void initTerminal()
{
inputWrite = 0;
inputRead = 0;
lineBufferSize = 0;
termState.c_iflag = ICRNL;
termState.c_oflag = 0;
termState.c_cflag = 0;
termState.c_lflag = ECHO | ECHOE | ECHOK | ECHONL | ICANON | ISIG;
semInit2(&semCount, 0);
semInit(&semInput);
semInit(&semLineBuffer);
Inode *inode = vfsCreateInode(NULL, VFS_MODE_CHARDEV | 0620);
inode->pread = termRead;
inode->pwrite = termWrite;
inode->ioctl = termIoctl;
if (devfsAdd("tty0", inode) != 0)
{
panic("failed to create /dev/tty0");
};
};
void iniciar_mundo ()
{
int i, x, y;
/* Criar a memória partilhada para o mundo */
mundo = sharedInit ("shm.pesca-mundo", sizeof (Mundo));
/* Inicializar a memória partilhada do mundo */
mundo->estado_capitao = C_PLANEAR;
for (x = 0; x < DIMENSAO_MAR; x++) {
for (y = 0; y < DIMENSAO_MAR; y++) {
mundo->mar [x][y].barco = VAZIO;
mundo->mar [x][y].cardume = VAZIO;
}
}
mundo->hora_regressar = 0;
fifoInit (&mundo->espera_barcos);
mundo->barcos_cais = num_barcos;
mundo->peixes_cais = 0;
mundo->jornadas_pesca = num_jornadas_pesca;
/* Criar e inicializar os semáforos */
char *nome;
int max_digitos;
/* ... semáforos dos barcos... */
max_digitos = log (num_barcos) / log (10) + 1;
nome = malloc (strlen ("pesca-barco") + max_digitos + 1);
sem_barcos = semInit (*nome, max_digitos);
free (nome);
/* .. semáforos dos cardumes... */
max_digitos = log (num_cardumes) / log (10) + 1;
nome = malloc (strlen ("pesca-cardume") + max_digitos + 1);
sem_cardumes = semInit (*nome, max_digitos);
free (nome);
/* .. semaforos do mutex .. */
nome = malloc (strlen ("pesca-mutex"));
sem_cardumes = semInit (*nome, 0);
free (nome);
}
Socket *CreateTCPSocket()
{
TCPSocket *tcpsock = NEW(TCPSocket);
memset(tcpsock, 0, sizeof(TCPSocket));
semInit(&tcpsock->lock);
semInit2(&tcpsock->semConnected, 0);
semInit2(&tcpsock->semAck, 0);
semInit2(&tcpsock->semStop, 0);
semInit2(&tcpsock->semAckOut, 0);
semInit2(&tcpsock->semSendPut, TCP_BUFFER_SIZE);
semInit2(&tcpsock->semSendFetch, 0);
semInit2(&tcpsock->semRecvFetch, 0);
semInit2(&tcpsock->semConnWaiting, 0);
tcpsock->cntRecvPut = TCP_BUFFER_SIZE;
Socket *sock = (Socket*) tcpsock;
sock->bind = tcpsock_bind;
sock->connect = tcpsock_connect;
sock->close = tcpsock_close;
sock->shutdown = tcpsock_shutdown;
sock->packet = tcpsock_packet;
sock->sendto = tcpsock_sendto;
sock->recvfrom = tcpsock_recvfrom;
sock->pollinfo = tcpsock_pollinfo;
sock->getsockname = tcpsock_getsockname;
sock->getpeername = tcpsock_getpeername;
sock->listen = tcpsock_listen;
sock->accept = tcpsock_accept;
sock->geterr = tcpsock_geterr;
return sock;
};
/* ****************************************************************************
*
* AlarmManager::init -
*/
int AlarmManager::init(bool logAlreadyRaisedAlarms)
{
notificationErrorLogAlways = logAlreadyRaisedAlarms;
badInputLogAlways = logAlreadyRaisedAlarms;
dbErrorLogAlways = logAlreadyRaisedAlarms;
return semInit();
}
/* ****************************************************************************
*
* SubscriptionCache::init -
*/
void SubscriptionCache::init(void)
{
semInit();
semTake();
fillFromDb();
semGive();
}
// init my cache
void cacheInit(proxyCache *cache){
int i;
for(i = 0; i < linenum; i++){
cache->line[i].valid = 0;
cache->line[i].block = malloc(MAX_OBJECT_SIZE);
cache->line[i].tag = malloc(MAXLINE);
cache->line[i].counter = 0;
}
semInit(&rlock, &wlock);
}
// Initialize the buffer-cache in a shared memory block
buffcach *bc_ini() {
int i, j;
// avoid debugging file on init
dbm = 0;
// ensure key files existence
close(creat(_SHMKEYPATH_BC_, 0666));
close(creat(_SEMKEYPATH_BC_, 0666));
// allocate buffer-cache in shared memory
bc = (buffcach *)shmalloc(&bcshmid, _SHMKEY_BC_, _SIZE_BC_, 1);
// initialize free list
bc->header.freestart = 0;
bc->header.freeend = MAXBUFF - 1;
// initialize hash list
for (i = 0; i < MAXHASH; i++)
bc->header.hash[i] = -1;
// initialize slept list
for (i = 0; i < MAXSLPT; i++)
bc->header.slept[i] = -1;
// initialize buffers and link free list nodes
for (i = 0; i < MAXBUFF; i++) {
BS_CLR(bc->buffers[i].status, BS_LOCKED);
BS_CLR(bc->buffers[i].status, BS_VALID);
BS_CLR(bc->buffers[i].status, BS_DELAYED);
if (i > 0)
bc->buffers[i].freeprev = i - 1;
if (i < MAXBUFF - 1)
bc->buffers[i].freenext = i + 1;
bc->buffers[i].hashnext = -1;
for (j = 0; j < MAXSLPT; j++)
bc->buffers[i].slept[j] = -1;
}
bc->buffers[0].freeprev = -1;
bc->buffers[MAXBUFF - 1].freenext = -1;
// initialize mutex semaphore
semid = semInit(_SEMKEY_BC_, (short)1);
// initialize files table
ft_ini();
// return initialized buffer-cache structure
return bc;
}
xkern_return_t
bid_init(
XObj self)
{
Part_s p;
PState *ps = (PState *)self->state;
xTrace0(bidp, TR_GROSS_EVENTS, "bid Init");
if ( ! (ps = pathAlloc(self->path, sizeof(PState))) ) {
xTraceP0(self, TR_ERRORS, "allocation error");
return XK_FAILURE;
}
self->state = ps;
if ( ! xIsProtocol(xGetDown(self, BID_XPORT_I)) ) {
xTrace0(bidp, TR_ERRORS,
"bid could not get transport protocol -- aborting init");
return XK_FAILURE;
}
if ( ! xIsProtocol(xGetDown(self, BID_CTL_I)) ) {
xTrace0(bidp, TR_ERRORS,
"bid could not get control protocol -- aborting init");
return XK_FAILURE;
}
if ( xControl(xGetDown(self, BID_CTL_I), BIDCTL_GET_LOCAL_BID,
(char *)&ps->myBid, sizeof(BootId)) < (int)sizeof(BootId) ) {
xTrace0(bidp, TR_ERRORS, "bid could not get my bid -- aborting init");
return XK_FAILURE;
}
#if BID_CHECK_CLUSTERID
if ( xControl(xGetDown(self, BID_CTL_I), BIDCTL_GET_CLUSTERID,
(char *)&ps->myCluster, sizeof(ClusterId)) < (int)sizeof(ClusterId) ) {
xTrace0(bidp, TR_ERRORS, "bid could not get my clusterid -- aborting init");
return XK_FAILURE;
}
#endif /* BID_CHECK_CLUSTERID */
xTrace1(bidp, TR_GROSS_EVENTS, "bid using id == %x", ps->myBid);
ps->activeMap = mapCreate(BID_ACTIVE_MAP_SIZE, sizeof(ActiveKey),
self->path);
ps->passiveMap = mapCreate(BID_PASSIVE_MAP_SIZE, sizeof(PassiveKey),
self->path);
if ( ! ps->activeMap || ! ps->passiveMap ) {
xTraceP0(self, TR_ERRORS, "allocation error");
return XK_FAILURE;
}
semInit(&ps->sessnCreationSem, 1);
getProtlFuncs(self);
partInit(&p, 1);
partPush(p, ANY_HOST, 0);
if ( xOpenEnable(self, self, xGetDown(self, BID_XPORT_I), &p)
== XK_FAILURE ) {
xTrace0(bidp, TR_ERRORS, "openEnable failed in bid init");
return XK_FAILURE;
}
return XK_SUCCESS;
}
/* Exetuca as operações passadas de maneira segura, isso
* é, se os semáforos não existirem ele são criados. */
static void semSafeOp(struct sembuf *ops, size_t nops) {
while (semop(sem.id, ops, nops) == -1)
switch(errno) {
case EIDRM:
semInit();
break;
default:
/* Nunca deve acontecer. */
puts("Unknown error.");
exit(EXIT_FAILURE);
break;
}
}
/* ****************************************************************************
*
* semToString -
*
* The real test here would be to create a few threads and play with the semaphores ...
*
* Here I only exercise the code (which is also valid and important)
*
* This is only a wrapper function for the real semaphore function and as we're only testing
* the wrapper functions, there is no reason to do any more ...
*/
TEST(commonSem, unique)
{
int s;
s = semInit();
EXPECT_EQ(0, s);
s = reqSemGive(__FUNCTION__, "test");
EXPECT_EQ(0, s);
bool taken;
s = reqSemTake(__FUNCTION__, "test", SemReadWriteOp, &taken);
EXPECT_EQ(0, s);
EXPECT_TRUE(taken);
}
int
tryPush( XObj self, XObj sessn, int times, int length )
{
xkern_return_t xkr;
int i;
Msg_s savedMsg, request;
int c = 0;
PState *ps = (PState *)self->state;
#if MACH_KERNEL
tvalspec_t time_val_before, time_val_after;
#endif /* MACH_KERNEL */
xkr = msgConstructContig(&savedMsg, self->path,
(u_int)length,
TEST_STACK_SIZE);
if (xkr == XK_FAILURE) {
sprintf(errBuf, "Could not construct a msg of length %d\n",
length + TEST_STACK_SIZE);
Kabort(errBuf);
}
msgConstructContig(&request, self->path, 0, 0);
semInit(&ps->sema, 0);
ps->flushing = FALSE;
ps->partialcount = times - 1;
#if MACH_KERNEL
rtc_gettime(&ps->starttime);
rtc_gettime(&ps->partialtime);
#else
xGetTime(&ps->starttime);
#endif /* MACH_KERNEL */
for (i = 0; i < ps->groupsize; i++) {
msgAssign(&request, &savedMsg);
xkr = xPush(sessn, &request);
if( xkr == XK_FAILURE ) {
printf( "Dgram Push error %d\n" , xkr );
goto abort;
}
}
evSchedule(ps->evdgram, dgram_abort, self, 30000000);
semWait(&ps->sema);
evCancel(ps->evdgram);
abort:
msgDestroy(&savedMsg);
msgDestroy(&request);
return (times - ps->partialcount);
}
int sys_pipe(int *pipefd)
{
int rfd=-1, wfd=-1;
FileTable *ftab = getCurrentThread()->ftab;
spinlockAcquire(&ftab->spinlock);
int i;
for (i=0; i<MAX_OPEN_FILES; i++)
{
if (ftab->entries[i] == NULL)
{
if (rfd == -1)
{
rfd = i;
}
else if (wfd == -1)
{
wfd = i;
break;
};
};
};
if ((rfd == -1) || (wfd == -1))
{
getCurrentThread()->therrno = EMFILE;
return -1;
};
Pipe *pipe = (Pipe*) kmalloc(sizeof(Pipe));
semInit(&pipe->sem);
pipe->readcount = 0;
pipe->writecount = 0;
pipe->offRead = 0;
pipe->offWrite = 0;
pipe->size = 0;
ftab->entries[rfd] = openPipe(pipe, O_RDONLY);
ftab->entries[wfd] = openPipe(pipe, O_WRONLY);
pipefd[0] = rfd;
pipefd[1] = wfd;
spinlockRelease(&ftab->spinlock);
return 0;
};
int main(int argc, char const *argv[])
{
setbuf(stdout, NULL);
printf("%s created============\n",servername);
/////////SemGet and Init///////////
semid = semGet(SEMNUM);
printf("semid: %d\n",semid);
unsigned short arr[] = {1,0};
semInit(semid,arr,SEMNUM);
////////////////create famfifo///////////////
unlink(famfifo);
int ret = mkfifo(famfifo,0666);
assert(ret != -1);
ffd = open(famfifo,O_RDWR);
assert(ffd != -1);
////////////////////////////////////////////
//////////Create another thread to poll clients/////////
assert(pthread_mutex_init(&mut,NULL) == 0);
assert(pthread_create(&tid,NULL,pollFifo,NULL) == 0);
struct Request req;
int i;
while(1)
{
semWait(semid,1);
read(ffd,&req,REQSIZE);
printf("Request received from: %d\n",req.pid);
genearteFifo(req.pid);
cfd[numclients][INSTREAM] = ifd;
cfd[numclients][OUTSTREAM] = ofd;
pfd[numclients].fd = ifd;
pfd[numclients].events = POLLIN;
pfd[numclients].revents = 0;
////////Use MUTEX to CHANGE tHIS exclusively///////////
pthread_mutex_lock(&mut);
numclients++;
printf("numclients %d\n",numclients);
pthread_mutex_unlock(&mut);
//////////////////////////////////////
semSignal(semid,1);
}
return 0;
}
/* ****************************************************************************
*
* orionInit -
*/
void orionInit
(
OrionExitFunction exitFunction,
const char* version,
SemOpType reqPolicy,
bool _countersStatistics,
bool _semWaitStatistics,
bool _timingStatistics,
bool _notifQueueStatistics,
bool _checkIdv1
)
{
// Give the rest library the correct version string of this executable
versionSet(version);
// The function to call on fatal error
orionExitFunction = exitFunction;
// Initialize the semaphore used by mongoBackend
semInit(reqPolicy, _semWaitStatistics);
// Set timer object (singleton)
setTimer(new Timer());
// startTime for log library
if (gettimeofday(&logStartTime, NULL) != 0)
{
fprintf(stderr, "gettimeofday: %s\n", strerror(errno));
orionExitFunction(1, "gettimeofday error");
}
// Set start time and statisticsTime used by REST interface
startTime = logStartTime.tv_sec;
statisticsTime = startTime;
// Set other flags related with statistics
countersStatistics = _countersStatistics;
timingStatistics = _timingStatistics;
notifQueueStatistics = _notifQueueStatistics;
strncpy(transactionId, "N/A", sizeof(transactionId));
checkIdv1 = _checkIdv1;
}
//------------------------------------------------------------------------------
ThreadSwarm::ThreadSwarm(Shell &parent) :
ShellCommand(parent)
{
result res;
res = mutexInit(&queueLock);
if (res == E_OK)
res = semInit(&queueSynchronizer, THREAD_COUNT);
if (res != E_OK)
{
owner.log("swarm: initialization error");
exit(EXIT_FAILURE);
}
for (unsigned int i = 0; i < THREAD_COUNT; ++i)
{
WorkerThread *thread = new WorkerThread(*this);
thread->start();
pool.push(thread);
}
}
int main()
{
/*
* Create two threads
*/
/*
createGThread("numbers", numbers, NULL, STACK_SIZE);
createGThread("letters", letters, NULL, STACK_SIZE);
createGThread("others", others, NULL, STACK_SIZE);
createGThread("stuff", stuff, NULL, STACK_SIZE);
createGThread("inifi", infiniteCoucou, NULL, STACK_SIZE);
*/
createGThread("lol", infiniteLol, NULL, STACK_SIZE);
createGThread("truc", infiniteTruc, NULL, STACK_SIZE);
createGThread("coucou", infiniteCoucou, NULL, STACK_SIZE);
/*createGThread("others", others, NULL, STACK_SIZE);*/
/* To be sure they are all well created */
listThreads();
sem = malloc(sizeof(semaphore));
semInit(sem,0);
/* Scheduler call */
startSched();
/*
killGThread(numbersId);
killGThread(lettersId);
*/
printf("Exit application\n");
return 0;
}
//------------------------------------------------------------------------------
WorkerThread::WorkerThread(ThreadSwarm &parent) :
owner(parent),
finalize(false),
baseContext(nullptr),
argumentCount(0), firstArgument(nullptr)
{
result res;
res = semInit(&semaphore, 0);
if (res == E_OK)
{
res = threadInit(&thread, THREAD_SIZE, THREAD_PRIORITY,
workerThreadWrapper, this);
}
if (res != E_OK)
{
parent.owner.log("swarm: thread initialization error");
exit(EXIT_FAILURE);
}
threadOnTerminateCallback(&thread, workerTerminateWrapper, this);
}
N_CDECL(void, NimMain)(void) {
nim__datInit();
systemInit();
parseutilsInit();
strutilsInit();
timesInit();
posixInit();
osInit();
listsInit();
nhashesInit();
nstrtabsInit();
optionsInit();
msgsInit();
nversionInit();
crcInit();
platformInit();
ropesInit();
identsInit();
astInit();
rodutilsInit();
astalgoInit();
condsymsInit();
hashesInit();
strtabsInit();
streamsInit();
osprocInit();
extccompInit();
wordrecgInit();
commandsInit();
llstreamInit();
lexbaseInit();
scannerInit();
nimconfInit();
pnimsynInit();
pbracesInit();
rnimsynInit();
filtersInit();
ptmplsynInit();
syntaxesInit();
rodreadInit();
treesInit();
typesInit();
mathInit();
magicsysInit();
bitsetsInit();
nimsetsInit();
passesInit();
treetabInit();
semdataInit();
lookupsInit();
importerInit();
rodwriteInit();
semfoldInit();
evalsInit();
procfindInit();
pragmasInit();
suggestInit();
semInit();
rstInit();
highliteInit();
docgenInit();
ccgutilsInit();
cgmethInit();
cgenInit();
ecmasgenInit();
interactInit();
passauxInit();
dependsInit();
transfInit();
mainInit();
parseoptInit();
nimrodInit();
}
int main(int argc, char *argv[])
{
/* int err; <------ Unused. Commenting out */
int N; //number of cycles
int ping_cpu=0; //cpu number to pin the ping process
int pong_cpu=1; //cpu number to pin the pong process
int pingbusy = 0;
int pongbusy = 0;
int ncpus=0;
struct optbase *ob;
if(NULL == (ob = ReadOptions(argc, argv)))
return(1);
ncpus=sysconf( _SC_NPROCESSORS_ONLN );
if ( ncpus > 2) {
VerboseMessage ("number of cpu on the box %d\n",ncpus);
}
else{
ErrorMessage ("Not enough cpus to run the test\n");
return -1;
}
/*
The cpu_set_t data structure represents a set of CPUs. CPU sets are
used by sched_setaffinity(2) and similar interfaces.
cpu_set_t data type is implemented as a bitset.
mask should have only the total number of max cpu
*/
cpu_set_t mask[128];
/*
inizialize mask with all 0
*/
memset(mask, 0, sizeof(mask));
/*
work the test options
it must be update
*/
int min_cpu=0;
int max_cpu=ncpus-1;
int busy=1;
int nobusy=0;
GetOptionValue(ob, "PING_CPU", GOV_INT16, &ping_cpu, &min_cpu, &max_cpu, NULL);
GetOptionValue(ob, "PONG_CPU", GOV_INT16, &pong_cpu, &min_cpu, &max_cpu, NULL);
GetOptionValue(ob, "N", GOV_INT16, &N, NULL, NULL, NULL);
GetOptionValue(ob, "PING_BUSY", GOV_INT16, &pingbusy,&nobusy,&busy,NULL);
GetOptionValue(ob, "PONG_BUSY", GOV_INT16, &pongbusy,&nobusy,&busy,NULL);
EvalOptions(ob);
if (1<0){
if(argc < 4) {
usage(argv[0]);
return -1;
}
ping_cpu = atoi(argv[1]);
pong_cpu = atoi(argv[2]);
N = atoi(argv[3]);
if(argc > 4) {
if(strcmp(argv[4], "pongbusy") == 0)
pongbusy = 1;
else
if(strcmp(argv[4], "pingbusy") == 0)
pingbusy = 1;
}
if(argc > 5) {
if(strcmp(argv[5], "pongbusy") == 0)
pongbusy = 1;
else
if(strcmp(argv[5], "pingbusy") == 0)
pingbusy = 1;
}
}
/*
Let's create sem_open the two semaphore
oflag is O_CREATE, mode is
mode is 0600 S_IRUSR | S_IWUSR from umask
*/
semInit(&g_semPing, g_pingName);
semInit(&g_semPong, g_pongName);
if(fork() == 0) {
/* child
CPU_SET Add CPU cpu to set.
*/
VerboseMessage("run child\n");
CPU_SET(pong_cpu, mask);
sched_setaffinity(0, 128, mask); // If pid is zero, then the calling process is used.
if(pongbusy)
pong_busy(N);
else
pong(N);
TRY(sem_close(g_semPong), -1);
TRY(sem_unlink(g_pongName), -1);
VerboseMessage ("wrap child\n");
} else {
/* parent */
time_type start, finish;
/* time_type start_one, finish_one; <---- Unused. Commenting out */
VerboseMessage ("run parent\n");
CPU_SET(ping_cpu, mask);
sched_setaffinity(0, 128, mask);
getTime(&start);
if(pingbusy)
ping_busy(N);
else
ping(N);
VerboseMessage("wrapping parent\n");
getTime(&finish);
const long int elapsed = timeDiff(&start, &finish);
printf("avg RTT = %.1f nsec.\n", (elapsed * 1.0) / N);
TRY(sem_close(g_semPing), -1);
TRY(sem_unlink(g_pingName), -1);
}
return 0;
}
void initFSDrivers()
{
firstDriver = NULL;
semInit(&semFS);
};
static int isoMount(const char *image, FileSystem *fs, size_t szfs)
{
spinlockAcquire(&isoMountLock);
int error;
File *fp = vfsOpen(image, 0, &error);
if (fp == NULL)
{
spinlockRelease(&isoMountLock);
kprintf_debug("isofs: could not open %s\n", image);
return -1;
};
if (fp->seek == NULL)
{
spinlockRelease(&isoMountLock);
kprintf_debug("isofs: %s cannot seek\n", image);
vfsClose(fp);
return -1;
};
fp->seek(fp, 0x8000, SEEK_SET);
ISOPrimaryVolumeDescriptor primary;
if (vfsRead(fp, &primary, sizeof(ISOPrimaryVolumeDescriptor)) != sizeof(ISOPrimaryVolumeDescriptor))
{
spinlockRelease(&isoMountLock);
kprintf_debug("isofs: cannot read the whole ISOPrimaryVolumeDescriptor (EOF)\n");
vfsClose(fp);
return -1;
};
if (!checkPVD(&primary))
{
spinlockRelease(&isoMountLock);
kprintf_debug("isofs: the Primary Volume Descriptor is invalid\n");
vfsClose(fp);
return -1;
};
kprintf_debug("isofs: PVD validated\n");
ISOFileSystem *isofs = (ISOFileSystem*) kmalloc(sizeof(ISOFileSystem));
isofs->fp = fp;
semInit(&isofs->sem);
ISODirentHeader *rootDir = (ISODirentHeader*) &primary.rootDir;
isofs->rootStart = (uint64_t)rootDir->startLBA * (uint64_t)primary.blockSize;
isofs->rootEnd = isofs->rootStart + (uint64_t)rootDir->fileSize;
isofs->blockSize = (uint64_t)primary.blockSize;
isofs->numOpenInodes = 0;
kprintf_debug("isofs: root directory start LBA is %a, block size is %d\n", rootDir->startLBA, primary.blockSize);
fs->fsdata = isofs;
fs->fsname = "isofs";
fs->openroot = iso_openroot;
fs->unmount = iso_unmount;
isoMountCount++;
spinlockRelease(&isoMountLock);
return 0;
};
void PreMain() {
systemDatInit();
systemInit();
testabilityDatInit();
stdlibparseutilsDatInit();
stdlibstrutilsDatInit();
stdlibtimesDatInit();
stdlibposixDatInit();
stdlibosDatInit();
listsDatInit();
stdlibhashesDatInit();
stdlibstrtabsDatInit();
stdlibstreamsDatInit();
stdlibosprocDatInit();
stdlibmathDatInit();
stdlibsetsDatInit();
optionsDatInit();
stdlibtablesDatInit();
platformDatInit();
crcDatInit();
ropesDatInit();
stdlibunsignedDatInit();
stdlibsocketsDatInit();
msgsDatInit();
nversionDatInit();
identsDatInit();
condsymsDatInit();
extccompDatInit();
wordrecgDatInit();
babelcmdDatInit();
commandsDatInit();
llstreamDatInit();
nimlexbaseDatInit();
lexerDatInit();
nimconfDatInit();
stdlibintsetsDatInit();
idgenDatInit();
astDatInit();
rodutilsDatInit();
astalgoDatInit();
parserDatInit();
pbracesDatInit();
rendererDatInit();
filtersDatInit();
filter_tmplDatInit();
syntaxesDatInit();
treesDatInit();
typesDatInit();
stdlibmemfilesDatInit();
rodreadDatInit();
magicsysDatInit();
bitsetsDatInit();
nimsetsDatInit();
passesDatInit();
treetabDatInit();
vmdefDatInit();
semdataDatInit();
lookupsDatInit();
importerDatInit();
rodwriteDatInit();
saturateDatInit();
semfoldDatInit();
procfindDatInit();
pragmasDatInit();
semtypinstDatInit();
parampatternsDatInit();
stdliblexbaseDatInit();
stdlibunicodeDatInit();
stdlibjsonDatInit();
docutilsrstastDatInit();
docutilsrstDatInit();
docutilshighliteDatInit();
docutilsrstgenDatInit();
guardsDatInit();
sempass2DatInit();
stdlibmacrosDatInit();
stdlibxmltreeDatInit();
stdlibcookiesDatInit();
stdlibcgiDatInit();
typesrendererDatInit();
docgenDatInit();
stdlibalgorithmDatInit();
stdlibsequtilsDatInit();
prettyDatInit();
sigmatchDatInit();
cgmethDatInit();
loweringsDatInit();
lambdaliftingDatInit();
transfDatInit();
vmgenDatInit();
vmdepsDatInit();
evaltemplDatInit();
vmDatInit();
aliasesDatInit();
patternsDatInit();
semmacrosanityDatInit();
semDatInit();
ccgutilsDatInit();
cgendataDatInit();
ccgmergeDatInit();
cgenDatInit();
jsgenDatInit();
passauxDatInit();
dependsDatInit();
docgen2DatInit();
stdlibparseoptDatInit();
serviceDatInit();
modulesDatInit();
mainDatInit();
nimrodDatInit();
initStackBottom();
testabilityInit();
stdlibparseutilsInit();
stdlibstrutilsInit();
stdlibtimesInit();
stdlibposixInit();
stdlibosInit();
listsInit();
stdlibhashesInit();
stdlibstrtabsInit();
stdlibstreamsInit();
stdlibosprocInit();
stdlibmathInit();
stdlibsetsInit();
optionsInit();
stdlibtablesInit();
platformInit();
crcInit();
ropesInit();
stdlibunsignedInit();
stdlibsocketsInit();
msgsInit();
nversionInit();
identsInit();
condsymsInit();
extccompInit();
wordrecgInit();
babelcmdInit();
commandsInit();
llstreamInit();
nimlexbaseInit();
lexerInit();
nimconfInit();
stdlibintsetsInit();
idgenInit();
astInit();
rodutilsInit();
astalgoInit();
parserInit();
pbracesInit();
rendererInit();
filtersInit();
filter_tmplInit();
syntaxesInit();
treesInit();
typesInit();
stdlibmemfilesInit();
rodreadInit();
magicsysInit();
bitsetsInit();
nimsetsInit();
passesInit();
treetabInit();
vmdefInit();
semdataInit();
lookupsInit();
importerInit();
rodwriteInit();
saturateInit();
semfoldInit();
procfindInit();
pragmasInit();
semtypinstInit();
parampatternsInit();
stdliblexbaseInit();
stdlibunicodeInit();
stdlibjsonInit();
docutilsrstastInit();
docutilsrstInit();
docutilshighliteInit();
docutilsrstgenInit();
guardsInit();
sempass2Init();
stdlibmacrosInit();
stdlibxmltreeInit();
stdlibcookiesInit();
stdlibcgiInit();
typesrendererInit();
docgenInit();
stdlibalgorithmInit();
stdlibsequtilsInit();
prettyInit();
sigmatchInit();
cgmethInit();
loweringsInit();
lambdaliftingInit();
transfInit();
vmgenInit();
vmdepsInit();
evaltemplInit();
vmInit();
aliasesInit();
patternsInit();
semmacrosanityInit();
semInit();
ccgutilsInit();
cgendataInit();
ccgmergeInit();
cgenInit();
jsgenInit();
passauxInit();
dependsInit();
docgen2Init();
stdlibparseoptInit();
serviceInit();
modulesInit();
mainInit();
}
int sysPipe(int fd[2], int flags) {
int error = validateUserPointer(fd, sizeof(*fd) * 2);
if (error) return error;
int readFD;
int writeFD;
struct Process *proc = getCurrentThread()->process;
acquireSpinlock(&proc->fdLock);
struct ProcessFile *rf;
readFD = allocateFD(proc, &rf);
if (readFD < 0) {
error = readFD;
releaseSpinlock(&proc->fdLock);
goto release;
}
struct ProcessFile *wf;
writeFD = allocateFD(proc, &wf);
if (writeFD < 0) {
error = readFD;
releaseSpinlock(&proc->fdLock);
goto deallocReadFD;
}
void *buf = allocKPages(PIPE_BUF, PAGE_FLAG_WRITE);
if (!buf) {
error = -ENOMEM;
releaseSpinlock(&proc->fdLock);
goto deallocWriteFD;
}
struct Pipe *pipe = kmalloc(sizeof(*pipe));
if (!pipe) {
error = -ENOMEM;
releaseSpinlock(&proc->fdLock);
goto deallocBuf;
}
memset(pipe, 0, sizeof(*pipe));
pipe->buf = buf;
pipe->refCount = 2;
semInit(&pipe->bytesFree, PIPE_BUF);
semInit(&pipe->bytesUsed, 0);
if (flags & SYSOPEN_FLAG_CLOEXEC) {
rf->flags |= PROCFILE_FLAG_CLOEXEC;
}
rf->flags |= PROCFILE_FLAG_PIPE;
wf->flags = rf->flags | PROCFILE_FLAG_PIPE_WRITE;
rf->pipe = pipe;
wf->pipe = pipe;
fd[0] = readFD;
fd[1] = writeFD;
goto release;
deallocBuf:
deallocPages(buf, PIPE_BUF);
deallocWriteFD:
sysClose(writeFD);
deallocReadFD:
sysClose(readFD);
return error;
release:
releaseSpinlock(&proc->fdLock);
return error;
}
