE * 2 + 1); i++)
{
if (i % 2 == 0)
{
for (int j = 0; j < mazeMAX_COL_SIZE; j++)
{
switch (rowWall[i / 2][j])
{
case empty:
buf = '.';
break;
case wall:
buf = '_';
break;
case unknown:
buf = '*';
break;
case eWallError:
default:
printf("Error on rowWall!");
break;
}
fputc(' ', (FILE*) pFile);
fputc(buf, (FILE*) pFile);
}
fputc(' ', (FILE*) pFile);
}
else
{
for (int j = 0; j < mazeMAX_COL_SIZE + 1; j++)
{
switch (colWall[i / 2][j])
{
case empty:
buf = '.';
break;
case wall:
buf = '|';
break;
case unknown:
buf = '*';
break;
case eWallError:
default:
printf("Error on rowWall!");
break;
}
/* print wall first */
fputc(buf, (FILE*) pFile);
if(!(j >= mazeMAX_COL_SIZE))
{
printCell(i/2, j, isShowMouse, pFile);
}
}
}
/* print newline */
fputc('\r', (FILE*) pFile);
fputc('\n', (FILE*) pFile);
}
}
