int printElement(Tny *tny, int level)
{
if (tny->type == TNY_NULL) {
printf("NULL\n");
} else if (tny->type == TNY_OBJ) {
printf("\n");
printObj(tny->value.tny, level + 1);
} else if (tny->type == TNY_BIN) {
printf("%s\n", (char*)tny->value.ptr);
} else if (tny->type == TNY_INT32) {
printf("%"PRIu32"\n", (uint32_t)tny->value.num);
} else if (tny->type == TNY_INT64) {
printf("%"PRIu64"\n", tny->value.num);
} else if (tny->type == TNY_CHAR) {
printf("%c\n", tny->value.chr);
} else if (tny->type == TNY_DOUBLE) {
printf("%g\n", tny->value.flt);
} else {
return 1;
}
return 0;
}
int main(int argc, char *argv[])
{
struct sockaddr_in serverAddr;
struct sockaddr_in clientAddr;
int clntSock = -1;
ssize_t size = -1;
int read = 0;
obj o;
if (argc != 2)
{
fprintf(stderr, "Usage %s <Server Port>\n", argv[0]);
exit(1);
}
(void) signal(SIGCHLD, childDieHandler);
int sd=socket(AF_INET,SOCK_STREAM,IPPROTO_TCP);
bzero(&serverAddr,sizeof(serverAddr));
serverAddr.sin_family=AF_INET;
serverAddr.sin_addr.s_addr=htonl(INADDR_ANY); //hton(l&s): coherence du format avec internet (Big Endian)
serverAddr.sin_port=htons(atoi(argv[1]));// s=short et l=long
if(bind(sd,(struct sockaddr *) &serverAddr, sizeof(serverAddr))< 0)
{
perror("error bind");
exit(1);
}
if (listen(sd,SOMAXCONN)<0)
{
perror("error listen");
exit(1);
}
while (1)
{
printf("Wait client connection...\n");
int cltSize = sizeof clientAddr;
if ((clntSock = accept(sd, (struct sockaddr *) &clientAddr, &cltSize)) < 0)
{
perror("error accept");
exit(1);
}
printf("Accept client %s\n", inet_ntoa(clientAddr.sin_addr));
pid_t pid=fork();
if (pid < 0)
{
perror("error fork\n");
}
if (pid ==0) // child
{
printf("Client %s run on process %d\n", inet_ntoa(clientAddr.sin_addr), getpid());
while (1)
{
if (recvObj(clntSock, &o) < 0) {
perror("recvObj");
exit(1);
}
printf("recv from client %s (pid=%d): ", inet_ntoa(clientAddr.sin_addr), getpid());
printObj(&o);
putchar('\n');
//printf("o.iqt = %d\n", o.iqt);
sleep(1);
if (o.iqt < 0) break;
else {
// change object
strcpy(o.chaine12, "yooo");
strcpy(o.chaine, "je suis le serveur");
// send it
int s = sizeof(o);
send(clntSock,&s,sizeof(s),0);
send(clntSock,&o,sizeof(o),0);
}
}
printf("End client %s (pid=%d)\n", inet_ntoa(clientAddr.sin_addr), getpid());
close(clntSock);
exit(0);
}
else
{
// father, do nothing
}
}
return 0;
}
void
printStackChunk( StgPtr sp, StgPtr spBottom )
{
StgWord bitmap;
const StgInfoTable *info;
ASSERT(sp <= spBottom);
for (; sp < spBottom; sp += stack_frame_sizeW((StgClosure *)sp)) {
info = get_itbl((StgClosure *)sp);
switch (info->type) {
case UPDATE_FRAME:
case CATCH_FRAME:
case UNDERFLOW_FRAME:
case STOP_FRAME:
printObj((StgClosure*)sp);
continue;
case RET_DYN:
{
StgRetDyn* r;
StgPtr p;
StgWord dyn;
nat size;
r = (StgRetDyn *)sp;
dyn = r->liveness;
debugBelch("RET_DYN (%p)\n", r);
p = (P_)(r->payload);
printSmallBitmap(spBottom, sp,
RET_DYN_LIVENESS(r->liveness),
RET_DYN_BITMAP_SIZE);
p += RET_DYN_BITMAP_SIZE + RET_DYN_NONPTR_REGS_SIZE;
for (size = RET_DYN_NONPTRS(dyn); size > 0; size--) {
debugBelch(" stk[%ld] (%p) = ", (long)(spBottom-p), p);
debugBelch("Word# %ld\n", (long)*p);
p++;
}
for (size = RET_DYN_PTRS(dyn); size > 0; size--) {
debugBelch(" stk[%ld] (%p) = ", (long)(spBottom-p), p);
printPtr(p);
p++;
}
continue;
}
case RET_SMALL:
debugBelch("RET_SMALL (%p)\n", info);
bitmap = info->layout.bitmap;
printSmallBitmap(spBottom, sp+1,
BITMAP_BITS(bitmap), BITMAP_SIZE(bitmap));
continue;
case RET_BCO: {
StgBCO *bco;
bco = ((StgBCO *)sp[1]);
debugBelch("RET_BCO (%p)\n", sp);
printLargeBitmap(spBottom, sp+2,
BCO_BITMAP(bco), BCO_BITMAP_SIZE(bco));
continue;
}
case RET_BIG:
barf("todo");
case RET_FUN:
{
StgFunInfoTable *fun_info;
StgRetFun *ret_fun;
ret_fun = (StgRetFun *)sp;
fun_info = get_fun_itbl(ret_fun->fun);
debugBelch("RET_FUN (%p) (type=%d)\n", ret_fun->fun, (int)fun_info->f.fun_type);
switch (fun_info->f.fun_type) {
case ARG_GEN:
printSmallBitmap(spBottom, sp+2,
BITMAP_BITS(fun_info->f.b.bitmap),
BITMAP_SIZE(fun_info->f.b.bitmap));
break;
case ARG_GEN_BIG:
printLargeBitmap(spBottom, sp+2,
GET_FUN_LARGE_BITMAP(fun_info),
GET_FUN_LARGE_BITMAP(fun_info)->size);
break;
default:
printSmallBitmap(spBottom, sp+2,
BITMAP_BITS(stg_arg_bitmaps[fun_info->f.fun_type]),
BITMAP_SIZE(stg_arg_bitmaps[fun_info->f.fun_type]));
break;
}
continue;
}
default:
debugBelch("unknown object %d\n", (int)info->type);
barf("printStackChunk");
}
}
}
static void nodeObs(vector<BitObj*> &extents, ofstream &obs, int num_obs) {
cout << "Writing node objects to obs.txt...\n";
for (int i = 0; i < extents.size(); ++i) {
printObj(extents[i]->A, obs, num_obs);
}
}
int main(int argc, const char * argv[]) {
ifstream fstream("input.txt");
ofstream edges("edges.txt");
ofstream coords("coords.txt");
ofstream obs("obs.txt");
ofstream json("fca.json");
vector<string> input;
string line;
if (fstream.is_open()) {
while (getline(fstream, line)) {
input.push_back(line);
}
fstream.close();
int num_obs = (int)input.size();
unordered_set<bitset<MAX> > concepts;
vector<BitObj*> extents;
findConc(input, concepts, extents);
vector<bitset<MAX> > relation(concepts.size());
nodeJSON(extents, json);
findEdges(extents, relation, edges);
linkJSON(json);
findCoords(extents, coords);
nodeObs(extents, obs, num_obs);
//Set operations
ifstream com("com.txt");
cout << "Computing operations...\n";
string line;
while (getline(com, line)) {
cout << '\n';
bitset<MAX> A = convInput(line.substr(2), num_obs);
cout << "Input A: ";
printObj(A, cout, num_obs);
switch (line[0]) {
case 'c':
cout << "Closure of A: ";
printObj(closure(extents, A).second, cout, num_obs);
break;
case 'b':
cout << "Boundary of A: ";
printObj(boundary(extents, A, num_obs).second, cout, num_obs);
break;
case 'i':
cout << "Interior of A: ";
printObj(interior(extents, A, num_obs), cout, num_obs);
break;
case 'd':
cout << "Derived set of A: ";
printObj(derived(extents, A, num_obs), cout, num_obs);
break;
case 's':
cout << "Isolated point of A: ";
printObj(isolated(extents, A, num_obs), cout, num_obs);
break;
}
}
for (BitObj *b : extents)
delete b;
}
else
cerr << "Unable to open file" << endl;
return 0;
}
Capability *
interpretBCO (Capability* cap)
{
// Use of register here is primarily to make it clear to compilers
// that these entities are non-aliasable.
register StgPtr Sp; // local state -- stack pointer
register StgPtr SpLim; // local state -- stack lim pointer
register StgClosure *tagged_obj = 0, *obj;
nat n, m;
LOAD_STACK_POINTERS;
cap->r.rHpLim = (P_)1; // HpLim is the context-switch flag; when it
// goes to zero we must return to the scheduler.
// ------------------------------------------------------------------------
// Case 1:
//
// We have a closure to evaluate. Stack looks like:
//
// | XXXX_info |
// +---------------+
// Sp | -------------------> closure
// +---------------+
//
if (Sp[0] == (W_)&stg_enter_info) {
Sp++;
goto eval;
}
// ------------------------------------------------------------------------
// Case 2:
//
// We have a BCO application to perform. Stack looks like:
//
// | .... |
// +---------------+
// | arg1 |
// +---------------+
// | BCO |
// +---------------+
// Sp | RET_BCO |
// +---------------+
//
else if (Sp[0] == (W_)&stg_apply_interp_info) {
obj = UNTAG_CLOSURE((StgClosure *)Sp[1]);
Sp += 2;
goto run_BCO_fun;
}
// ------------------------------------------------------------------------
// Case 3:
//
// We have an unboxed value to return. See comment before
// do_return_unboxed, below.
//
else {
goto do_return_unboxed;
}
// Evaluate the object on top of the stack.
eval:
tagged_obj = (StgClosure*)Sp[0]; Sp++;
eval_obj:
obj = UNTAG_CLOSURE(tagged_obj);
INTERP_TICK(it_total_evals);
IF_DEBUG(interpreter,
debugBelch(
"\n---------------------------------------------------------------\n");
debugBelch("Evaluating: "); printObj(obj);
debugBelch("Sp = %p\n", Sp);
debugBelch("\n" );
printStackChunk(Sp,cap->r.rCurrentTSO->stackobj->stack+cap->r.rCurrentTSO->stackobj->stack_size);
debugBelch("\n\n");
);
// Prints the message passed in by eventStr and then
// proceeds to call printObj to print the information about
// the object that's triggered the notification.
//
void
printDbEvent(const AcDbObject* pObj, const char* pEvent)
{
acutPrintf(" Event: AcDbDatabaseReactor::%s ", pEvent);
printObj(pObj);
}
void
printStackChunk( StgPtr sp, StgPtr spBottom )
{
StgWord bitmap;
const StgInfoTable *info;
ASSERT(sp <= spBottom);
for (; sp < spBottom; sp += stack_frame_sizeW((StgClosure *)sp)) {
info = get_itbl((StgClosure *)sp);
switch (info->type) {
case UPDATE_FRAME:
case CATCH_FRAME:
case UNDERFLOW_FRAME:
case STOP_FRAME:
printObj((StgClosure*)sp);
continue;
case RET_SMALL:
debugBelch("RET_SMALL (%p)\n", info);
bitmap = info->layout.bitmap;
printSmallBitmap(spBottom, sp+1,
BITMAP_BITS(bitmap), BITMAP_SIZE(bitmap));
continue;
case RET_BCO: {
StgBCO *bco;
bco = ((StgBCO *)sp[1]);
debugBelch("RET_BCO (%p)\n", sp);
printLargeBitmap(spBottom, sp+2,
BCO_BITMAP(bco), BCO_BITMAP_SIZE(bco));
continue;
}
case RET_BIG:
barf("todo");
case RET_FUN:
{
StgFunInfoTable *fun_info;
StgRetFun *ret_fun;
ret_fun = (StgRetFun *)sp;
fun_info = get_fun_itbl(ret_fun->fun);
debugBelch("RET_FUN (%p) (type=%d)\n", ret_fun->fun, (int)fun_info->f.fun_type);
switch (fun_info->f.fun_type) {
case ARG_GEN:
printSmallBitmap(spBottom, sp+2,
BITMAP_BITS(fun_info->f.b.bitmap),
BITMAP_SIZE(fun_info->f.b.bitmap));
break;
case ARG_GEN_BIG:
printLargeBitmap(spBottom, sp+2,
GET_FUN_LARGE_BITMAP(fun_info),
GET_FUN_LARGE_BITMAP(fun_info)->size);
break;
default:
printSmallBitmap(spBottom, sp+2,
BITMAP_BITS(stg_arg_bitmaps[fun_info->f.fun_type]),
BITMAP_SIZE(stg_arg_bitmaps[fun_info->f.fun_type]));
break;
}
continue;
}
default:
debugBelch("unknown object %d\n", (int)info->type);
barf("printStackChunk");
}
}
}
void VMachine::showObj(){
for(int index = 0;index<MAX_OBJ;index++)
if(ObjTable[index].t==NUMBER||ObjTable[index].t==BOOLEAN)
printObj(ObjTable[index]);
}
// port internet =10 000 + 45 = 10045 (incrementer entre deux tests (+100))
int main(int argc, char *argv[])
{
struct sockaddr_in serverAddr;
struct sockaddr_in clientAddr;
int clntSock = -1;
if (argc != 2)
{
fprintf(stderr, "Usage %s <Server Port>\n", argv[0]);
exit(1);
}
int sd=socket(AF_INET,SOCK_STREAM,IPPROTO_TCP);
bzero(&serverAddr,sizeof(serverAddr));
serverAddr.sin_family=AF_INET;
serverAddr.sin_addr.s_addr=htonl(INADDR_ANY); //hton(l&s): coherence du format avec internet (Big Endian)
serverAddr.sin_port=htons(atoi(argv[1]));// s=short et l=long
if(bind(sd,(struct sockaddr *) &serverAddr, sizeof(serverAddr))< 0)
{
perror("error bind");
exit(1);
}
if (listen(sd,SOMAXCONN)<0)
{
perror("error listen");
exit(1);
}
while (1)
{
printf("Wait client connection...\n");
int cltSize = sizeof clientAddr;
if ((clntSock = accept(sd, (struct sockaddr *) &clientAddr, &cltSize)) < 0)
{
perror("error accept");
exit(1);
}
printf("client %s\n",inet_ntoa(clientAddr.sin_addr));
pid_t pid=fork();
if (pid < 0)
{
perror("error fork\n");
}
if (pid ==0)
{
obj o;
int size;
printf("Fils\n");
while (1)
{
if ((size=recv(clntSock, &o, sizeof(o), 0)) < 0)
{
perror("error rcv");
exit(1);
}
if (size!=sizeof(o))
{
perror("size");
exit(1);
}
printObj(&o);
putchar('\n');
if (o.iqt < 0) break;
}
exit(0);
}
else
{ //cas du pere
printf("Pere\n");
int status=-1;
waitpid(pid, &status, WUNTRACED);
printf("pid : %d\n", status);
if (status == 0)
{
close(clntSock);
break;
}
}
}
printf("Arret serveur\n");
return 0;
}
int main (int argc, const char* argv[]) {
if (argc <= 1) {
fprintf(stderr, "Usage: visualize-archived-object <archived-file>\n\n");
return 0;
}
CFStringRef fileNameAsCFString = CFStringCreateWithCString(NULL, argv[1], 0);
CFURLRef fileURL = CFURLCreateWithFileSystemPath(NULL, fileNameAsCFString, kCFURLPOSIXPathStyle, false);
CFRelease(fileNameAsCFString);
CFReadStreamRef readStream = CFReadStreamCreateWithFile(NULL, fileURL);
CFRelease(fileURL);
if (!readStream) {
fprintf(stderr, "Error: Cannot open file for reading.\n\n");
return 1;
}
if (!CFReadStreamOpen(readStream)) {
fprintf(stderr, "Error: Cannot open file for reading.\n\n");
CFRelease(readStream);
return 2;
}
CFStringRef errStr = NULL;
CFPropertyListRef val = CFPropertyListCreateFromStream(NULL, readStream, 0, kCFPropertyListImmutable, NULL, &errStr);
CFReadStreamClose(readStream);
CFRelease(readStream);
if (errStr != NULL) {
CFIndex strlength = CFStringGetLength(errStr)*3+1;
char* res_cstring = malloc(strlength);
CFStringGetCString(errStr, res_cstring, strlength, 0);
fprintf(stderr, "Error: Cannot parse file as serialized property list.\n%s\n\n", res_cstring);
CFRelease(errStr);
free(res_cstring);
if (val != NULL)
CFRelease(val);
return 3;
}
if (CFGetTypeID(val) != CFDictionaryGetTypeID()) {
fprintf(stderr, "Error: Not a dictionary.");
CFRelease(val);
return 4;
}
CFStringRef archiver = CFDictionaryGetValue(val, CFSTR("$archiver"));
if (archiver == NULL || !CFEqual(archiver, CFSTR("NSKeyedArchiver"))) {
fprintf(stderr, "Error: Not encoded using an NSKeyedArchiver.");
CFRelease(val);
return 5;
}
CFArrayRef objs = CFDictionaryGetValue(val, CFSTR("$objects"));
if (objs == NULL || CFGetTypeID(objs) != CFArrayGetTypeID()) {
fprintf(stderr, "Error: $objects is not an array.");
CFRelease(val);
return 6;
}
CFIndex objsCount = CFArrayGetCount(objs);
CFDictionaryRef topObj = CFDictionaryGetValue(val, CFSTR("$top"));
if (topObj == NULL || CFGetTypeID(topObj) != CFDictionaryGetTypeID()) {
CFShow(topObj);
fprintf(stderr, "Error: $top is not a dictionary.");
CFRelease(val);
return 7;
}
int* refCount = calloc(objsCount, sizeof(int));
CFArrayApplyFunction(objs, CFRangeMake(0, objsCount), (CFArrayApplierFunction)&refCounter, refCount);
struct printContext c;
c.tabs = 0;
c.refCount = refCount;
c.objs = objs;
printf("%s", "top = ");
printObj(topObj, &c);
printf(";\n\n");
for (CFIndex i = 0; i < objsCount; ++ i)
if (refCount[i] > 1) {
CFPropertyListRef refObj = CFArrayGetValueAtIndex(objs, i);
if (isComplexObj(refObj)) {
printf("/*CF$UID; referenced %u times*/ %ld = ", refCount[i], i);
printObj(refObj, &c);
printf(";\n\n");
}
}
free(refCount);
CFRelease(val);
return 0;
}
static void printObjAsArrayEntry(CFPropertyListRef value, struct printContext* c) {
for (unsigned i = 0; i < c->tabs; ++ i)
printf("\t");
printObj(value, c);
printf(",\n");
}