int main(int argc,char *argv[],char *envp[])
{
int fdA,fdB,fdDelayA,fdDelayB;
int status;
char *bufferA,*bufferB;
pid_t pid;
pagesize = getpagesize();
if ((prepareFile("A",&fdA))
|| (prepareFile("B",&fdB))
|| (prepareFile("DelayA",&fdDelayA))
|| (prepareFile("DelayB",&fdDelayB))
|| (mapBuffer(&bufferA,fdDelayA,fdB))
|| (mapBuffer(&bufferB,fdDelayB,fdA)))
exit(1);
pid = fork();
if (pid == 0)
{
status = startIO(fdA,bufferA);
exit(status);
}
if (pid == -1)
{
exit(1);
}
status = startIO(fdB,bufferB);
exit(status);
}
void Network::connectToServer(const char* p_URL, unsigned short p_Port, actionDoneCallback p_DoneHandler, void* p_UserData)
{
NetworkLogger::log(NetworkLogger::Level::INFO, "Connecting to server");
m_ClientConnection.reset();
m_ClientConnect.reset();
m_IO_Service.reset();
if (m_IO_Thread.joinable())
{
m_IO_Thread.join();
}
m_ClientConnect.reset(new ClientConnect(m_IO_Service, p_URL, p_Port, std::bind(&Network::clientConnectionDone, this, std::placeholders::_1, p_DoneHandler, p_UserData)));
startIO();
}
void BCSPImplementation::runStack()
{
//here's where we actually run round in a loop calling the scheduler...
while(!mStackMustDie)
{
uint32 timeNow = ms_clock() ;
uint32 wakeupTime = scheduler(mStack,timeNow) ;
//now see if we can do anything with the uart...
//try sending ...
if(!mXMITBusy)
{
//copy stuff out of stack output buffer
mXMITBytesAvailable = numBytesInTransmitBuffer(mStack) ;
if (mXMITBytesAvailable)
{
readFromTransmitBuffer(mStack,mXMITBuffer, mXMITBytesAvailable) ;
if (mXMITBytesAvailable)
{
BTRACE0(IO,"-->") ;
for (unsigned int c = 0 ; c < mXMITBytesAvailable ; c++)
PLAINBTRACE1(IO," %02x",mXMITBuffer[c]) ;
PLAINBTRACE0(IO,"\n") ;
}
}
}
//now startup I/O - non-zero indicates that the read or write has returned immediately
if (!startIO() && isStackIdle(mStack))
wait(wakeupTime) ;
//now try loading the stack receive buffer
if (mRCVBytesAvailable &&(mRCVBytesAvailable <= numFreeSlotsInReceiveBuffer(mStack)))
{
if (mRCVBytesAvailable)
{
BTRACE0(IO,"<--") ;
for (unsigned int c = 0 ; c < mRCVBytesAvailable ; c++) PLAINBTRACE1(IO," %02x",mRCVBuffer[c]) ;
PLAINBTRACE0(IO,"\n") ;
}
writeToReceiveBuffer(mStack,mRCVBuffer,(uint8) mRCVBytesAvailable) ;
mRCVBytesAvailable = 0 ;
}
}
//we'll return if we get the stackmustdie signal
}
void ControlReaderThread::handleEvent(struct usb_functionfs_event *event)
{
MTP_LOG_INFO("Event: " << event_names[event->type]);
switch(event->type) {
case FUNCTIONFS_ENABLE:
case FUNCTIONFS_RESUME:
emit startIO();
break;
case FUNCTIONFS_DISABLE:
case FUNCTIONFS_SUSPEND:
emit stopIO();
break;
case FUNCTIONFS_SETUP:
setupRequest((void*)event);
break;
default:
break;
}
}
void Component::run()
{
try {
std::cerr << "starting component " << name << "..." << std::endl;
startIO();
std::cerr << " ... " << name << " ready." << std::endl;
} catch (std::exception & ex) {
log->error("Cannot startup component:", &ex);
try {
state = STATE_FAILURE;
meta.reportState(state, "Cannot startup component:", &ex);
} catch (CMSException & me) {
log->error("cannot report failure state", & me);
}
requestExit();
}
while (!exitRequested()) {
// Report that we are alive before we check system ready status,
// (in case we were stalled due to a long act() or react() this
// means we "report back" to the rest of the system)
meta.IamAlive();
//printf("run %i\n",exitRequested());
// Check at every loop that the total system is ready
bool exitFlag = false;
synchronized (&meta) {
if (!meta.isSystemReady()) {
log->info("waiting for system to become ready");
}
while (!meta.isSystemReady()) {
try {
meta.wait(1000);
} catch (decaf::lang::Exception & ie) {
ie.printStackTrace();
}
if (meta.isSystemReady()) {
log->info("system ready - let's go");
}
if (exitRequested()) {
exitFlag = true;
break;
}
}
}
if (exitFlag) break;
try {
// Check if we should do something proactively:
long long before = System::currentTimeMillis();
act();
long long timeSpentInAct = System::currentTimeMillis() - before;
meta.statistics()->actTime((long)timeSpentInAct);
} catch (std::exception & e) {
log->error("error when trying to act", & e);
try {
state = STATE_FAILURE;
meta.reportState(state, "error when trying to act", &e);
} catch (CMSException & me) {
log->error("cannot report failure state", & me);
}
requestExit();
return;
}
Receiver * r = NULL;
synchronized (&mutex) {
if (inputWaiting.empty()) {
// block until input becomes available
mutex.wait(waitingTime);
}
// check again
if (!inputWaiting.empty()) {
r = inputWaiting.front();
inputWaiting.pop();
}
}
if (r == NULL) continue;
//assert(receivers.contains(r)); // the receiver that alerted us is not one of our receivers;
SEMAINEMessage * message = r->getMessage();
assert(message != NULL); // Receiver alerted me but has no message
meta.statistics()->countMessageReceived();
try {
// time that the message travelled, in "user" time (ms since system startup -- this should be independent of clock asynchrony)
long long timeMessageTravelled = meta.getTime() - message->getUsertime();
meta.statistics()->transmitTime((long)timeMessageTravelled);
// Now, do something meaningful with the message,
// and possibly send output via the Senders.
long long before = System::currentTimeMillis();
react(message);
delete message;
long long timeSpentInReact = System::currentTimeMillis() - before;
meta.statistics()->reactTime((long)timeSpentInReact);
} catch (std::exception & e) {
log->error("error when trying to react", &e);
try {
state = STATE_FAILURE;
std::string errMsg = CMSLogger::toLogMessageText("error when trying to react", &e)
+ "(message was: " + CMSLogger::message2logString(message) + ")";
meta.reportState(state, errMsg);
} catch (CMSException & me) {
log->error("cannot report failure state", & me);
}
requestExit();
return;
}
}
}