// to be called from CPU thread
void Wiimote::QueueReport(u8 rpt_id, const void* _data, unsigned int size)
{
auto const data = static_cast<const u8*>(_data);
Report rpt(size + 2);
rpt[0] = WM_SET_REPORT | WM_BT_OUTPUT;
rpt[1] = rpt_id;
std::copy_n(data, size, rpt.begin() + 2);
WriteReport(std::move(rpt));
}
bool ProfileEngine::GenerateReport(FILE *fp)
{
time_t t;
double total_time;
prof_point_t end_time;
InitProfPoint(end_time);
total_time = DiffProfPoints(m_ProfStart, end_time);
t = time(NULL);
fprintf(fp, "<?xml version=\"1.0\" encoding=\"UTF-8\"?>\n\n");
fprintf(fp, "<profile time=\"%d\" uptime=\"%f\">\n", (int)t, total_time);
WriteReport(fp, &m_Natives, "natives");
WriteReport(fp, &m_Callbacks, "callbacks");
WriteReport(fp, &m_Functions, "functions");
fprintf(fp, "</profile>\n");
return true;
}
bool ErrorReport::GenerateReport(ErrorReport::IProgressNotifier* pProgressNotifier)
{
ErrorReport* report = this;
BOOST_SCOPE_EXIT((report))
{
// Allow the crashed process to exit
report->ReleaseApplicationLock();
} BOOST_SCOPE_EXIT_END
pProgressNotifier->taskStarted("Generating crash report", 3);
// Initialize shared memory
pProgressNotifier->taskStepStarted("Connecting to crashed application");
bool bInit = Initialize();
pProgressNotifier->taskStepEnded();
if(!bInit)
{
pProgressNotifier->setError("Could not generate the crash dump.");
pProgressNotifier->setDetailedError(m_DetailedError);
return false;
}
if(m_pCrashInfo->architecture != ARX_ARCH) {
pProgressNotifier->setError("Architecture mismatch between the crashed process and the crash reporter.");
pProgressNotifier->setDetailedError(m_DetailedError);
return false;
}
// Generate minidump
pProgressNotifier->taskStepStarted("Generating crash dump");
bool bCrashDump = GetCrashDump("crash.dmp");
pProgressNotifier->taskStepEnded();
if(!bCrashDump)
{
pProgressNotifier->setError("Could not generate the crash dump.");
pProgressNotifier->setDetailedError(m_DetailedError);
return false;
}
// Generate manifest
pProgressNotifier->taskStepStarted("Generating report manifest");
bool bCrashXml = WriteReport("crash.xml");
pProgressNotifier->taskStepEnded();
if(!bCrashXml)
{
pProgressNotifier->setError("Could not generate the manifest.");
pProgressNotifier->setDetailedError(m_DetailedError);
return false;
}
return true;
}
void Wiimote::InterruptChannel(const u16 channel, const void* const _data, const u32 size)
{
// first interrupt/control channel sent
if (channel != m_channel)
{
m_channel = channel;
ClearReadQueue();
EmuStart();
}
auto const data = static_cast<const u8*>(_data);
Report rpt(data, data + size);
WiimoteEmu::Wiimote *const wm = (WiimoteEmu::Wiimote*)::Wiimote::GetConfig()->controllers[m_index];
// Convert output DATA packets to SET_REPORT packets.
// Nintendo Wiimotes work without this translation, but 3rd
// party ones don't.
if (rpt[0] == 0xa2)
{
rpt[0] = WM_SET_REPORT | WM_BT_OUTPUT;
}
// Disallow games from turning off all of the LEDs.
// It makes Wiimote connection status confusing.
if (rpt[1] == WM_LEDS)
{
auto& leds_rpt = *reinterpret_cast<wm_leds*>(&rpt[2]);
if (0 == leds_rpt.leds)
{
// Turn on ALL of the LEDs.
leds_rpt.leds = 0xf;
}
}
else if (rpt[1] == WM_WRITE_SPEAKER_DATA &&
(!SConfig::GetInstance().m_WiimoteEnableSpeaker ||
(!wm->m_status.speaker || wm->m_speaker_mute)))
{
// Translate speaker data reports into rumble reports.
rpt[1] = WM_RUMBLE;
// Keep only the rumble bit.
rpt[2] &= 0x1;
rpt.resize(3);
}
WriteReport(std::move(rpt));
}
// ============================================================================
// Do_ListMonitoredElements
//
// list observed elements
// ============================================================================
void Do_ListMonitoredElements (void)
{
API_Elem_Head** ppHeads;
Int32 nElems;
GSErrCode err = ACAPI_Element_GetObservedElements (&ppHeads, &nElems);
if (err != NoError) {
ErrorBeep ("ACAPI_Element_GetObservedElements", err);
return;
}
for (Int32 i = 0; i < nElems; i++) {
const API_Elem_Head& refHead = (*ppHeads)[i];
WriteReport ("%s guid=%s", ElemID_To_Name (refHead.typeID), APIGuidToString (refHead.guid).ToCStr ().Get ());
}
BMKillHandle ((GSHandle *) &ppHeads);
} // Do_ListMonitoredElements
void Sampler::RunSampler(int num_iterations) {
std::ofstream lhood_file;
std::ofstream param_file;
int initial_iteration = 0;
if (FLAGS_resume) {
initial_iteration = state_->ReadState(FLAGS_save_delay) + 1;
vector<double> params_file =
state_->ReadHyperparameters(num_hyperparameters());
SetHyperparameters(params_file);
// sometimes, we use resume, but the parameters setting are different.
// so if the params are not default, which means the params are updated,
// we will just load the params from the CMD line,
// else, just use the resume params.
if (params_not_default_) {
vector<double> params_cmdl = hyperparameters();
BOOST_ASSERT(params_file.size() == params_cmdl.size());
for (int ii = 0; ii < params_file.size(); ++ii) {
if ((int) params_file[ii] * 1.0e10 !=
(int) params_cmdl[ii] * 1.0e10) {
cout << "Warning: parameters in CMD are not the same "
<< "as in params file." << endl;
break;
}
}
} else {
SetHyperparameters(params_file);
}
lhood_file.open((FLAGS_output_location + ".lhood").c_str(), ios::app);
param_file.open((FLAGS_output_location + ".param_hist").c_str(), ios::app);
} else {
lhood_file.open((FLAGS_output_location + ".lhood").c_str(), ios::out);
param_file.open((FLAGS_output_location + ".param_hist").c_str(), ios::out);
vector<string> param_names = hyperparameter_names();
for (int ii = 0; ii < (int)param_names.size(); ++ii)
param_file << param_names[ii] << "\t";
param_file << endl;
}
double lhood = -1e10;
// Write out the initial hyperparameters
SampleCorpusVariables(initial_iteration, 0.0, 0, ¶m_file);
// if ((initial_iteration / FLAGS_save_delay + 1) *
// FLAGS_save_delay > num_iterations) {
if ((num_iterations - initial_iteration + 1) < FLAGS_save_delay) {
cout << "*********************************************" << endl;
cout << "WARNING: You're only running it for " << num_iterations -
initial_iteration + 1 << " iterations, but every " <<
FLAGS_save_delay << "iterations will be saved once," <<
" so no additional state will be saved." << endl;
cout << "*********************************************" << endl;
}
// std::stringstream fs;
// fs << "mytest_" << initial_iteration << "_" << num_iterations << ".txt";
// string filename;
// fs >> filename;
// std::ofstream mytest;
// mytest.open(filename.c_str());
// mytest << "hello" << endl;
// mytest.close();
// if run 0 extra iterations in resume, we simply output the same result
if ((FLAGS_verbose_assignments || FLAGS_mallet_assignments)
&& initial_iteration == (num_iterations + 1)) {
cout << "*********************************************" << endl;
cout << "running for 0 iterations, writing verbose or mallet files" << endl;
WriteReport();
// state_->PrintStatus(initial_iteration);
cout << "Finishing writing!" << endl;
cout << "*********************************************" << endl;
}
for (int ii = initial_iteration; ii <= num_iterations; ++ii) {
// Make runs reproducible based on the iteration (so that it doesn't matter
// if we restart a run)
int seed = FLAGS_rand + ii;
srand(seed);
boost::timer time;
cout << " ------------ Iteration " << ii <<
"(" << lhood << ") [seed=" << seed <<
"] ------------ " << endl;
if (ii > 0 && FLAGS_global_sample_delay >= 1 &&
ii % FLAGS_global_sample_delay == 0 &&
ii > FLAGS_global_sample_burnin)
SampleCorpusVariables(ii, FLAGS_global_sample_step,
FLAGS_global_sample_reps,
¶m_file);
for (int dd = 0; dd < corpus_->num_docs(); ++dd) {
// Skip test documents, as we'll do held out lhood on them later
lib_corpora::MlSeqDoc* doc = corpus_->seq_doc(dd);
if (IsDocSkippable(doc)) continue;
int num_words = doc->num_tokens();
int num_sampled = 0;
for (int ww = 0; ww < num_words; ++ww) {
// debug
// int term = (*doc)[ww];
// if (term == 144 || term == 47) {
// cout << "found word" << endl;
// }
int topic = SampleWord(dd, ww);
if (topic != -1)
num_sampled++;
}
if (num_sampled == 0) {
doc->Print();
cout << "Warning! Doc " << dd << " had zero words" << endl;
}
if (dd % 250 == 0) {
cout << "Sampling doc " << dd << "/" << corpus_->num_docs() <<
"(" << num_words << ")" << endl;
}
// state_->PrintStatus(ii);
}
double elapsed = time.elapsed();
if (ii > 0 && ii % FLAGS_save_delay == 0) {
WriteReport();
}
lhood = WriteLhoodUpdate(&lhood_file, ii, elapsed);
lhood_file << endl;
lhood_file.flush();
// PrintStatus must happen after sampling corpus variables for MLSLDA or all
// test documents will have a predicted 0 response
state_->PrintStatus(ii);
}
}
VOID
EvtIoDeviceControl(
_In_ WDFQUEUE Queue,
_In_ WDFREQUEST Request,
_In_ size_t OutputBufferLength,
_In_ size_t InputBufferLength,
_In_ ULONG IoControlCode
)
/*++
Routine Description:
This event callback function is called when the driver receives an
(KMDF) IOCTL_HID_Xxx code when handlng IRP_MJ_INTERNAL_DEVICE_CONTROL
(UMDF) IOCTL_HID_Xxx, IOCTL_UMDF_HID_Xxx when handling IRP_MJ_DEVICE_CONTROL
Arguments:
Queue - A handle to the queue object that is associated with the I/O request
Request - A handle to a framework request object.
OutputBufferLength - The length, in bytes, of the request's output buffer,
if an output buffer is available.
InputBufferLength - The length, in bytes, of the request's input buffer, if
an input buffer is available.
IoControlCode - The driver or system defined IOCTL associated with the request
Return Value:
NTSTATUS
--*/
{
NTSTATUS status;
BOOLEAN completeRequest = TRUE;
WDFDEVICE device = WdfIoQueueGetDevice(Queue);
PDEVICE_CONTEXT deviceContext = NULL;
PQUEUE_CONTEXT queueContext = GetQueueContext(Queue);
UNREFERENCED_PARAMETER (OutputBufferLength);
UNREFERENCED_PARAMETER (InputBufferLength);
deviceContext = GetDeviceContext(device);
switch (IoControlCode)
{
case IOCTL_HID_GET_DEVICE_DESCRIPTOR: // METHOD_NEITHER
//
// Retrieves the device's HID descriptor.
//
_Analysis_assume_(deviceContext->HidDescriptor.bLength != 0);
status = RequestCopyFromBuffer(Request,
&deviceContext->HidDescriptor,
deviceContext->HidDescriptor.bLength);
break;
case IOCTL_HID_GET_DEVICE_ATTRIBUTES: // METHOD_NEITHER
//
//Retrieves a device's attributes in a HID_DEVICE_ATTRIBUTES structure.
//
status = RequestCopyFromBuffer(Request,
&queueContext->DeviceContext->HidDeviceAttributes,
sizeof(HID_DEVICE_ATTRIBUTES));
break;
case IOCTL_HID_GET_REPORT_DESCRIPTOR: // METHOD_NEITHER
//
//Obtains the report descriptor for the HID device.
//
status = RequestCopyFromBuffer(Request,
deviceContext->ReportDescriptor,
deviceContext->HidDescriptor.DescriptorList[0].wReportLength);
break;
case IOCTL_HID_READ_REPORT: // METHOD_NEITHER
//
// Returns a report from the device into a class driver-supplied
// buffer.
//
status = ReadReport(queueContext, Request, &completeRequest);
break;
case IOCTL_HID_WRITE_REPORT: // METHOD_NEITHER
//
// Transmits a class driver-supplied report to the device.
//
status = WriteReport(queueContext, Request);
break;
#ifdef _KERNEL_MODE
case IOCTL_HID_GET_FEATURE: // METHOD_OUT_DIRECT
status = GetFeature(queueContext, Request);
break;
case IOCTL_HID_SET_FEATURE: // METHOD_IN_DIRECT
status = SetFeature(queueContext, Request);
break;
case IOCTL_HID_GET_INPUT_REPORT: // METHOD_OUT_DIRECT
status = GetInputReport(queueContext, Request);
break;
case IOCTL_HID_SET_OUTPUT_REPORT: // METHOD_IN_DIRECT
status = SetOutputReport(queueContext, Request);
break;
#else // UMDF specific
//
// HID minidriver IOCTL uses HID_XFER_PACKET which contains an embedded pointer.
//
// typedef struct _HID_XFER_PACKET {
// PUCHAR reportBuffer;
// ULONG reportBufferLen;
// UCHAR reportId;
// } HID_XFER_PACKET, *PHID_XFER_PACKET;
//
// UMDF cannot handle embedded pointers when marshalling buffers between processes.
// Therefore a special driver mshidumdf.sys is introduced to convert such IRPs to
// new IRPs (with new IOCTL name like IOCTL_UMDF_HID_Xxxx) where:
//
// reportBuffer - passed as one buffer inside the IRP
// reportId - passed as a second buffer inside the IRP
//
// The new IRP is then passed to UMDF host and driver for further processing.
//
case IOCTL_UMDF_HID_GET_FEATURE: // METHOD_NEITHER
status = GetFeature(queueContext, Request);
break;
case IOCTL_UMDF_HID_SET_FEATURE: // METHOD_NEITHER
status = SetFeature(queueContext, Request);
break;
case IOCTL_UMDF_HID_GET_INPUT_REPORT: // METHOD_NEITHER
status = GetInputReport(queueContext, Request);
break;
case IOCTL_UMDF_HID_SET_OUTPUT_REPORT: // METHOD_NEITHER
status = SetOutputReport(queueContext, Request);
break;
#endif // _KERNEL_MODE
case IOCTL_HID_GET_STRING: // METHOD_NEITHER
status = GetString(Request);
break;
case IOCTL_HID_GET_INDEXED_STRING: // METHOD_OUT_DIRECT
status = GetIndexedString(Request);
break;
case IOCTL_HID_SEND_IDLE_NOTIFICATION_REQUEST: // METHOD_NEITHER
//
// This has the USBSS Idle notification callback. If the lower driver
// can handle it (e.g. USB stack can handle it) then pass it down
// otherwise complete it here as not inplemented. For a virtual
// device, idling is not needed.
//
// Not implemented. fall through...
//
case IOCTL_HID_ACTIVATE_DEVICE: // METHOD_NEITHER
case IOCTL_HID_DEACTIVATE_DEVICE: // METHOD_NEITHER
case IOCTL_GET_PHYSICAL_DESCRIPTOR: // METHOD_OUT_DIRECT
//
// We don't do anything for these IOCTLs but some minidrivers might.
//
// Not implemented. fall through...
//
default:
status = STATUS_NOT_IMPLEMENTED;
break;
}
//
// Complete the request. Information value has already been set by request
// handlers.
//
if (completeRequest) {
WdfRequestComplete(Request, status);
}
}
GMC_DCL(tp_Date, DepModDate)
{
tps_ExecSpc _ExecSpc; tp_ExecSpc ExecSpc = &_ExecSpc;
tp_Job Job;
tp_Tool Tool;
tp_TClass TClass;
tp_InpFilHdrs Inputs;
tp_OutFilHdrs Outputs;
tp_FileName OldErrFileName;
tp_FilDsc OldErrFD;
tps_FileName InFileName, OutFileName;
tps_Str StrBuf;
tp_FilDsc InFD, OutFD;
tp_Status MinStatus;
tp_FilHdr ElmFilHdr, DestFilHdr, OprFilHdr;
tp_LocElm LocElm, FirstLE, LastLE;
tp_FilElm FilElm;
int i;
boolean ErrFlag, OldIsIPC;
Do_Log("Generating", FilHdr, LOGLEVEL_IntGenerate);
MinStatus = DepStatus;
Tool = FilHdr_Tool(FilHdr);
FilHdr_ExecSpc(ExecSpc, FilHdr);
Job = New_Job();
ExecSpc->Job = Job;
Inputs = ExecSpc->InpFilHdrs;
Outputs = ExecSpc->OutFilHdrs;
Save_ErrFile(&OldErrFileName, &OldIsIPC, &OldErrFD);
Set_ErrFile(Job->ErrorFN, FALSE, (tp_FilDsc)NIL);
Clr_ErrStatus(FilHdr);
TClass = Tool_TClass(Tool);
switch (TClass) {
case TC_Str: {
break;}/*case*/;
case TC_StructMem: {
FATALERROR("StructMem's should always be up-to-date");
break;}/*case*/;
case TC_PrmValues: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
FirstLE = NIL; LastLE = NIL;
FilPVal_LocElm(&FirstLE, &LastLE,
FilPrm_FilPVal(FilHdr_FilPrm(FilHdr)), FilHdr);
Set_LocElm(FilHdr, FirstLE);
break;}/*case*/;
case TC_First: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
/*select*/{
if (FilHdr_LocElm(Inputs[0]) == 0) {
LocElm = Make_LocElm(NilStrFilHdr, RootFilPrm, FilHdr);
}else{
FilElm = LocElm_FilElm(FilHdr_LocElm(Inputs[0]));
ElmFilHdr = FilElm_FilHdr(FilElm);
Ret_FilElm(FilElm);
LocElm = Make_LocElm(ElmFilHdr, RootFilPrm, FilHdr);
Ret_FilHdr(ElmFilHdr); };}/*select*/;
Set_LocElm(FilHdr, LocElm);
break;}/*case*/;
case TC_DrvDirElm: {
if (MinStatus > STAT_NoFile) {
Add_ErrStatus(FilHdr, STAT_NoFile);
MinStatus = STAT_NoFile; }/*if*/;
break;}/*case*/;
case TC_VirDirElm: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
LocElm = 0;
ElmFilHdr = Do_Key(FilHdr_Father(Copy_FilHdr(Inputs[0])),
FilHdr_Key(StrBuf, FilHdr));
if (ElmFilHdr != ERROR) {
LocElm = Make_LocElm(ElmFilHdr, RootFilPrm, FilHdr);
Ret_FilHdr(ElmFilHdr); }/*if*/;
Set_LocElm(FilHdr, LocElm);
break;}/*case*/;
case TC_Collect: {
FORBIDDEN(ExecSpc->NumInps < 1 || ExecSpc->NumOuts != 1);
FirstLE = NIL; LastLE = NIL;
for (i=0; i<ExecSpc->NumInps; i++) {
LocElm = Make_LocElm(Inputs[i], FilHdr_FilPrm(FilHdr), FilHdr);
Chain_LocElms(&FirstLE, &LastLE, LocElm);
}/*for*/;
Set_LocElm(FilHdr, FirstLE);
if (IsPntr(FilHdr)) Validate_IsPntr(FilHdr);
break;}/*case*/;
case TC_ReadList: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Exec_List(FilHdr, Inputs[0], FilHdr_FilPrm(FilHdr), FALSE);
if (IsPntr(FilHdr)) Validate_IsPntr(FilHdr);
break;}/*case*/;
case TC_SrcNames: case TC_OpNames: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
FilHdr_DataFileName(InFileName, Inputs[0]);
WriteSrcNames(OutFD, InFileName, (TClass == TC_OpNames));
Close(OutFD);
break;}/*case*/;
case TC_ViewSpec: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Exec_List(FilHdr, Inputs[0], RootFilPrm, FALSE);
Validate_ViewSpec(FilHdr);
break;}/*case*/;
case TC_CmptView: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Exec_CmptView(&ErrFlag, FilHdr, Inputs[0]);
if (ErrFlag) {
Add_ErrStatus(FilHdr, STAT_TgtValError);
if (MinStatus > STAT_TgtValError) {
MinStatus = STAT_TgtValError; }/*if*/; }/*if*/;
break;}/*case*/;
case TC_Directory: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
ElmFilHdr = FilHdr_DirFilHdr(Copy_FilHdr(Inputs[0]));
Set_LocElm(FilHdr, Make_LocElm(ElmFilHdr, RootFilPrm, FilHdr));
Ret_FilHdr(ElmFilHdr);
break;}/*case*/;
case TC_Name: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
WritePrmOdinExpr(OutFD, Inputs[0], FilHdr_FilPrm(FilHdr));
Close(OutFD);
break;}/*case*/;
case TC_Names: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
WriteNames(OutFD, Inputs[0], FilHdr_FilPrm(FilHdr));
Close(OutFD);
break;}/*case*/;
case TC_FileName: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
/*select*/{
if (IsAtmc(Inputs[0])) {
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
FilHdr_DataFileName(InFileName, Inputs[0]);
Writeln(OutFD, InFileName);
Close(OutFD);
}else{
FilHdr_Error("Input to :filename must be atomic: <%s>.\n",
Inputs[0]); };}/*select*/;
break;}/*case*/;
case TC_FileNames: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
WriteFlat(OutFD, Inputs[0]);
Close(OutFD);
break;}/*case*/;
case TC_Cat: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
WriteCat(OutFD, Inputs[0]);
Close(OutFD);
break;}/*case*/;
case TC_Union: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Set_LocElm(FilHdr, Make_UnionLocElm(Inputs[0], FilHdr));
break;}/*case*/;
case TC_PntrHo: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Set_LocElm(FilHdr, Make_PntrHoLocElm(Inputs[0], FilHdr));
break;}/*case*/;
case TC_Apply: {
FORBIDDEN(ExecSpc->NumInps != 2 || ExecSpc->NumOuts != 1);
OprFilHdr = Deref(Copy_FilHdr(Inputs[1]));
FilHdr_DataFileName(InFileName, OprFilHdr);
Push_ContextFilHdr(OprFilHdr);
Set_LocElm(FilHdr, Make_ApplyLocElm(Inputs[0], FilHdr, InFileName));
Pop_ContextFilHdr();
break;}/*case*/;
case TC_DerefPrmVal: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Set_LocElm(FilHdr, Make_DerefPrmValLocElm(Inputs[0], FilHdr));
break;}/*case*/;
case TC_Map: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Set_LocElm(FilHdr, Make_MapLocElm(Inputs[0], FilHdr));
break;}/*case*/;
case TC_Recurse: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Set_LocElm(FilHdr, Make_RecurseLocElm(Inputs[0], FilHdr));
break;}/*case*/;
case TC_Extract: case TC_Delete: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Set_LocElm(FilHdr, Make_ExDelLocElm(Inputs[0], FilHdr,
(TClass == TC_Extract)));
break;}/*case*/;
case TC_PntrElm: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
LocElm = 0;
ElmFilHdr = Do_Key(Copy_FilHdr(Inputs[0]), FilHdr_Key(StrBuf, FilHdr));
if (ElmFilHdr != ERROR) {
LocElm = Make_LocElm(ElmFilHdr, RootFilPrm, FilHdr);
Ret_FilHdr(ElmFilHdr); }/*if*/;
Set_LocElm(FilHdr, LocElm);
break;}/*case*/;
case TC_Error: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
WriteReport(OutFD, Inputs[0], STAT_TgtValError);
Close(OutFD);
break;}/*case*/;
case TC_Warning: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
WriteReport(OutFD, Inputs[0], STAT_Warning);
Close(OutFD);
break;}/*case*/;
case TC_Label: {
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
Writeln(OutFD, FilHdr_Label(StrBuf, Inputs[0], FALSE));
Close(OutFD);
break;}/*case*/;
case TC_Labels: {
FORBIDDEN(!IsList(Inputs[0]));
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
WriteLabels(OutFD, Inputs[0]);
Close(OutFD);
break;}/*case*/;
case TC_Id: {
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
WriteInt(OutFD, (int)FilHdr_LocHdr(Inputs[0]));
Writeln(OutFD, "");
Close(OutFD);
break;}/*case*/;
case TC_Depend: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
FirstLE = NIL; LastLE = NIL;
GetDepend(&FirstLE, &LastLE, Inputs[0], FilHdr);
Set_LocElm(FilHdr, FirstLE);
break;}/*case*/;
case TC_InternalPntr: {
break;}/*case*/;
case TC_TargetsPtr: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Exec_TargetsPtr(FilHdr, Inputs[0]);
break;}/*case*/;
case TC_TargetsInc: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Exec_List(FilHdr, Inputs[0], RootFilPrm, TRUE);
break;}/*case*/;
case TC_Targets: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
FilHdr_DataFileName(InFileName, Inputs[0]);
Push_ContextFilHdr(Copy_FilHdr(Inputs[0]));
Exec_Targets(OutFD, InFileName);
Pop_ContextFilHdr();
Close(OutFD);
break;}/*case*/;
case TC_ActTargets: case TC_VirTargets: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
FilHdr_DataFileName(InFileName, Inputs[0]);
InFD = FileName_RFilDsc(InFileName, FALSE);
LocElm = NIL;
if (InFD != NIL) {
Push_ContextFilHdr(Copy_FilHdr(FilHdr));
LocElm = Make_TargetsLocElm(FilHdr, InFD, InFileName, DepModDate,
(TClass == TC_VirTargets));
Pop_ContextFilHdr();
Close(InFD); }/*if*/;
Set_LocElm(FilHdr, LocElm);
break;}/*case*/;
case TC_VirDir: {
Exec_VirDir(FilHdr, Inputs[0]);
break;}/*case*/;
case TC_CopyCmd: {
DestFilHdr = Deref(LocHdr_FilHdr
(FilPVal_LocHdr(FilPrm_FilPVal(FilHdr_FilPrm(FilHdr)))));
/*select*/{
if (DestFilHdr == ERROR) {
SystemError("+copydestdesc=(dest) parameter required.\n");
}else{
Exec_CopyCmd(FilHdr, DestFilHdr, Inputs[0]);
Ret_FilHdr(DestFilHdr); };}/*select*/;
break;}/*case*/;
case TC_ExpandHooks: {
FORBIDDEN(ExecSpc->NumInps != 2 || ExecSpc->NumOuts != 1);
FilHdr_DataFileName(InFileName, Inputs[1]);
InFD = FileName_RFilDsc(InFileName, TRUE);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
ExpandHooks(OutFD, InFD, Inputs[0]);
Close(InFD); Close(OutFD);
break;}/*case*/;
case TC_NestedHooks: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 2);
FilHdr_DataFileName(InFileName, Inputs[0]);
InFD = FileName_RFilDsc(InFileName, TRUE);
Get_WorkFileName(OutFileName, Job, Outputs[1]);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
NestedHooks(Outputs[0], Outputs[1], OutFD,
InFD, FilHdr_FilPrm(FilHdr));
Close(InFD); Close(OutFD);
break;}/*case*/;
case TC_TextDef: {
FilHdr_DataFileName(InFileName, Inputs[0]);
InFD = FileName_RFilDsc(InFileName, TRUE);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
WriteTextDef(FilHdr, OutFD, OutFileName, InFD, InFileName);
Close(InFD); Close(OutFD);
break;}/*case*/;
case TC_PrefixHelp: case TC_SuffixHelp: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
WriteSrcFilTyps(OutFD, (TClass == TC_PrefixHelp));
Close(OutFD);
break;}/*case*/;
case TC_DrvHelp: {
FORBIDDEN(ExecSpc->NumInps != 1 || ExecSpc->NumOuts != 1);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
WriteDrvHelp(OutFD, Inputs[0]);
Close(OutFD);
break;}/*case*/;
case TC_PrmHelp: {
FORBIDDEN(ExecSpc->NumInps > 2 || ExecSpc->NumOuts != 1);
Get_WorkFileName(OutFileName, Job, FilHdr);
OutFD = FileName_WFilDsc(OutFileName, TRUE);
WritePrmHelp(OutFD, Inputs[0], FilHdr_FilPrm(FilHdr));
Close(OutFD);
break;}/*case*/;
default: {
FATALERROR("illegal system tool"); }}/*switch*/;
ErrFlag = IsErr();
Set_ErrFile(OldErrFileName, OldIsIPC, OldErrFD);
if (ErrFlag) {
Add_StatusFile(FilHdr, STAT_Error, Job->ErrorFN);
if (MinStatus > STAT_Error) {
MinStatus = STAT_Error; }/*if*/; }/*if*/;
if (MinStatus == STAT_Error && IsTargets(FilHdr)) {
MinStatus = STAT_TgtValError; }/*if*/;
Do_Update(FilHdr, ExecSpc->OutFilHdrs, ExecSpc->NumOuts, Job,
MinStatus, DepModDate, TRUE);
Ret_Job(Job);
Ret_ExecSpc(ExecSpc);
}/*ExecInternal*/
static void ProcessParams (TextParams *textPars,
TextParamsInd *parHdlInd,
GSHandle parHdl)
{
API_MDCLParameter par;
Int32 n, i;
bool unknown, badValue, badType;
GSErrCode err;
WriteReport ("Passed parameters");
if (parHdl == NULL) {
WriteReport (" [no params]");
return;
}
err = ACAPI_Goodies (APIAny_GetMDCLParameterNumID, parHdl, &n);
WriteReport (" num: %d", n);
for (i = 1; i <= n; i++) {
BNZeroMemory (&par, sizeof (API_MDCLParameter));
par.index = i;
err = ACAPI_Goodies (APIAny_GetMDCLParameterID, parHdl, &par);
if (err == NoError) {
switch (par.type) {
case MDCLPar_int:
WriteReport (" [%d] (%s) \"%s\" %d", i, " int", par.name, par.int_par);
break;
case MDCLPar_pointer:
WriteReport (" [%d] (%s) \"%s\" %p", i, " ptr", par.name, par.ptr_par);
break;
case MDCLPar_float:
WriteReport (" [%d] (%s) \"%s\" %lf", i, "float", par.name, par.float_par);
break;
case MDCLPar_string:
WriteReport (" [%d] (%s) \"%s\" \"%s\"", i, " str", par.name, par.string_par);
break;
}
unknown = false;
badValue = false;
badType = false;
if (CHEqualCStrings (par.name, "pen")) {
if (par.type == MDCLPar_int) {
if (par.int_par > 1 && par.int_par < 256)
textPars->pen = (short) par.int_par;
else
badValue = true;
parHdlInd->penInd = (short) i;
} else
badType = true;
} else if (CHEqualCStrings (par.name, "size")) {
if (par.type == MDCLPar_float) {
if (par.float_par > 0.0001)
textPars->size = par.float_par;
else
badValue = true;
parHdlInd->sizeInd = (short) i;
} else
badType = true;
} else if (CHEqualCStrings (par.name, "content")) {
if (par.type == MDCLPar_string) {
strncpy (textPars->content, par.string_par, 255);
textPars->content [255] = '\0';
parHdlInd->contentInd = (short) i;
} else
badType = true;
} else
unknown = true;
if (unknown)
WriteReport (" ## unknown parameter ##");
if (badValue)
WriteReport (" ## bad value ##");
if (badType)
WriteReport (" ## bad type ##");
} else
ErrorBeep ("APIAny_GetMDCLParameterID", err);
}
return;
} // ProcessParams