void KUrlCompletionTest::testLocalURL()
{
// Completion from URL
kDebug() ;
KUrl url( m_dirURL.toLocalFile() + "file" );
m_completion->makeCompletion( url.prettyUrl() );
waitForCompletion();
QStringList comp1all = m_completion->allMatches();
kDebug() << comp1all;
assert( comp1all.count() == 3 );
kDebug() << "Looking for" << m_dirURL.prettyUrl() + "file1";
assert( comp1all.contains( m_dirURL.prettyUrl() + "file1" ) );
assert( comp1all.contains( m_dirURL.prettyUrl() + "file_subdir/" ) );
QString filehash = m_dirURL.prettyUrl() + "file%23a";
assert( comp1all.contains( filehash ) );
QString filehashPath = m_completion->replacedPath( filehash ); // note that it returns a path!!
kDebug() << filehashPath;
assert( filehashPath == m_dirURL.toLocalFile() + "file#a" );
// Completion from URL with no match
url = KUrl( m_dirURL.toLocalFile() + "foobar" );
kDebug() << "makeCompletion(" << url << ")";
QString comp2 = m_completion->makeCompletion( url.prettyUrl() );
assert( comp2.isEmpty() );
waitForCompletion();
assert( m_completion->allMatches().isEmpty() );
// Completion from URL with a ref -> no match
url = KUrl( m_dirURL.toLocalFile() + 'f' );
url.setRef( "ref" );
kDebug() << "makeCompletion(" << url << ")";
m_completion->makeCompletion( url.prettyUrl() );
waitForCompletion();
assert( m_completion->allMatches().isEmpty() );
}
void KUrlCompletionTest::testLocalRelativePath()
{
kDebug() ;
// Completion from relative path, with two matches
m_completion->makeCompletion( "f" );
waitForCompletion();
QStringList comp1all = m_completion->allMatches();
kDebug() << comp1all;
assert( comp1all.count() == 3 );
assert( comp1all.contains( "file1" ) );
assert( comp1all.contains( "file#a" ) );
assert( comp1all.contains( "file_subdir/" ) );
QString comp1 = m_completion->replacedPath( "file1" ); // like KUrlRequester does
assert( comp1 == "file1" );
// Completion from relative path
kDebug() << endl << "now completing on 'file#'";
m_completion->makeCompletion( "file#" );
waitForCompletion();
QStringList compall = m_completion->allMatches();
kDebug() << compall;
assert( compall.count() == 1 );
assert( compall.first() == "file#a" );
QString comp2 = m_completion->replacedPath( compall.first() ); // like KUrlRequester does
assert( comp2 == "file#a" );
// Completion with empty string
kDebug () << endl << "now completing on ''";
m_completion->makeCompletion( "" );
waitForCompletion();
QStringList compEmpty = m_completion->allMatches();
assert( compEmpty.count() == 0 );
}
SNextBlock* Filesystem::completionGetBlock(int64 pBlock)
{
std::map<int64, SNextBlock*>::iterator it = queued_next_blocks.find(pBlock);
if (it == queued_next_blocks.end())
{
do
{
overlapped_next_block = pBlock;
queueOverlappedReads(true);
it = queued_next_blocks.find(pBlock);
if (it == queued_next_blocks.end())
{
waitForCompletion(100);
it = queued_next_blocks.find(pBlock);
}
} while (it == queued_next_blocks.end());
}
else
{
queueOverlappedReads(false);
}
SNextBlock* next_block = it->second;
queued_next_blocks.erase(it);
size_t nwait = 0;
while (next_block->state == ENextBlockState_Queued)
{
if (nwait > 0)
{
next_block_callback->waitingForBlockCallback(pBlock);
}
if (!waitForCompletion(1000))
{
++nwait;
}
if (nwait == slow_read_warning_seconds)
{
next_block_callback->slowReadWarning(nwait * 1000, pBlock);
}
if (nwait >= max_read_wait_seconds)
{
errcode = fs_error_read_timeout;
has_error = true;
return NULL;
}
}
if (next_block->state != ENextBlockState_Ready)
{
free_next_blocks.push(next_block);
return NULL;
}
return next_block;
}
void testWriteAll()
{
uint16_t addr;
getReady();
// Enable write
writeOpAddr(EWEN_OPCODE, EWEN_OPCODE_BITS, 0, EWEN_ADDR_BITS);
standby();
// Fill all memory
writeOpAddr(WRAL_OPCODE, WRAL_OPCODE_BITS, 0, WRAL_ADDR_BITS);
writeData(0xABBA);
standby();
if (waitForCompletion()) {
stop();
getReady();
// Write successful -- verify all memory
for ( addr=0; addr < EEPROM93C46::SIZE; addr++ ) {
CPPUNIT_ASSERT_EQUAL((uint16_t)0xABBA, readAt(addr));
}
}
else {
CPPUNIT_FAIL("EEPROM write was not completed");
}
stop();
}
/**
* writeTo - Write a word to specified address
* @addr: address to write to
* @value: value to store
*
* Returns false if write did not complete.
*
* Note: Make sure EEPROM is selected and writable before attempting
* to write. Use getReady() and stop() to select/deselect
* EEPROM.
**/
bool EEPROMTest::writeTo(uint16_t addr, uint16_t value)
{
writeOpAddr(WRITE_OPCODE, WRITE_OPCODE_BITS, addr, WRITE_ADDR_BITS);
writeData(value);
standby();
return waitForCompletion();
}
STDMETHODIMP ProgressWrap::WaitForCompletion(LONG aTimeout)
{
LogRelFlow(("{%p} %s:enter aTimeout=%RI32\n", this, "Progress::waitForCompletion", aTimeout));
VirtualBoxBase::clearError();
HRESULT hrc;
try
{
AutoCaller autoCaller(this);
if (FAILED(autoCaller.rc()))
throw autoCaller.rc();
hrc = waitForCompletion(aTimeout);
}
catch (HRESULT hrc2)
{
hrc = hrc2;
}
catch (...)
{
hrc = VirtualBoxBase::handleUnexpectedExceptions(this, RT_SRC_POS);
}
LogRelFlow(("{%p} %s: leave hrc=%Rhrc\n", this, "Progress::waitForCompletion", hrc));
return hrc;
}
void Simplify4x4QuadraticsThreaded_Test(int& testsRun)
{
SkDebugf("%s\n", __FUNCTION__);
#ifdef SK_DEBUG
gDebugMaxWindSum = 4; // FIXME: 3?
gDebugMaxWindValue = 4;
#endif
const char testStr[] = "testQuadratic";
initializeTests(testStr, sizeof(testStr));
int testsStart = testsRun;
int a = 0;
#define SKIP_A 0
#if SKIP_A
a = 2;
#endif
for (; a < 16; ++a) {
for (int b = a ; b < 16; ++b) {
for (int c = b ; c < 16; ++c) {
for (int d = c; d < 16; ++d) {
testsRun += dispatchTest4(testSimplify4x4QuadraticsMain,
a, b, c, d);
}
if (!gRunTestsInOneThread) SkDebugf(".");
}
if (!gRunTestsInOneThread) SkDebugf("%d", b);
}
if (!gRunTestsInOneThread) SkDebugf("\n%d", a);
}
testsRun += waitForCompletion();
SkDebugf("%s tests=%d total=%d\n", __FUNCTION__, testsRun - testsStart, testsRun);
}
asynStatus mar345::erase()
{
int numErase;
int i;
asynStatus status=asynSuccess;
//const char *functionName = "erase";
getIntegerParam(mar345NumErase, &numErase);
if (numErase < 1) numErase=1;
setIntegerParam(ADStatus, mar345StatusErase);
setIntegerParam(mar345NumErased, 0);
callParamCallbacks();
for (i=0; i<numErase; i++) {
if (epicsEventTryWait(this->abortEventId) == epicsEventWaitOK) {
status = asynError;
break;
}
epicsSnprintf(this->toServer, sizeof(this->toServer), "COMMAND ERASE");
writeServer(this->toServer);
status = waitForCompletion("SCAN_DATA Ended o.k.", MAR345_COMMAND_TIMEOUT);
if (status) break;
setIntegerParam(mar345NumErased, i+1);
callParamCallbacks();
}
setIntegerParam(ADStatus, mar345StatusIdle);
setIntegerParam(mar345Erase, 0);
callParamCallbacks();
return(status);
}
void ShapeOps4x4RectsThreaded_Test(int& testsRun)
{
SkDebugf("%s\n", __FUNCTION__);
#ifdef SK_DEBUG
gDebugMaxWindSum = 4;
gDebugMaxWindValue = 4;
#endif
const char testLineStr[] = "testOp";
initializeTests(testLineStr, sizeof(testLineStr));
int testsStart = testsRun;
for (int a = 0; a < 6; ++a) { // outermost
for (int b = a + 1; b < 7; ++b) {
for (int c = 0 ; c < 6; ++c) {
for (int d = c + 1; d < 7; ++d) {
testsRun += dispatchTest4(testShapeOps4x4RectsMain, a, b, c, d);
}
if (!gRunTestsInOneThread) SkDebugf(".");
}
if (!gRunTestsInOneThread) SkDebugf("%d", b);
}
if (!gRunTestsInOneThread) SkDebugf("\n%d", a);
}
testsRun += waitForCompletion();
SkDebugf("%s tests=%d total=%d\n", __FUNCTION__, testsRun - testsStart, testsRun);
}
int SonarSRF::getRange(char unit, bool andStart){
if (andStart == true) {
startRanging(unit);
waitForCompletion();
}
int result = 0; // the result is two bytes long
// send I2C request for data
Wire.beginTransmission(_address); // start communicating with SRFmodule
Wire.write(ResultRegister); // Call the register for start of ranging data
Wire.endTransmission();
Wire.requestFrom(_address, 2);
// wait for two bytes to return
int i = 0;
while (Wire.available() < 2 ) {
delay(1);
}
// read the two bytes, and combine them into one int
result = Wire.read() * 256;
result += Wire.read();
// return the result:
return result;
}
boost::optional<Future<TransactionCoordinator::CommitDecision>>
TransactionCoordinatorService::coordinateCommit(OperationContext* opCtx,
LogicalSessionId lsid,
TxnNumber txnNumber,
const std::set<ShardId>& participantList) {
auto coordinator = _coordinatorCatalog->get(lsid, txnNumber);
if (!coordinator) {
return boost::none;
}
Action initialAction = coordinator->recvCoordinateCommit(participantList);
if (initialAction != Action::kNone) {
launchCoordinateCommitTask(_threadPool, coordinator, lsid, txnNumber, initialAction);
}
return coordinator->waitForCompletion().then([](auto finalState) {
switch (finalState) {
case TransactionCoordinator::StateMachine::State::kAborted:
return TransactionCoordinator::CommitDecision::kAbort;
case TransactionCoordinator::StateMachine::State::kCommitted:
return TransactionCoordinator::CommitDecision::kCommit;
default:
MONGO_UNREACHABLE;
}
});
// TODO (SERVER-37364): Re-enable the coordinator returning the decision as soon as the decision
// is made durable. Currently the coordinator waits to hear acks because participants in prepare
// reject requests with a higher transaction number, causing tests to fail.
// return coordinator.get()->waitForDecision();
}
AsyncIO::~AsyncIO() {
if (*this) {
if (CancelIoEx(m_fh, nullptr))
waitForCompletion();
CloseHandle(m_fh);
}
}
void testEraseAll()
{
//unused: int i;
uint16_t addr = 0x1F;
getReady();
// Enable write
writeOpAddr(EWEN_OPCODE, EWEN_OPCODE_BITS, 0, EWEN_ADDR_BITS);
standby();
// Fill all memory
writeOpAddr(WRITE_OPCODE, WRITE_OPCODE_BITS, addr, WRITE_ADDR_BITS);
writeData(0);
standby();
if (waitForCompletion()) {
stop();
getReady();
// Write successful -- verify random location
CPPUNIT_ASSERT_EQUAL((uint16_t)0, readAt(addr));
stop();
getReady();
writeOpAddr(ERAL_OPCODE, ERAL_OPCODE_BITS, addr, ERAL_ADDR_BITS);
standby();
if (!waitForCompletion()) {
CPPUNIT_FAIL("EEPROM erase was not completed");
stop();
return;
}
standby();
writeOpAddr(EWDS_OPCODE, EWDS_OPCODE_BITS, 0, EWDS_ADDR_BITS);
stop();
getReady();
for ( addr=0; addr < EEPROM93C46::SIZE; addr++ ) {
CPPUNIT_ASSERT_EQUAL((uint16_t)0xFFFF, readAt(addr));
}
}
else {
CPPUNIT_FAIL("EEPROM write was not completed");
}
stop();
}
void Thread::kill(Handle& thread)
{
#ifdef HAVE_PTHREAD_CANCEL
int state = pthread_cancel(thread);
if (state)
Firebird::system_call_failed::raise("pthread_cancel", state);
waitForCompletion(thread);
#endif
}
// EXCEPTIONS: CProcessFailure
// TO DO: clean up error reporting
// use dialog to say we're busy and give a cancel button
void CToneGenProcess::processANAFile(CProcessStatus& status)
{
LPCTSTR kOutputExt = ".txz";
LPCTSTR kLogExt = ".tgp";
LPCTSTR kCMDExt = ".cmt";
try
{
ASSERTX(status.getOutputLang());
CString sBase = status.getInputMFS()->getAbrev() + status.getOutputMFS()->getAbrev() + "-tgen";
m_sOutputTextPath = status.makeTempPath(status.sANAPath.getFileName(), kOutputExt);
m_sLOGPath = status.makeTempPath(sBase, ".log" );
m_sCMDPath =status.makeTempPath(sBase, ".cmd");
outputSupportFiles(status);
m_sOutputTextPath.deleteFile(); // don't care if it is found or not
m_sLOGPath.deleteFile(); // don't care if it is found or not
if(!executeTool(status))
{
throw(CProcessFailure(this, "Unknown execution problem"));
}
waitForCompletion(&status, &m_sLOGPath, &m_sOutputTextPath);
// register ana output so the user can view it
CString sLabel(status.getOutputMFS()->getAbrev());
sLabel += " Text";
CResultStreamFile* textStream =
new CResultStreamFile(
new CResultStreamDescriptor(this,
"Synthesized Text",
"Target text synthesized by ToneGen (ToneGen synthesis)",
sLabel // language specific
),
m_sOutputTextPath.getFullPath(),
status.getOutputLang());
status.registerResultStream(textStream);
registerLog(status, m_sLOGPath, status.getOutputLang());
status.sRAWPath = m_sOutputTextPath;
}
catch(CProcessFailure failure)
{
registerLog(status, m_sLOGPath);
throw(failure);
}
catch(CString sError)
{
registerLog(status, m_sLOGPath);
throw(CProcessFailure(this, sError));
}
}
void KUrlCompletionTest::testEmptyCwd()
{
kDebug() ;
// Completion with empty string (with a KUrlCompletion whose cwd is "")
kDebug () << endl << "now completing on '' with empty cwd";
m_completionEmptyCwd->makeCompletion( "" );
waitForCompletion();
QStringList compEmpty = m_completionEmptyCwd->allMatches();
assert( compEmpty.count() == 0 );
}
AsyncIO& AsyncIO::operator=(AsyncIO&& other) {
if (*this) {
if (CancelIoEx(m_fh, nullptr))
waitForCompletion();
CloseHandle(m_fh);
}
m_fh = other.m_fh;
other.m_fh = INVALID_HANDLE_VALUE;
m_queue = std::move(other.m_queue);
m_maxBlock = other.m_maxBlock;
return *this;
}
bool UPTDestroyCallback::operator()(void *handle)
{
lock->_Lock(FILE__, __LINE__);
handle_ = handle;
getMailbox()->executeOrRegisterCallback(this);
if (synchronous) {
dbi_printf("%s[%d]: waiting for completion of callback\n", FILE__, __LINE__);
waitForCompletion();
}
lock->_Unlock(FILE__, __LINE__);
return true;
}
bool DestroyUnwindAddressSpaceCallback::operator()(unw_addr_space *as)
{
lock->_Lock(FILE__, __LINE__);
as_ = as;
getMailbox()->executeOrRegisterCallback(this);
if (synchronous) {
dbi_printf("%s[%d]: waiting for completion of callback\n", FILE__, __LINE__);
waitForCompletion();
}
lock->_Unlock(FILE__, __LINE__);
return true;
}
bool UPTCreateCallback::operator()(pid_t pid)
{
lock->_Lock(FILE__, __LINE__);
pid_ = pid;
getMailbox()->executeOrRegisterCallback(this);
if (synchronous) {
dbi_printf("%s[%d]: waiting for completion of callback\n", FILE__, __LINE__);
waitForCompletion();
}
lock->_Unlock(FILE__, __LINE__);
return true;
}
bool IsSignalFrameCallback::operator()(unw_cursor_t *cp)
{
lock->_Lock(FILE__, __LINE__);
cp_ = cp;
getMailbox()->executeOrRegisterCallback(this);
if (synchronous) {
dbi_printf("%s[%d]: waiting for completion of callback\n", FILE__, __LINE__);
waitForCompletion();
}
lock->_Unlock(FILE__, __LINE__);
return true;
}
bool CreateUnwindAddressSpaceCallback::operator()(unw_accessors_t *ap,
int byteorder)
{
lock->_Lock(FILE__, __LINE__);
ap_ = ap;
byteorder_ = byteorder;
getMailbox()->executeOrRegisterCallback(this);
if (synchronous) {
dbi_printf("%s[%d]: waiting for completion of callback\n", FILE__, __LINE__);
waitForCompletion();
}
lock->_Unlock(FILE__, __LINE__);
return true;
}
bool WaitpidCallback::operator()(pid_t pid, int *status, int options)
{
lock->_Lock(FILE__, __LINE__);
pid_ = pid;
status_ = status;
options_ = options;
getMailbox()->executeOrRegisterCallback(this);
if (synchronous) {
dbi_printf("%s[%d]: waiting for completion of callback\n", FILE__, __LINE__);
waitForCompletion();
}
lock->_Unlock(FILE__, __LINE__);
return true;
}
bool InitFrameCallback::operator()(unw_cursor_t *cp, unw_addr_space_t as, void *arg)
{
lock->_Lock(FILE__, __LINE__);
cp_ = cp;
as_ = as;
arg_ = arg;
getMailbox()->executeOrRegisterCallback(this);
if (synchronous) {
dbi_printf("%s[%d]: waiting for completion of callback\n", FILE__, __LINE__);
waitForCompletion();
}
lock->_Unlock(FILE__, __LINE__);
return true;
}
void KUrlCompletionTest::testLocalAbsolutePath()
{
// Completion from absolute path
kDebug() << m_dir+"file#";
m_completion->makeCompletion( m_dir + "file#" );
waitForCompletion();
QStringList compall = m_completion->allMatches();
kDebug() << compall;
assert( compall.count() == 1 );
QString comp = compall.first();
assert( comp == m_dir + "file#a" );
comp = m_completion->replacedPath( comp ); // like KUrlRequester does
assert( comp == m_dir + "file#a" );
}
bool SetFrameRegisterCallback::operator()(unw_cursor_t *cp,
unw_regnum_t reg,
unw_word_t val)
{
lock->_Lock(FILE__, __LINE__);
cp_ = cp;
reg_ = reg;
val_ = val;
getMailbox()->executeOrRegisterCallback(this);
if (synchronous) {
dbi_printf("%s[%d]: waiting for completion of callback\n", FILE__, __LINE__);
waitForCompletion();
}
lock->_Unlock(FILE__, __LINE__);
return true;
}
// Destroy threads and delete sharedThreadData.
vHavokCpuJobThreadPool::~vHavokCpuJobThreadPool()
{
waitForCompletion();
for (int i = 0; i < m_sharedThreadData.m_numThreads; i++)
{
WorkerThreadData& data = m_workerThreads[i];
data.m_killThread = true;
data.m_semaphore.release(); // sets the thread off to enable it to finish
}
for (int i = 0; i < m_sharedThreadData.m_numThreads; i++)
{
m_sharedThreadData.m_workerThreadFinished.acquire(); // wait for the N threads to actually end
}
hkReferencedObject::setLockMode( hkReferencedObject::LOCK_MODE_NONE);
}
int main(int argc, char** argv)
{
if (openUSBDevice() < 0) return -1;
printf("openUSBDevice complete...\n");
if (allocateTransfers() < 0) return -1;
printf("allocateTransfers() complete...\n");
submitTransfers();
printf("submitTransfers() complete..\n");
waitForCompletion();
deallocateUSBDevice();
return 0;
}
// EXCEPTIONS: CProcessFailure
// TO DO: clean up error reporting
// use dialog to say we're busy and give a cancel button
void CToneParseProcess::processANAFile(CProcessStatus& status)
{
try
{
CString sBase = status.m_sFileNameRoot +"-tpars";
m_sOutputANAPath = status.makeTempPath(sBase,".ana");
m_sLOGPath = status.makeTempPath(sBase, ".log" );
m_sCMDPath =status.makeTempPath(sBase, ".cmd");
outputSupportFiles(status);
m_sOutputANAPath.deleteFile(); // don't care if it is found or not
m_sLOGPath.deleteFile(); // don't care if it is found or not
if(!executeTool(status))
{
throw(CProcessFailure(this, "Failed to process the file with ToneParse"));
}
waitForCompletion(&status, &m_sOutputANAPath);
// register itx output so the user can view it
CResultStreamFile* anaStream =
new CResultStreamFile(
new CResultStreamDescriptor(this,
"TPARS ANA", //short description
"ANA Output of ToneParse", // long description
"TPARS ANA" // tab label
),
m_sOutputANAPath,
status.getInputLang());
status.registerResultStream(anaStream);
registerLog(status, m_sLOGPath, status.getInputLang());
status.sANAPath = m_sOutputANAPath;
}
catch(CString sError)
{
throw(CProcessFailure(this, sError));
}
}
int main( int argc, char** argv )
{
if ( argc < 2 )
{
std::cerr << "usage: " << argv[0] << " <entrypoint>" << std::endl;
return 1;
}
auto testCb = std::make_unique<TestCb>();
std::unique_ptr<medialibrary::IMediaLibrary> ml( NewMediaLibrary() );
ml->setVerbosity( medialibrary::LogLevel::Info );
ml->initialize( "/tmp/test.db", "/tmp/ml_thumbnails", testCb.get() );
ml->setDiscoverNetworkEnabled( true );
ml->start();
ml->discover( argv[1] );
auto res = testCb->waitForCompletion();
return res == true ? 0 : 1;
}