int DLLEXPORT SMO_open(SMOutputAPI* smoapi, const char* path)
//
// Purpose: Open the output binary file and read epilogue.
//
{
int version, err, errorcode = 0;
F_OFF offset;
strncpy(smoapi->name, path, MAXFILENAME);
// --- open the output file
if ((smoapi->file = fopen(path, "rb")) == NULL) errorcode = 434;
// --- validate the output file
else if ((err = validateFile(smoapi)) != 0) errorcode = err;
else {
// --- otherwise read additional parameters from start of file
fread(&version, RECORDSIZE, 1, smoapi->file);
fread(&(smoapi->FlowUnits), RECORDSIZE, 1, smoapi->file);
fread(&(smoapi->Nsubcatch), RECORDSIZE, 1, smoapi->file);
fread(&(smoapi->Nnodes), RECORDSIZE, 1, smoapi->file);
fread(&(smoapi->Nlinks), RECORDSIZE, 1, smoapi->file);
fread(&(smoapi->Npolluts), RECORDSIZE, 1, smoapi->file);
// Skip over saved subcatch/node/link input values
offset = (smoapi->Nsubcatch + 2) * RECORDSIZE // Subcatchment area
+ (3 * smoapi->Nnodes + 4) * RECORDSIZE // Node type, invert & max depth
+ (5 * smoapi->Nlinks + 6) * RECORDSIZE; // Link type, z1, z2, max depth & length
offset += smoapi->ObjPropPos;
fseeko64(smoapi->file, offset, SEEK_SET);
// Read number & codes of computed variables
fread(&(smoapi->SubcatchVars), RECORDSIZE, 1, smoapi->file); // # Subcatch variables
fseeko64(smoapi->file, smoapi->SubcatchVars*RECORDSIZE, SEEK_CUR);
fread(&(smoapi->NodeVars), RECORDSIZE, 1, smoapi->file); // # Node variables
fseeko64(smoapi->file, smoapi->NodeVars*RECORDSIZE, SEEK_CUR);
fread(&(smoapi->LinkVars), RECORDSIZE, 1, smoapi->file); // # Link variables
fseeko64(smoapi->file, smoapi->LinkVars*RECORDSIZE, SEEK_CUR);
fread(&(smoapi->SysVars), RECORDSIZE, 1, smoapi->file); // # System variables
// --- read data just before start of output results
offset = smoapi->ResultsPos - 3 * RECORDSIZE;
fseeko64(smoapi->file, offset, SEEK_SET);
fread(&(smoapi->StartDate), DATESIZE, 1, smoapi->file);
fread(&(smoapi->ReportStep), RECORDSIZE, 1, smoapi->file);
// --- compute number of bytes of results values used per time period
smoapi->BytesPerPeriod = DATESIZE + // date value (a double)
(smoapi->Nsubcatch*smoapi->SubcatchVars +
smoapi->Nnodes*smoapi->NodeVars +
smoapi->Nlinks*smoapi->LinkVars +
smoapi->SysVars)*RECORDSIZE;
}
if (errorcode) SMO_close(smoapi);
return errorcode;
}
void FileIterator::next()
{
do
{
if(_findnext(handle, &findData) == -1)
validFile = false;
} while(!validateFile(findData.name) && validFile);
}
void CDiskReadMasterBase::init()
{
IHThorDiskReadBaseArg *helper = (IHThorDiskReadBaseArg *) queryHelper();
fileName.setown(helper->getFileName());
file.setown(queryThorFileManager().lookup(container.queryJob(), fileName, 0 != ((TDXtemporary|TDXjobtemp) & helper->getFlags()), 0 != (TDRoptional & helper->getFlags()), true));
if (file)
{
if (file->numParts() > 1)
fileDesc.setown(getConfiguredFileDescriptor(*file));
else
fileDesc.setown(file->getFileDescriptor());
reInit = 0 != (helper->getFlags() & (TDXvarfilename|TDXdynamicfilename));
if (container.queryLocal() || helper->canMatchAny()) // if local, assume may match
{
bool local;
if (0 == (TDXtemporary & helper->getFlags())) // don't add temp files
{
queryThorFileManager().noteFileRead(container.queryJob(), file);
local = container.queryLocal();
}
else
local = false;
mapping.setown(getFileSlaveMaps(file->queryLogicalName(), *fileDesc, container.queryJob().queryUserDescriptor(), container.queryJob().querySlaveGroup(), local, false, hash, file->querySuperFile()));
}
if (0 != (helper->getFlags() & TDRfilenamecallback)) // only get/serialize if using virtual file name fields
{
IDistributedSuperFile *super = file->querySuperFile();
if (super)
{
unsigned numsubs = super->numSubFiles(true);
unsigned s=0;
for (; s<numsubs; s++)
{
IDistributedFile &subfile = super->querySubFile(s, true);
subfileLogicalFilenames.append(subfile.queryLogicalName());
}
}
}
validateFile(file);
void *ekey;
size32_t ekeylen;
helper->getEncryptKey(ekeylen,ekey);
bool encrypted = fileDesc->queryProperties().getPropBool("@encrypted");
if (0 != ekeylen)
{
memset(ekey,0,ekeylen);
free(ekey);
if (!encrypted)
{
Owned<IException> e = MakeActivityWarning(&container, TE_EncryptionMismatch, "Ignoring encryption key provided as file '%s' was not published as encrypted", fileName.get());
container.queryJob().fireException(e);
}
}
else if (encrypted)
throw MakeActivityException(this, 0, "File '%s' was published as encrypted but no encryption key provided", fileName.get());
}
}
void DialogSpectraTemplates::on_pushExport_clicked()
{
QString fileName = CustomSaveFileDialog(this, "Save template spectra",
root_dir_, "Template set (*.tem)");
if (validateFile(this, fileName, true)) {
PL_INFO << "Writing templates to xml file " << fileName.toStdString();
templates_.write_xml(fileName.toStdString());
}
}
FileIterator::FileIterator(const std::string &searchString, bool _foldersOnly)
{
foldersOnly = _foldersOnly;
ZeroMemory(&findData, sizeof(_finddata_t));
validFile = true;
handle = _findfirst(searchString.c_str() , &findData);
if(!validateFile(findData.name) && handle >= 0)
next();
}
void copy(char* args) {
char fileA[7], fileB[7], buffer[13312];
int i = 0, sectors;
// Get name for fileA
while(args[i] == ' ') args += 1;
while(args[i] != 0x0 && args[i] != ' ') {
if(i < 6) {
fileA[i] = args[i];
}
i += 1;
}
args += i;
if(i < 6) fileA[i] = 0x0;
else fileA[6] = 0x0;
i = 0;
// Get name for fileB
while(args[i] == ' ') args += 1;
while(args[i] != 0x0 && args[i] != ' ') {
if(i < 6) {
fileB[i] = args[i];
}
i += 1;
}
args += i;
if(i < 6) fileB[i] = 0x0;
else fileB[6] = 0x0;
i = 0;
// Validate file names
validateFile(fileA);
validateFile(fileB);
// Read fileA into buffer
interrupt(33, 3, fileA, buffer, §ors);
// Write buffer to fileB
interrupt(33, 8, fileB, buffer, sectors);
}
/*
* open and read lines from file
*
* params:
* char * filename - name of file to be opened
* returns:
* int - 0 if file was not valid; 1 if operation completes
*/
int read(char *filename)
{
FILE * pfile;
pfile = fopen(filename, "r");
if(!validateFile(pfile, filename))
return 0;
readlines(pfile);
fclose(pfile);
return 1;
}
void DialogSpectraTemplates::on_pushImport_clicked()
{
//ask clear or append?
QString fileName = QFileDialog::getOpenFileName(this, "Load template spectra",
root_dir_, "Template set (*.tem)");
if (validateFile(this, fileName, false)) {
PL_INFO << "Reading templates from xml file " << fileName.toStdString();
templates_.read_xml(fileName.toStdString());
selection_model_.reset();
table_model_.update();
toggle_push();
ui->spectraSetupView->horizontalHeader()->setStretchLastSection(true);
ui->spectraSetupView->resizeColumnsToContents();
}
}
void Vpz::parseFile(const std::string& filename)
{
m_filename.assign(filename);
vpz::SaxParser saxparser(*this);
try {
saxparser.parseFile(filename);
} catch(const std::exception& sax) {
try {
validateFile(filename);
} catch(const std::exception& dom) {
saxparser.clearParserState();
throw utils::SaxParserError(fmt(_("%2%\n\n%1%")) % dom.what() %
sax.what());
}
throw utils::SaxParserError(sax.what());
}
}
void menuUp1(uint8_t event)
{
FRESULT fr ;
struct fileControl *fc = &FileControl ;
static uint8_t mounted = 0 ;
static uint32_t state ;
static uint32_t firmwareAddress ;
uint32_t i ;
uint32_t width ;
if (UpdateItem == UPDATE_TYPE_BOOTLOADER ) // Bootloader
{
TITLE( "UPDATE BOOT" ) ;
}
else
{
#ifdef PCBX9D
if (UpdateItem == UPDATE_TYPE_SPORT_INT )
{
TITLE( "UPDATE Int. XJT" ) ;
}
else
{
TITLE( "UPDATE Ext. SPort" ) ;
}
#endif
#ifdef PCBSKY
#ifndef REVX
if (UpdateItem == UPDATE_TYPE_COPROCESSOR )
{
TITLE( "UPDATE COPROC" ) ;
}
else
{
TITLE( "UPDATE SPort" ) ;
}
#else
if (UpdateItem == UPDATE_TYPE_SPORT_EXT )
{
TITLE( "UPDATE SPort" ) ;
}
#endif
#endif
}
switch(event)
{
case EVT_ENTRY:
state = UPDATE_NO_FILES ;
if ( mounted == 0 )
{
#if defined(PCBTARANIS)
fr = f_mount(0, &g_FATFS_Obj) ;
#else
fr = f_mount(0, &g_FATFS) ;
#endif
#ifdef PCBX9D
unlockFlash() ;
#endif
}
else
{
fr = FR_OK ;
}
if ( fr == FR_OK)
{
mounted = 1 ;
}
if ( mounted )
{
fr = f_chdir( (TCHAR *)"\\firmware" ) ;
if ( fr == FR_OK )
{
state = UPDATE_NO_FILES ;
fc->index = 0 ;
fr = f_opendir( &Dj, (TCHAR *) "." ) ;
if ( fr == FR_OK )
{
if ( (UpdateItem > 1 ) )
{
fc->ext[0] = 'F' ;
fc->ext[1] = 'R' ;
fc->ext[2] = 'K' ;
}
else
{
fc->ext[0] = 'B' ;
fc->ext[1] = 'I' ;
fc->ext[2] = 'N' ;
}
fc->ext[3] = 0 ;
fc->index = 0 ;
fc->nameCount = fillNames( 0, fc ) ;
fc->hpos = 0 ;
fc->vpos = 0 ;
if ( fc->nameCount )
{
state = UPDATE_FILE_LIST ;
}
}
}
}
break ;
case EVT_KEY_FIRST(KEY_EXIT):
if ( state < UPDATE_ACTION )
{
chainMenu(menuUpdate) ;
killEvents(event) ;
}
break ;
}
switch ( state )
{
case UPDATE_NO_FILES :
lcd_puts_Pleft( 4*FH, "\005No Files" ) ;
lcd_outdez( 21*FW, 4*FH, mounted ) ;
break ;
case UPDATE_FILE_LIST :
SportVerValid = 0 ;
if ( fileList( event, &FileControl ) == 1 )
{
state = UPDATE_CONFIRM ;
}
break ;
case UPDATE_CONFIRM :
if ( (UpdateItem > UPDATE_TYPE_BOOTLOADER ) )
{
#ifdef PCBX9D
if ( (UpdateItem == UPDATE_TYPE_SPORT_INT ) )
{
lcd_puts_Pleft( 2*FH, "Flash Int. XJT from" ) ;
}
else
{
lcd_puts_Pleft( 2*FH, "Flash Ext.SP from" ) ;
}
SportVerValid = 0 ;
#else
#ifndef REVX
if ( (UpdateItem == UPDATE_TYPE_COPROCESSOR ) )
{
lcd_puts_Pleft( 2*FH, "Flash Co-Proc. from" ) ;
}
else
{
lcd_puts_Pleft( 2*FH, "Flash SPort from" ) ;
}
CoProcReady = 0 ;
#else
lcd_puts_Pleft( 2*FH, "Flash SPort from" ) ;
#endif
#endif
}
else
{
lcd_puts_Pleft( 2*FH, "Flash Bootloader from" ) ;
}
cpystr( cpystr( (uint8_t *)FlashFilename, (uint8_t *)"\\firmware\\" ), (uint8_t *)Filenames[fc->vpos] ) ;
#if defined(PCBTARANIS)
lcd_putsnAtt( 0, 4*FH, Filenames[fc->vpos], DISPLAY_CHAR_WIDTH, 0 ) ;
#else
lcd_putsnAtt0( 0, 4*FH, Filenames[fc->vpos], DISPLAY_CHAR_WIDTH, 0 ) ;
#endif
if ( event == EVT_KEY_LONG(KEY_MENU) )
{
state = UPDATE_SELECTED ;
}
if ( event == EVT_KEY_LONG(KEY_EXIT) )
{
state = UPDATE_FILE_LIST ; // Canceled
}
break ;
case UPDATE_SELECTED :
f_open( &FlashFile, FlashFilename, FA_READ ) ;
f_read( &FlashFile, (BYTE *)FileData, 1024, &BlockCount ) ;
i = 1 ;
if (UpdateItem == UPDATE_TYPE_BOOTLOADER ) // Bootloader
{
i = validateFile( (uint32_t *) FileData ) ;
}
if ( i == 0 )
{
state = UPDATE_INVALID ;
}
else
{
if (UpdateItem == UPDATE_TYPE_BOOTLOADER ) // Bootloader
{
#ifdef PCBX9D
firmwareAddress = 0x08000000 ;
#endif
#ifdef PCBSKY
firmwareAddress = 0x00400000 ;
#endif
}
#ifdef PCBSKY
#ifndef REVX
else if (UpdateItem == UPDATE_TYPE_COPROCESSOR ) // Bootloader
{
firmwareAddress = 0x00000080 ;
if ( check_ready() == 0 )
{
CoProcReady = 1 ;
}
}
#endif
#endif
else
{
// SPort update
SportState = SPORT_START ;
FirmwareSize = FileSize[fc->vpos] ;
BlockInUse = 0 ;
f_read( &FlashFile, (BYTE *)ExtraFileData, 1024, &XblockCount ) ;
}
BytesFlashed = 0 ;
BlockOffset = 0 ;
ByteEnd = 1024 ;
state = UPDATE_ACTION ;
}
break ;
case UPDATE_INVALID :
lcd_puts_Pleft( 2*FH, "Invalid File" ) ;
lcd_puts_Pleft( 4*FH, "Press EXIT" ) ;
if ( event == EVT_KEY_FIRST(KEY_EXIT) )
{
state = UPDATE_FILE_LIST ; // Canceled
killEvents(event) ;
}
break ;
case UPDATE_ACTION :
// Do the flashing
lcd_puts_Pleft( 3*FH, "Flashing" ) ;
if (UpdateItem == UPDATE_TYPE_BOOTLOADER ) // Bootloader
{
width = ByteEnd >> 9 ;
if ( BytesFlashed < ByteEnd )
{
program( (uint32_t *)firmwareAddress, &((uint32_t *)FileData)[BlockOffset] ) ; // size is 256 bytes
BlockOffset += 64 ; // 32-bit words (256 bytes)
firmwareAddress += 256 ;
BytesFlashed += 256 ;
}
else
{
if ( ByteEnd >= 32768 )
{
state = UPDATE_COMPLETE ;
}
else
{
f_read( &FlashFile, (BYTE *)FileData, 1024, &BlockCount ) ;
ByteEnd += 1024 ;
BlockOffset = 0 ;
}
}
}
#ifdef PCBSKY
#ifndef REVX
else if (UpdateItem == UPDATE_TYPE_COPROCESSOR ) // CoProcessor
