void DoStart (GPtr globals)
{
ValidateParameters (globals);
/* if stuff hasn't been initialized that we need, do it,
then go check if we've got scripting commands to
override our settings */
// update our parameters with the scripting parameters, if available
ReadScriptParams (globals);
// always reset the global document descriptor for safety
gDocDesc = gDocInfo;
if (gQueryForParameters)
{
DoUI (globals); // Show the UI
gQueryForParameters = FALSE;
}
// Delete the memory we used for the Proxy view
ReleaseProxyMemory(globals);
if (gResult != noErr)
return;
// Do the actual filtering operation on the original image
DoEffect(globals);
}
void InitGlobals (Ptr globalPtr)
{
// create "globals" as a our struct global pointer so that any
// macros work:
GPtr globals = (GPtr)globalPtr;
gProxyRect.top = 0;
gProxyRect.bottom = 0;
gProxyRect.left = 0;
gProxyRect.right = 0;
gViewAllLayerData = FALSE;
gViewLayerIndex = 0;
gDocDesc = gDocInfo;
gScaleFactor = 1;
gChannelData = NULL;
gMaskData = NULL;
gSelectionData = NULL;
gOverlayData = NULL;
if (gStuff->sSPBasic->AcquireSuite( kPSChannelPortsSuite,
kPSChannelPortsSuiteVersion3,
(const void **)&gPSChannelPortsSuite))
gResult = errPlugInHostInsufficient;
if (gStuff->sSPBasic->AcquireSuite( kPSBufferSuite,
kPSBufferSuiteVersion2,
(const void **)&gPSBufferSuite64))
gResult = errPlugInHostInsufficient;
// Initialize global variables:
ValidateParameters (globals);
} // end InitGlobals
void DoParameters (GPtr globals)
{
ValidateParameters (globals);
gQueryForParameters = TRUE;
/* If we're here, that means we're being called for the first time. */
}
void EncryptionModeLRW::DecryptSectorsCurrentThread (byte *data, uint64 sectorIndex, uint64 sectorCount, size_t sectorSize) const
{
if_debug (ValidateState ());
if_debug (ValidateParameters (data, sectorCount, sectorSize));
DecryptBuffer (data,
sectorCount * sectorSize,
SectorToBlockIndex (sectorIndex));
}
void InitGlobals (Ptr globalPtr)
{
// create "globals" as a our struct global pointer so that any
// macros work:
GPtr globals = (GPtr)globalPtr;
// Initialize global variables:
ValidateParameters (globals);
} // end InitGlobals
void UAnimNotifyState_TimedParticleEffect::NotifyBegin(USkeletalMeshComponent * MeshComp, class UAnimSequenceBase * Animation, float TotalDuration)
{
// Only spawn if we've got valid params
if(ValidateParameters(MeshComp))
{
UParticleSystemComponent* NewComponent = UGameplayStatics::SpawnEmitterAttached(PSTemplate, MeshComp, SocketName, LocationOffset, RotationOffset);
}
Received_NotifyBegin(MeshComp, Animation, TotalDuration);
}
void USceneCapturer::SetInitialState( int32 InStartFrame, int32 InEndFrame, FStereoCaptureDoneDelegate& InStereoCaptureDoneDelegate )
{
if( bIsTicking )
{
UE_LOG( LogStereoPanorama, Warning, TEXT( "Already capturing a scene; concurrent captures are not allowed" ) );
return;
}
CapturePlayerController = UGameplayStatics::GetPlayerController( GWorld, 0 );
CaptureGameMode = UGameplayStatics::GetGameMode( GWorld );
if( CaptureGameMode == NULL || CapturePlayerController == NULL )
{
UE_LOG( LogStereoPanorama, Warning, TEXT( "Missing GameMode or PlayerController" ) );
return;
}
// Calculate the steps and validate they will produce good results
ValidateParameters();
// Setup starting criteria
StartFrame = InStartFrame;
EndFrame = InEndFrame;
CurrentFrameCount = 0;
CurrentStep = 0;
CaptureStep = ECaptureStep::Unpause;
Timestamp = FString::Printf( TEXT( "%s" ), *FDateTime::Now().ToString() );
//SetStartPosition();
// Create storage for atlas textures
check( UnprojectedAtlasWidth * UnprojectedAtlasHeight <= MAX_int32 );
UnprojectedLeftEyeAtlas.AddUninitialized( UnprojectedAtlasWidth * UnprojectedAtlasHeight );
UnprojectedRightEyeAtlas.AddUninitialized( UnprojectedAtlasWidth * UnprojectedAtlasHeight );
StartTime = FDateTime::UtcNow();
OverallStartTime = StartTime;
bIsTicking = true;
StereoCaptureDoneDelegate = InStereoCaptureDoneDelegate;
}
void DoStart (GPtr globals)
{
if (!WarnAdvanceStateAvailable ())
{
gResult = userCanceledErr; // exit gracefully
goto done;
}
if (!WarnColorServicesAvailable())
{
gResult = userCanceledErr; // exit gracefully
goto done;
}
ValidateParameters (globals);
/* if stuff hasn't been initialized that we need, do it,
then go check if we've got scripting commands to
override our settings */
gQueryForParameters = ReadScriptParams (globals); // update our parameters with the scripting parameters, if available
if (gQueryForParameters)
{
gQueryForParameters = FALSE;
if (!DoUI (globals))
goto done; // canceled
}
if (gResult != noErr)
goto done;
done:
// if one screws with the outData with a proxy, reset that here
PISetRect (&gStuff->inRect, 0, 0, 0, 0);
PISetRect (&gStuff->outRect, 0, 0, 0, 0);
PISetRect (&gStuff->maskRect, 0, 0, 0, 0);
}
BOOL ROBOT_IssueCommand(ArmId Arm, ArmAction Action, ArmRotate Rotate)
{
// Only accept a command if we aren't doing something already
if(!Robot.Busy)
{
RobotCommand cmd;
// Make sure the values make sense
if(ValidateParameters(Arm, Action, Rotate))
{
// Save values
cmd.Arm = Arm;
cmd.Rotate = Rotate;
switch(Action)
{
case FACE_CW :
cmd.Action = CW;
GenerateSequenceFace(cmd);
break;
case FACE_CCW :
cmd.Action = CCW;
GenerateSequenceFace(cmd);
break;
case CUBE_CW :
cmd.Action = CW;
GenerateSequenceCube(cmd);
break;
case CUBE_CCW :
cmd.Action = CCW;
GenerateSequenceCube(cmd);
break;
}
// Set robot as busy
Robot.Busy = TRUE;
return TRUE;
}
}
return FALSE;
}
int
set_machine_sid_main(
int argc,
char* argv[]
)
{
DWORD dwError = 0;
PSTR pszMachineSid = NULL;
size_t dwErrorBufferSize = 0;
BOOLEAN bPrintOrigError = TRUE;
if (geteuid() != 0) {
fprintf(stderr, "This program requires super-user privileges.\n");
dwError = LW_ERROR_ACCESS_DENIED;
BAIL_ON_LSA_ERROR(dwError);
}
dwError = ParseArgs(argc, argv,
&pszMachineSid);
BAIL_ON_LSA_ERROR(dwError);
dwError = ValidateParameters(pszMachineSid);
BAIL_ON_LSA_ERROR(dwError);
dwError = SetMachineSid(pszMachineSid);
BAIL_ON_LSA_ERROR(dwError);
cleanup:
if (pszMachineSid) {
LW_SAFE_FREE_STRING(pszMachineSid);
}
return dwError;
error:
dwError = MapErrorCode(dwError);
dwErrorBufferSize = LwGetErrorString(dwError, NULL, 0);
if (dwErrorBufferSize > 0)
{
DWORD dwError2 = 0;
PSTR pszErrorBuffer = NULL;
dwError2 = LwAllocateMemory(
dwErrorBufferSize,
(PVOID*)&pszErrorBuffer);
if (!dwError2)
{
DWORD dwLen = 0;
dwLen = LwGetErrorString(dwError,
pszErrorBuffer,
dwErrorBufferSize);
if ((dwLen == dwErrorBufferSize) &&
!LW_IS_NULL_OR_EMPTY_STR(pszErrorBuffer))
{
fprintf(stderr,
"Failed to modify SID. Error code %u (%s).\n%s\n",
dwError,
LW_PRINTF_STRING(LwWin32ExtErrorToName(dwError)),
pszErrorBuffer);
bPrintOrigError = FALSE;
}
}
LW_SAFE_FREE_STRING(pszErrorBuffer);
}
if (bPrintOrigError)
{
fprintf(stderr,
"Failed to modify SID. Error code %u (%s).\n",
dwError,
LW_PRINTF_STRING(LwWin32ExtErrorToName(dwError)));
}
goto cleanup;
}
void _CLASS_GEN(Algorithm)::run(CContextDataStore *dataStore, std::function<void (CContextDataStore *)> callback){
if(!IsBusy() && mSettings != nullptr && mLogger != nullptr && ValidateParameters(mSettings)){
executeAlgorithm(dataStore);
callback(dataStore);
}
}
void RunCommandLineSystem(int argc, char** argv){
string algorithmToRun="";
if(argc > ALGORITHM_NAME)
algorithmToRun = argv[ALGORITHM_NAME];
else {
cerr<<"Error: System went into command line system with no content.\n Switching to menu system.\n";
//return RunMenuSystem();
}
DilutionAlgorithms algorithm = GetDilutionAlgorithm(algorithmToRun);
DagGen * dag = NULL;
vector<string> parameters;
for(int i = ALGORITHM_ARGS_START; i< argc; ++i)
parameters.push_back(argv[i]);
string errorMessage;
if(!ValidateParameters(algorithm,parameters,errorMessage)){
cerr<<"Arguments for " << algorithmToRun << " invalid\n"<< errorMessage<<endl;
return;
}
if(!SILENCE_OUTPUT)
cout<<"Validated Parameters"<<endl;
switch(algorithm){
case MINMIX: /* Concentration Values, 7 7 5 5 3 3 2*/
if(!SILENCE_OUTPUT)
cout<<"Running MINMIX"<<endl;
dag = MinMix::RunMinMix(parameters);
break;
case REMIA: /*numerator denominator, 131 256*/
if(!SILENCE_OUTPUT)
cout<<"Running Remia"<<endl;
dag = Remia::RunRemia(parameters);
break;
case WARA: /*Single input and multi input, 27 59 223 256*/ //Broken needs to be re written.
//cout<<"Running Wara"<<endl;
//Wara::Run_Wara(dag,parameters);
break;
case GORMA: /*numerator denominator 121 256*/ //partially broken Needs branch and Bound
if(!SILENCE_OUTPUT)
cout<<"Running Gorma: This algorithm takes a while"<<endl;
dag= new DagGen();
Gorma::RunGorma(parameters,dag);
break;
case GDA:
//char * a[] = {"blah", "0", "1", ".5", "5"};
//GDA::RunGDA(5, a,dag);
break;
case CODOS: /* {"7","7", "5", "5", "3","3","2" };*/
if(!SILENCE_OUTPUT)
cout<<"Running CODOS"<<endl;
dag = CoDOS::RunCoDOS(parameters);
break;
case NRT_ISI: /*45 23 67 93*/
/*char * a[] = {"blah", "3", "6", "9" };*/
if(!SILENCE_OUTPUT)
cout<<"Running NRT_ISI"<<endl;
dag = NRT_ISI::RunNRT_ISI(parameters);
break;
case IDMA://numops tolerance desiredconcentratin /*10 .0078125 0.1015625*/
dag = new DagGen();
if(!SILENCE_OUTPUT)
cout<< "Running IDMA"<<endl;
IDMA::RunIDMA(parameters, dag);
break;
case ISINCKU:/* numerator differnceBetweenSamples n^2(denominator) numSample {11 10 6 5 }*/
dag = new DagGen();
if(!SILENCE_OUTPUT)
cout << "Running NCKU"<<endl;
ISI_NCKU::RUN_NCKU(parameters, dag);
break;
case GRIFFITH: //numops tolerance desiredconcentratin /*10 .0078125 0.1015625*/
dag = new DagGen();
if(!SILENCE_OUTPUT)
cout<<"Running Griffith"<<endl;
GriffDilute::RunGriffith(parameters, dag);
break;
case DMRW: //numops tolerance desiredconcentratin /*10 .0078125 0.1015625*/
dag = new DagGen();
if(!SILENCE_OUTPUT)
cout<< "Running DMRW"<<endl;
RoyDilute::RunDMRW(parameters,dag);
break;
case MTC:/*filename denominator numerators ... {test 16 10 12 13 14}*/
if(!SILENCE_OUTPUT)
cout<<"Runnig MTC"<<endl;
parameters.insert(parameters.begin(),argv[FILE_NAME_POSITION]);
dag = new DagGen();
MTC::RunMTC(parameters, dag);
break;
case ALGORITHM_NOT_FOUND:
default:
cerr<<"ERROR: algorithm " << algorithmToRun << " not recognized." << endl;
return;
}
if(!SILENCE_OUTPUT)
cout<<"Success"<<endl;
string output = argv[OUTPUT_TYPE_POSITION];
string fileName = argv[FILE_NAME_POSITION];
if(fileName == "CONSOLE")
fileName = "";
OutputDag(dag, output, fileName);
delete dag;
}
void DoPrepare (GPtr globals)
{
ValidateParameters (globals);
}
int main(int argc, char** argv) {
unsigned int* __restrict address;
unsigned int* __restrict memory;
unsigned int i, j;
unsigned int t=0;
unsigned int numberOfMemoryLocation;
dictionary *programInput;
double startTime;
double elapsedTime = 0, totalElapsedTime = 0;
double initializationTime, experimentTime;
programInput = ParseInput(argc, argv);
ValidateParameters();
// Initialize memory manager
MMMasterInitialize(0, 0, FALSE, NULL);
numberOfMemoryLocation = MemorySize / sizeof(int);
// Allocate memory
address = MMUnitAllocate((NumberOfAccess + 8) * sizeof(unsigned int));
memory = MMUnitAllocate((numberOfMemoryLocation + 32) * sizeof(unsigned int));
// Set random seed
r250_init(getRandomSeed());
// Set start time
startTime = setStartTime();
printf("Initialize memory pointers with random values..");
for (i=0; i<numberOfMemoryLocation + 32; i++) {
memory[i] = r250();
}
// Initialize address and memory
for (i=0; i<NumberOfAccess + 8; i++) {
address[i] = (r250() % numberOfMemoryLocation) / 4 * 4;
}
printf("finished.\n");
elapsedTime = getElapsedTime(startTime) - totalElapsedTime;
totalElapsedTime += elapsedTime;
initializationTime = elapsedTime;
// Test memory speed for read
if (ReadWrite[0] == 'R' || ReadWrite[0] == 'r') {
for (i=0; i<NumberOfIteration; i++) {
for (j=0; j<NumberOfAccess; j++) {
t += memory[address[j]];
}
}
}
// Test memory speed for write
if (ReadWrite[0] == 'W' || ReadWrite[0] == 'w') {
for (i=0; i<NumberOfIteration; i++) {
for (j=0; j<NumberOfAccess; j++) {
memory[address[j]] += address[j];
}
}
}
elapsedTime = getElapsedTime(startTime) - totalElapsedTime;
totalElapsedTime += elapsedTime;
experimentTime = elapsedTime;
// So that compiler does not remove code for variables t and r
if (t==0) {
printf("\n");
}
printf("Experiment completed.\n");
printf("Initialization time = ");
printElapsedTime(stdout, FALSE, FALSE, TRUE, 2, initializationTime);
printf("Experiment time = ");
printElapsedTime(stdout, FALSE, FALSE, TRUE, 2, experimentTime);
MMUnitFree(address, (NumberOfAccess + 8) * sizeof(unsigned int));
MMUnitFree(memory, (numberOfMemoryLocation + 32) * sizeof(unsigned int));
iniparser_freedict(programInput);
return 0;
}