static void dumpStatements( void ) {
/**********************************/
/* loop through statements and create new sru file by dumping them out */
FILE *fout;
statement *curr;
/* open file */
fout = WigOpenFile( GetOutputFile(), "wt" );
if( !fout ) {
Error( FILE_OPEN_ERR, GetOutputFile() );
}
/* loop and udmp */
curr = SRU.head_stmt;
while( curr ) {
assert( curr->stmt );
fprintf( fout, "%s", curr->stmt );
SRU.head_stmt = curr->next;
if( curr->keep ) {
curr = curr->next;
} else {
/* free if not required for back end */
freeStatement( curr );
curr = SRU.head_stmt;
}
}
WigCloseFile( fout );
}
bool UParticleSystemAuditCommandlet::DumpSimpleSet(TSet<FString>& InSet, const TCHAR* InShortFilename, const TCHAR* InObjectClassName)
{
if (InSet.Num() > 0)
{
check(InShortFilename != NULL);
check(InObjectClassName != NULL);
FArchive* OutputStream = GetOutputFile(InShortFilename);
if (OutputStream != NULL)
{
UE_LOG(LogParticleSystemAuditCommandlet, Log, TEXT("Dumping '%s' results..."), InShortFilename);
OutputStream->Logf(TEXT("%s,..."), InObjectClassName);
for (TSet<FString>::TIterator DumpIt(InSet); DumpIt; ++DumpIt)
{
FString ObjName = *DumpIt;
OutputStream->Logf(TEXT("%s"), *ObjName);
}
OutputStream->Close();
delete OutputStream;
}
else
{
return false;
}
}
return true;
}
bool EclipseThemeImporterBase::FinalizeImport(wxXmlNode* propertiesNode)
{
AddCommonProperties(propertiesNode);
wxString codeliteXmlFile =
wxFileName(clStandardPaths::Get().GetUserLexersDir(), GetOutputFile(m_langName)).GetFullPath();
// Update the lexer colours
LexerConf::Ptr_t lexer(new LexerConf);
lexer->FromXml(m_codeliteDoc.GetRoot());
ColoursAndFontsManager::Get().UpdateLexerColours(lexer, true);
wxXmlNode* xmlnode = lexer->ToXml();
m_codeliteDoc.SetRoot(xmlnode);
// Save the lexer to xml
return ::SaveXmlToFile(&m_codeliteDoc, codeliteXmlFile);
}
// build generator - needs uniqe name (checked by ModelBuilder)
// and optional count, which defaults to special "all rows value"
Generator * GeneratorTag :: FromXML( const ALib::XMLElement * e ) {
RequireChildren( e );
AllowAttrs( e, AttrList( NAME_ATTR, COUNT_ATTRIB, GROUP_ATTR,
DEBUG_ATTRIB, HIDE_ATTR,
OUT_ATTRIB, FNAMES_ATTR, 0 ) );
string name = e->HasAttr( NAME_ATTR) ? e->AttrValue( NAME_ATTR ) : "";
int count = GetCount( e );
bool debug = GetBool( e, DEBUG_ATTRIB, NO_STR );
FieldList grp( e->AttrValue( GROUP_ATTR, "" ));
string ofn = GetOutputFile( e );
string fields = e->AttrValue( FNAMES_ATTR, "" );
std::auto_ptr <GeneratorTag> g(
new GeneratorTag( name, count, debug, ofn, fields, grp )
);
g->AddSources( e );
return g.release();
}
void EdiComposer::BufferFlush()
{
GetOutputFile().Write(GetBuffer(), m_bufferSize);
GetOutputFile().Write((void*)"\r\n", 2);
};
int main(int argc, char **argv)
{
srand (time(NULL));
std::string xmlDocFile = "/home/elli/Documents/colorferet/dvd1/data/ground_truths/xml/recordings.xml";
std::string basePath = "/home/elli/Documents/colorferet/";
std::ofstream* outputTrainingFilestream = GetOutputFile(true);
std::ofstream* outputTestFilestream = GetOutputFile(false);
pugi::xml_document doc;
if (!doc.load_file(xmlDocFile.c_str()))
{
std::cerr << "Failed to load XML doc \'" << xmlDocFile << "\'" << std::endl;
exit(-1);
}
std::list<Recording> recordingList;
pugi::xml_node recordingsNode = doc.child("Recordings");
pugi::xml_object_range<pugi::xml_named_node_iterator> recordingsIterator = doc.child("Recordings").children("Recording");
for (pugi::xml_named_node_iterator it = recordingsIterator.begin(); it != recordingsIterator.end(); it++)
{
std::string fileRoot = (*it).child("URL").attribute("root").value();
std::string filePathWithExtension = (*it).child("URL").attribute("relative").value();
std::string filePath = filePathWithExtension.substr(0, filePathWithExtension.length()-4);
std::string subject = (*it).child("Subject").attribute("id").value();
Recording newRecording = Recording(subject, basePath, fileRoot, filePath);
if (newRecording.GetSubjectId() < 5)
{
// to keep this small only going to kee the forst 45 ppl
recordingList.push_back(newRecording);
}
}
int width = 32;
int height = 48;
std::cout << recordingList.size() << std::endl;
cv::Size desiredImageSize (width, height);
int counter = 0;
int trainingCount = 0;
int testingCount = 0;
int totalCounts = recordingList.size()*recordingList.size();
int proposedTrainingCount = (double) totalCounts * 0.7;
std::cout << proposedTrainingCount <<std::endl;
int proposedTestingCount = totalCounts-proposedTrainingCount;
(*outputTestFilestream) << proposedTestingCount << " " << width*height*2 << " " << 1 << std::endl;
(*outputTrainingFilestream) << proposedTrainingCount << " " << width*height*2 << " " << 1 << std::endl;
(*outputTestFilestream).setf(std::ios::fixed);
(*outputTestFilestream) << std::setprecision(3);
(*outputTrainingFilestream).setf(std::ios::fixed);
(*outputTrainingFilestream) << std::setprecision(3);
for (std::list<Recording>::iterator itOuter = recordingList.begin(); itOuter != recordingList.end(); itOuter++)
{
counter++;
if(counter%10 == 0)
{
std::cout << counter << std::endl;
}
cv::Mat currentImage = cv::imread(itOuter->GetFilePath(), cv::IMREAD_GRAYSCALE);
cv::Mat resizedCurrentImage;
cv::resize(currentImage, resizedCurrentImage, desiredImageSize, 0, 0, CV_INTER_AREA);
//std::cout << "Current Size: " << resizedCurrentImage.size() << std::endl;
for (std::list<Recording>::iterator itInner = recordingList.begin(); itInner != recordingList.end(); itInner++)
{
cv::Mat currentInnerImage = cv::imread(itInner->GetFilePath(), cv::IMREAD_GRAYSCALE);
cv::Mat resizedInnerImage;
cv::resize(currentInnerImage, resizedInnerImage, desiredImageSize, 0, 0, CV_INTER_AREA);
std::ofstream* outputFilestream;
double myRand = ((double) rand() / (RAND_MAX));
if ((myRand < 0.7 && trainingCount < proposedTrainingCount)|| testingCount >=proposedTestingCount)
{
outputFilestream = outputTrainingFilestream;
trainingCount++;
}
else
{
outputFilestream = outputTestFilestream;
testingCount++;
}
for (int x = 0; x < width; x++)
{
for (int y = 0; y < height; y++)
{
cv::Scalar intensity = resizedCurrentImage.at<uchar>(x,y);
(*outputFilestream) << (double) intensity[0]/255 << " ";
}
}
for (int x = 0; x < width; x++)
{
for (int y = 0; y < height; y++)
{
cv::Scalar intensity = resizedInnerImage.at<uchar>(x,y);
(*outputFilestream) << (double) intensity[0]/255 << " ";
}
}
if (itOuter->GetSubjectId() == itInner->GetSubjectId())
{
(*outputFilestream) << 1;
}
else
{
(*outputFilestream) << 0;
}
(*outputFilestream) << std::endl;
}
}
std::cout << trainingCount << " " << testingCount << std::endl;
outputTestFilestream->close();
outputTrainingFilestream->close();
}
int main(int argc, char **argv)
{
std::cout << "Hello, welcome to NeuralNetwork Testing program!!" << std::endl;
ThreeLayerNetwork initialNetwork = ThreeLayerNetwork::GetNewNetworkFromFile(); //LoadInitialNetwork();
ExampleContainer testExamples = LoadTestingExamples();
std::fstream* outputFile = GetOutputFile();
(*outputFile).setf(std::ios::fixed);
(*outputFile) << std::setprecision(3);
std::list<Example> examples = testExamples.GetExamples();
std::vector<int> A (testExamples.GetOutputSize(), 0); // expected 1, predicted 1
std::vector<int> B (testExamples.GetOutputSize(), 0); // expected 0, predicted 1
std::vector<int> C (testExamples.GetOutputSize(), 0); // expected 1, predicted 0
std::vector<int> D (testExamples.GetOutputSize(), 0); // expected 0, predicted 0
std::list<Example>::iterator ex;
for (ex = examples.begin(); ex != examples.end(); ex++)
{
initialNetwork.PropogateForward((*ex));
std::vector<bool> outputs = initialNetwork.GetOutputs();
std::vector<bool> expectedOutputs = ex->GetOutputs();
if (outputs.size() != expectedOutputs.size())
{
std::cerr << "Something weird happened - expectedOutputs size is not the same as the outputs size - this should have been ensured elsewhere!" << std::endl;
exit(-1);
}
for (int i = 0; i < outputs.size(); i++)
{
if (expectedOutputs[i] == true) //expected 1
{
if (outputs[i] == true) // predicted 1
{
A[i]++;
}
else // predicted 0
{
C[i]++;
}
}
else // expected 0
{
if (outputs[i] == true) // predicted 1
{
B[i]++;
}
else // predicted 0
{
D[i]++;
}
}
}
}
std::vector<double> OverallAccuracy (testExamples.GetOutputSize(), 0);
std::vector<double> Precision (testExamples.GetOutputSize(), 0);
std::vector<double> Recall (testExamples.GetOutputSize(), 0);
std::vector<double> F1 (testExamples.GetOutputSize(), 0);
for (int i = 0; i < testExamples.GetOutputSize(); i++)
{
OverallAccuracy[i] = ((double) A[i] + D[i])/(A[i] + B[i] + C[i] + D[i]);
Precision[i] = (double) A[i]/(A[i] + B[i]);
Recall[i] = (double) A[i]/(A[i] + C[i]);
F1[i] = (2*Precision[i]*Recall[i])/(Precision[i] + Recall[i]);
}
for (int i = 0; i < testExamples.GetOutputSize(); i++)
{
(*outputFile) << A[i] << " " << B[i] << " " << C[i] << " " << D[i] << " " << OverallAccuracy[i] << " " << Precision[i]
<< " " << Recall[i] << " " << F1[i] << std::endl;
}
int microA = std::accumulate(A.begin(), A.end(), 0);
int microB = std::accumulate(B.begin(), B.end(), 0);
int microC = std::accumulate(C.begin(), C.end(), 0);
int microD = std::accumulate(D.begin(), D.end(), 0);
double microOverallAccuracy = ((double) microA + microD)/(microA + microB + microC + microD);
double microPrecision = (double) microA/(microA + microB);
double microRecall = (double) microA/(microA + microC);
double microF1 = (2*microPrecision*microRecall)/(microPrecision + microRecall);
std::cout << std::accumulate(OverallAccuracy.begin(), OverallAccuracy.end(), 0) << std::endl;
double macroOverallAccuracy = std::accumulate(OverallAccuracy.begin(), OverallAccuracy.end(), 0.0)/ (double) OverallAccuracy.size();
double macroPrecision = std::accumulate(Precision.begin(), Precision.end(), 0.0)/ (double) Precision.size();
double macroRecall = std::accumulate(Recall.begin(), Recall.end(), 0.0)/ (double) Recall.size();
double macroF1 = (2*macroPrecision*macroRecall)/(macroPrecision + macroRecall);
(*outputFile) << microOverallAccuracy << " " << microPrecision << " " << microRecall << " " << microF1 << std::endl;
(*outputFile) << macroOverallAccuracy << " " << macroPrecision << " " << macroRecall << " " << macroF1 << std::endl;
outputFile->close();
}