CmdLineExpander::CmdLineExpander (const KKStr& _applicationName,
RunLog& _log,
const KKStr& _cmdLine
):
applicationName (_applicationName),
log (_log)
{
VectorKKStr initialParameters;
KKStr cmdLine (_cmdLine);
cmdLine.TrimLeft ();
while (!cmdLine.Empty ())
{
KKStr nextField = cmdLine.ExtractQuotedStr ("\n\r\t ", false); // false = Do not decode escape characters
nextField.TrimRight ();
if (!nextField.Empty ())
initialParameters.push_back (nextField);
cmdLine.TrimLeft ();
}
BuildCmdLineParameters (initialParameters);
BuildExpandedParameterPairs ();
}
void CmdLineExpander::ExtractParametersFromFile (const KKStr& cmdFileName,
VectorKKStr& cmdFileParameters,
bool& validFile
)
{
FILE* in = osFOPEN (cmdFileName.Str (), "r");
if (!in)
{
log.Level (-1) << endl << endl << endl
<< "ExtractParametersFromFile *** EROR ***" << endl
<< endl
<< " Invalid CmdFile[" << cmdFileName << "]" << endl
<< endl;
validFile = false;
return;
}
KKStr token;
bool eof = false;
token = osReadNextQuotedStr (in, " \n\r", eof);
while (!eof)
{
cmdFileParameters.push_back (token);
token = osReadNextQuotedStr (in, " \n\r", eof);
}
std::fclose (in);
} /* ExtractParametersFromFile */
VectorKKStr KKStrParser::Split (const char* delStr)
{
VectorKKStr tokens;
while (MoreTokens ())
tokens.push_back (this->GetNextToken (delStr));
return tokens;
}
VectorKKStr Configuration::FormatErrorsWithLineNumbers () const
{
VectorKKStr errorMsgs;
for (kkuint32 i = 0; i < formatErrors.size (); i++)
{
KKStr lineNumStr = " ";
if (i < formatErrorsLineNums.size ())
lineNumStr = StrFormatInt (formatErrorsLineNums[i], "0000");
errorMsgs.push_back (lineNumStr + ":" + formatErrors[i]);
}
return errorMsgs;
} /* FormatErrorsWithLineNumbers */
void CmdLineExpander::ExpandCmdLine (kkint32 argc,
char** argv
)
{
parmsGood = true;
VectorKKStr initialParameters;
{
kkint32 y;
for (y = 1; y < argc; y++)
initialParameters.push_back (argv[y]);
}
BuildCmdLineParameters (initialParameters);
BuildExpandedParameterPairs ();
return;
} /* ExpandCmdLine */
VectorKKStr FeatureFileIO::RegisteredDriverNames (bool canRead,
bool canWrite
)
{
vector<FeatureFileIOPtr>* drivers = RegisteredDrivers ();
VectorKKStr names;
vector<FeatureFileIOPtr>::iterator idx;
for (idx = drivers->begin (); idx != drivers->end (); idx++)
{
FeatureFileIOPtr driver = *idx;
if (canRead && (!driver->CanRead ()))
continue;
if (canWrite && (!driver->CanWrite ()))
continue;
names.push_back (driver->DriverName ());
}
return names;
} /* RegisteredDriverNames */
/**
* @brief Constructs a Feature Encoder object.
* @param[in] _fileDesc
* @param[in] _class1
* @param[in] _class2
* @param[in] _log A log-file stream. All important events will be output to this stream
*/
FeatureEncoder::FeatureEncoder (FileDescConstPtr _fileDesc,
MLClassPtr _class1,
MLClassPtr _class2,
const FeatureNumList& _selectedFeatures,
SVM_EncodingMethod _encodingMethod,
double _c_Param
):
cardinalityDest (NULL),
class1 (_class1),
class2 (_class2),
codedNumOfFeatures (0),
c_Param (_c_Param),
destFeatureNums (NULL),
destFileDesc (NULL),
destWhatToDo (NULL),
encodingMethod (_encodingMethod),
fileDesc (_fileDesc),
numEncodedFeatures (0),
numOfFeatures (0),
selectedFeatures (_selectedFeatures),
srcFeatureNums (NULL),
xSpaceNeededPerExample (0)
{
numOfFeatures = selectedFeatures.NumOfFeatures ();
xSpaceNeededPerExample = 0;
srcFeatureNums = new kkint32[numOfFeatures];
cardinalityDest = new kkint32[numOfFeatures];
destFeatureNums = new kkint32[numOfFeatures];
destWhatToDo = new FeWhatToDo[numOfFeatures];
VectorKKStr destFieldNames;
kkint32 x;
for (x = 0; x < numOfFeatures; x++)
{
kkint32 srcFeatureNum = selectedFeatures[x];
srcFeatureNums [x] = srcFeatureNum;
destFeatureNums [x] = xSpaceNeededPerExample;
cardinalityDest [x] = 1;
destWhatToDo [x] = FeWhatToDo::FeAsIs;
const Attribute& attribute = fileDesc->GetAAttribute (srcFeatureNum);
AttributeType attributeType = attribute.Type ();
kkint32 cardinality = attribute.Cardinality ();
switch (encodingMethod)
{
case SVM_EncodingMethod::Binary:
if ((attributeType == AttributeType::Nominal) || (attributeType == AttributeType::Symbolic))
{
destWhatToDo [x] = FeWhatToDo::FeBinary;
cardinalityDest [x] = cardinality;
xSpaceNeededPerExample += cardinalityDest[x];
numEncodedFeatures += cardinalityDest[x];
for (kkint32 zed = 0; zed < cardinalityDest[x]; zed++)
{
KKStr fieldName = attribute.Name () + "_" + attribute.GetNominalValue (zed);
destFieldNames.push_back (fieldName);
}
}
else
{
xSpaceNeededPerExample++;
numEncodedFeatures++;
destWhatToDo [x] = FeWhatToDo::FeAsIs;
destFieldNames.push_back (attribute.Name ());
}
break;
case SVM_EncodingMethod::Scaled:
xSpaceNeededPerExample++;
numEncodedFeatures++;
if ((attributeType == AttributeType::Nominal) ||
(attributeType == AttributeType::Symbolic)
)
destWhatToDo [x] = FeWhatToDo::FeScale;
else
destWhatToDo [x] = FeWhatToDo::FeAsIs;
destFieldNames.push_back (attribute.Name ());
break;
case SVM_EncodingMethod::NoEncoding:
default:
xSpaceNeededPerExample++;
numEncodedFeatures++;
destWhatToDo [x] = FeWhatToDo::FeAsIs;
destFieldNames.push_back (attribute.Name ());
break;
}
}
codedNumOfFeatures = xSpaceNeededPerExample;
destFileDesc = FileDesc::NewContinuousDataOnly (destFieldNames);
xSpaceNeededPerExample++; // Add one more for the terminating (-1)
}
void Test ()
{
RunLog log;
DataBasePtr dbConn = new DataBase (log);
// InstrumentDataPtr id = dbConn->InstrumentDataGetByScanLine ("TestCruise_01", 4022);
//{
// ImageFeaturesPtr fv = NULL;
// KKStr imageFileName = "TestCruise_01_00006156_3701";
// DataBaseImagePtr dbi = dbConn->ImageLoad (imageFileName);
// if (dbi)
// fv = dbConn->FeatureDataRecLoad (dbi);
// delete fv;
// delete dbi;
//}
{
SipperCruiseListPtr cruises = dbConn->SipperCruiseLoadAllCruises ();
delete cruises;
}
bool cancelFlag = false;
{
DataBaseImageGroupPtr existingGroup = dbConn->ImageGroupLoad ("TestGroup2");
if (existingGroup)
{
VectorUint* depthStats = dbConn->ImageGetDepthStatistics
(existingGroup,
"", // sipperFileName
10.0f, // depthIncrements,
NULL, // mlClass,
'P', // 'p' = Use Predicted Class
0.0f, 1.0f, // minProb, maxProb,
0, 0 // minSize, maxSize
);
delete depthStats;
depthStats = NULL;
ClassStatisticListPtr stats = dbConn->ImageGetClassStatistics
(existingGroup,
"ETP2008_8A_06",
NULL,
'P', // 'P' = Use Predicted Class
0.0f, 1.0f, // MinProb, MaxProb
0, 0, // MinSize, MaxSize
0.0f, 0.0f // MinDepth, MaxDepth
);
delete stats;
stats = NULL;
}
DataBaseImageListPtr images = dbConn->ImagesQuery (existingGroup, true, cancelFlag);
}
DataBaseImageGroupPtr g = new DataBaseImageGroup (-1, "TestGroup2", "Description of group", 0);
dbConn->ImageGroupInsert (*g);
if (dbConn->DuplicateKey ())
{
DataBaseImageGroupPtr existingGroup = dbConn->ImageGroupLoad (g->Name ());
if (existingGroup)
{
g->ImageGroupId (existingGroup->ImageGroupId ());
dbConn->ImageGroupDelete (existingGroup->ImageGroupId ());
dbConn->ImageGroupInsert (*g);
delete existingGroup;
existingGroup = NULL;
}
}
DataBaseImageListPtr images = dbConn->ImagesQuery (NULL,
"ETP2008", "8", "A", NULL,
'P', // 'P' = Use Predicted Class
0.0f, 1.0f, // MinProb, MaxProb
0, 0, // MinSize, MaxSize
290.0f, 293.0f, // MinDepth, MaxDepth
0, // Restart Image
-1, // unlimited Limit
true, // true=Include ThumbNail
cancelFlag
);
VectorKKStr fileNames;
{
DataBaseImageList::iterator idx;
for (idx = images->begin (); idx != images->end (); idx++)
fileNames.push_back ((*idx)->ImageFileName ());
}
dbConn->ImageGroupEntriesInsert (g->ImageGroupId (), fileNames);
delete dbConn;
} /* Test */
void RandomSplitJobManager::GenerateFinalResultsReport ()
{
KKStr reportFileName = osGetRootName (ManagerName ()) + "_Results.html;";
ofstream f (reportFileName.Str ());
f << "Run Time Parameters" << endl
<< "Run Time" << "\t" << osGetLocalDateTime () << endl
<< "configFileName" << "\t" << configFileName << endl
<< "DataFileName" << "\t" << dataFileName << endl
<< "Format" << "\t" << format->DriverName () << endl
<< "DataIndexFileName" << "\t" << dataIndexFileName << endl
<< "NumFolds" << "\t" << numFolds << endl
<< "NumSplits" << "\t" << numSplits << endl
<< "splitFraction" << "\t" << splitFraction << endl
<< endl;
KKJobList::const_iterator idx;
ConfusionMatrix2 avgResults (*(this->MLClasses ()));
KKB::uint x = 0;
for (idx = Jobs ()->begin (); idx != Jobs ()->end (); idx++)
{
RandomSplitJobPtr j = dynamic_cast<RandomSplitJobPtr> (*idx);
if (j->RandomSplitsResults () != NULL)
{
f << endl
<< "Random Split[" << j->SplitNum () << "]" << endl;
j->RandomSplitsResults ()->PrintConfusionMatrixTabDelimited (f);
f << endl << endl;
j->PrintClassCounts (f);
f << endl << endl;
avgResults.AddIn (*(j->RandomSplitsResults ()), log);
x++;
}
}
f << endl << "Mean Average of all random Splits." << endl;
avgResults.FactorCounts (1.0 / (double)x);
avgResults.PrintConfusionMatrixTabDelimited (f);
f << endl
<< endl
<< endl
<< endl
<< "Class Counts" << endl
<< endl;
kkuint32 numClasses = (kkuint32)mlClasses->size ();
VectorFloat classAccs;
VectorDouble knownCounts;
VectorDouble predCounts;
VectorDouble adjCounts;
VectorDouble adjCountsStdError;
VectorDouble predDelta;
VectorDouble adjDelta;
KKStr l1, l2, l3;
mlClasses->ExtractThreeTitleLines (l1, l2, l3);
VectorKKStr knownCountLines;
VectorKKStr predCountLines;
VectorKKStr adjCountLines;
VectorKKStr deltaPredCountLines;
VectorKKStr deltaAdjCountLines;
VectorKKStr accLines;
ConfusionMatrix2 totalCM (*MLClasses ());
int totalCmCount = 0;
// Known Counts
for (idx = Jobs ()->begin (); idx != Jobs ()->end (); idx++)
{
RandomSplitJobPtr j = dynamic_cast<RandomSplitJobPtr> (*idx);
if (j->RandomSplitsResults () != NULL)
{
KKStr splitNumStr = StrFormatInt (j->SplitNum (), "ZZZ0");
j->GetClassCounts (classAccs, knownCounts, predCounts, adjCounts, adjCountsStdError, predDelta, adjDelta);
totalCM.AddIn (*(j->RandomSplitsResults ()), log);
totalCmCount++;
KKStr accLine = "Acc By Class\t" + splitNumStr;
KKStr knownLine = "Known\t" + splitNumStr;
KKStr predLine = "Predicted\t" + splitNumStr;
KKStr adjLine = "Adjusted\t" + splitNumStr;
KKStr deltaPredLine = "Delta Pred\t" + splitNumStr;
KKStr deltaAdjLine = "Delta Adj\t" + splitNumStr;
double totalAcc = 0.0;
double totalDeltaPred = 0.0;
double totalDeltaAdj = 0.0;
for (x = 0; x < numClasses; x++)
{
accLine << "\t" << StrFormatDouble (classAccs [x], "zz0.00") << "%";
knownLine << "\t" << StrFormatDouble (knownCounts [x], "-Z,ZZZ,ZZ0.0");
predLine << "\t" << StrFormatDouble (predCounts [x], "-Z,ZZZ,ZZ0.0");
adjLine << "\t" << StrFormatDouble (adjCounts [x], "-Z,ZZZ,ZZ0.0");
deltaPredLine << "\t" << StrFormatDouble (predDelta [x], "-Z,ZZZ,ZZ0.0");
deltaAdjLine << "\t" << StrFormatDouble (adjDelta [x], "-Z,ZZZ,ZZ0.0");
totalAcc += classAccs [x];
totalDeltaPred += fabs (predDelta[x]);
totalDeltaAdj += fabs (adjDelta[x]);
}
accLine << "\t" << StrFormatDouble ((totalAcc / (double)classAccs.size ()), "ZZ0.00") << "%";
deltaPredLine << "\t" << StrFormatDouble ((totalDeltaPred / (double)predDelta.size ()), "ZZ0.00");
deltaAdjLine << "\t" << StrFormatDouble ((totalDeltaAdj / (double)adjDelta.size ()), "ZZ0.00");
accLines.push_back (accLine);
knownCountLines.push_back (knownLine);
predCountLines.push_back (predLine);
adjCountLines.push_back (adjLine);
deltaPredCountLines.push_back (deltaPredLine);
deltaAdjCountLines.push_back (deltaAdjLine);
}
}
double factor = 0.0;
if (totalCmCount > 0)
factor = 1.0 / (double)totalCmCount;
totalCM.FactorCounts (factor);
f << endl << endl
<< "Average Confusion Matrix" << endl
<< endl;
totalCM.PrintConfusionMatrixTabDelimited (f);
f << "" << "\t" << "" << "\t" << l1 << endl
<< "" << "\t" << "Split" << "\t" << l2 << endl
<< "Description" << "\t" << "Num" << "\t" << l3 << endl;
f << endl << endl;
for (x = 0; x < knownCountLines.size (); x++)
f << knownCountLines[x] << endl;
f << endl << endl;
for (x = 0; x < predCountLines.size (); x++)
f << predCountLines[x] << endl;
f << endl << endl;
for (x = 0; x < adjCountLines.size (); x++)
f << adjCountLines[x] << endl;
f << endl << endl;
for (x = 0; x < deltaPredCountLines.size (); x++)
f << deltaPredCountLines[x] << endl;
f << endl << endl;
for (x = 0; x < deltaAdjCountLines.size (); x++)
f << deltaAdjCountLines[x] << endl;
f << endl << endl;
for (x = 0; x < knownCountLines.size (); x++)
f << accLines[x] << endl;
VectorFloat avgAccuracies = totalCM.AccuracyByClass ();
f << "Avg-Accuracies";
for (x = 0; x < avgAccuracies.size (); x++)
f << "\t" << StrFormatDouble (avgAccuracies[x], "zz0.00") << "%";
f << "\t" << StrFormatDouble (totalCM.Accuracy (), "zz0.00") << "%";
f << endl;
f << endl << endl;
f.close ();
} /* GenerateFinalResultsReport */
/**
*@brief Constructs a Feature Encoder object.
*@param[in] _param
*@param[in] _fileDesc
*@param[in] _log A log file stream. All important events will be output to this stream
*/
FeatureEncoder2::FeatureEncoder2 (const ModelParam& _param,
FileDescConstPtr _fileDesc
):
attributeVector (_fileDesc->AttributeVector ()),
cardinalityDest (NULL),
cardinalityVector (_fileDesc->CardinalityVector ()),
codedNumOfFeatures (0),
destFeatureNums (NULL),
destWhatToDo (NULL),
encodedFileDesc (NULL),
encodingMethod (ModelParam::EncodingMethodType::NoEncoding),
fileDesc (_fileDesc),
numOfFeatures (0),
srcFeatureNums (NULL),
param (_param)
{
FeatureNumListConstPtr selectedFeatures = param.SelectedFeatures ();
numOfFeatures = param.SelectedFeatures ()->NumOfFeatures ();
encodingMethod = param.EncodingMethod ();
srcFeatureNums = new kkuint16 [numOfFeatures];
cardinalityDest = new kkint32 [numOfFeatures];
destFeatureNums = new kkint32 [numOfFeatures];
destWhatToDo = new FeWhatToDo[numOfFeatures];
VectorKKStr destFieldNames;
kkint32 x;
for (x = 0; x < numOfFeatures; x++)
{
kkuint16 srcFeatureNum = (*selectedFeatures)[x];
srcFeatureNums [x] = srcFeatureNum;
destFeatureNums [x] = codedNumOfFeatures;
cardinalityDest [x] = 1;
destWhatToDo [x] = FeWhatToDo::FeAsIs;
Attribute srcAttribute = (fileDesc->Attributes ())[srcFeatureNum];
switch (encodingMethod)
{
case ModelParam::EncodingMethodType::Binary:
if ((attributeVector[srcFeatureNum] == AttributeType::Nominal) ||
(attributeVector[srcFeatureNum] == AttributeType::Symbolic)
)
{
destWhatToDo [x] = FeWhatToDo::FeBinary;
cardinalityDest [x] = cardinalityVector[srcFeatureNums [x]];
codedNumOfFeatures += cardinalityDest[x];
for (kkint32 zed = 0; zed < cardinalityDest[x]; zed++)
{
KKStr fieldName = srcAttribute.Name () + "_" + srcAttribute.GetNominalValue (zed);
destFieldNames.push_back (fieldName);
}
}
else
{
codedNumOfFeatures++;
destWhatToDo [x] = FeWhatToDo::FeAsIs;
destFieldNames.push_back (srcAttribute.Name ());
}
break;
case ModelParam::EncodingMethodType::Scaled:
codedNumOfFeatures++;
if ((attributeVector[srcFeatureNums[x]] == AttributeType::Nominal) ||
(attributeVector[srcFeatureNums[x]] == AttributeType::Symbolic)
)
destWhatToDo [x] = FeWhatToDo::FeScale;
else
destWhatToDo [x] = FeWhatToDo::FeAsIs;
destFieldNames.push_back (srcAttribute.Name ());
break;
case ModelParam::EncodingMethodType::NoEncoding:
default:
codedNumOfFeatures++;
destWhatToDo [x] = FeWhatToDo::FeAsIs;
destFieldNames.push_back (srcAttribute.Name ());
break;
}
}
encodedFileDesc = FileDesc::NewContinuousDataOnly (destFieldNames);
}
void OurNeighbors::RandomReport (ImageFeaturesList& images)
{
double allClassesMeanNNDAnyClass = 0.0f;
double allClassesMeanStdDevAnyClass = 0.0f;
ClassSummaryList classSummaries (log);
MLClassList::iterator classIdx;
VectorKKStr zScoreSummaryLines;
for (classIdx = mlClasses->begin (); classIdx != mlClasses->end (); classIdx++)
{
MLClassPtr mlClass = *classIdx;
if (fromPlankton && (fromPlankton != mlClass))
continue;
double randomMeanNND = 0.0f;
double randomStdDevNND = 0.0f;
double realDataU2Stat = 0.0f;
double sampleMeanNND = 0.0f;
double sampleStdDevNND = 0.0f;
double sampleMaxDist = 0.0f;
double sampleMinDist = 0.0f;
ImageFeaturesListPtr imagesInClass = images.ExtractExamplesForAGivenClass (mlClass);
if (imagesInClass->QueueSize () > 0)
{
// We are going to make a list of images that has duplicate instances of 'ImageFeatures' objects
// This way when we Randomize the locations of each 'sfCentroidRow' and 'sfCentroidCol' we do not
// imapct on the original data.
ImageFeaturesListPtr imagesToRandomize = new ImageFeaturesList (*imagesInClass,
true // 'true means we want to own the data so new instances will be created.
);
LLoydsEntryListPtr lloydsEntries = DeriveAllLLoydsBins (*imagesToRandomize);
{
// We will now get mean and stdDev of nnd for this class
NeighborList neighbors (*imagesToRandomize, log);
neighbors.FindNearestNeighbors (neighborType, mlClass);
neighbors.CalcStatistics (sampleMeanNND, sampleStdDevNND, sampleMaxDist, sampleMinDist);
}
KKStr randomReportFileName;
if (reportFileName.Empty ())
randomReportFileName = "RandomDistanceReport";
else
randomReportFileName = osRemoveExtension (reportFileName) + "_Random";
randomReportFileName << "_" << mlClass->Name () << ".txt";
ofstream randomReport (randomReportFileName.Str ());
randomReport << "Random Distribution Report" << endl
<< endl;
randomReport << "Source Directory [" << sourceRootDirPath << "]" << endl;
randomReport << "Class [" << mlClass->Name () << "]" << endl;
RandomNND randomizeLocations (lastScanLine,
*imagesToRandomize,
numOfIterations,
numOfBuckets,
bucketSize,
randomReport,
log
);
randomizeLocations.GenerateReport ();
randomMeanNND = randomizeLocations.NND_Mean ();
randomStdDevNND = randomizeLocations.NND_StdDev ();
realDataU2Stat = randomizeLocations.RealDataU2Stat ();
//double sampleMeanNND = 0.0f;
//double sampleStdDevNND = 0.0f;
double z_Score = Z_Score (sampleMeanNND, randomMeanNND, randomStdDevNND, imagesToRandomize->QueueSize ());
randomReport << endl << endl << endl
<< "Z-Score" << endl
<< "=======" << endl
<< endl
<< "SampleMeanNND " << "\t" << sampleMeanNND << endl
<< "SampleStdDevNND " << "\t" << sampleStdDevNND << endl
<< "RandomMeanNND " << "\t" << randomMeanNND << endl
<< "RandomStdDevNND " << "\t" << randomStdDevNND << endl
<< "------- Z-Score " << "\t" << z_Score << endl
<< endl;
KKStr zScoreSummaryLine = mlClass->Name () + "\t" +
StrFormatDouble (sampleMeanNND, "###,##0.00") + "\t" +
StrFormatDouble (sampleStdDevNND, "###,##0.00") + "\t" +
StrFormatDouble (randomMeanNND, "###,##0.00") + "\t" +
StrFormatDouble (randomStdDevNND, "###,##0.00") + "\t" +
StrFormatDouble (z_Score, "###,##0.000");
zScoreSummaryLines.push_back (zScoreSummaryLine);
// The new instance on 'ClassSummary' that is aboiut to be created will take ownership
// of lloydsBins.
classSummaries.PushOnBack (new ClassSummary (mlClass, lloydsEntries, (float)realDataU2Stat, (float)z_Score));
delete imagesToRandomize; imagesToRandomize = NULL;
}
delete imagesInClass; imagesInClass = NULL;
}
if (!fromPlankton)
{
LLoydsEntryListPtr allClassesLLoydsEntries = DeriveAllLLoydsBins (images);
// Create a report for all classes
KKStr randomReportFileName;
if (reportFileName.Empty ())
randomReportFileName = "RandomDistanceReport_All.txt";
else
randomReportFileName = osRemoveExtension (reportFileName) + "_Random_All.txt";
ofstream randomReport (randomReportFileName.Str ());
randomReport << "Source Directory [" << sourceRootDirPath << "]" << endl;
randomReport << "Class [" << "All" << "]" << endl;
{
// Find the mean and stddev of Nearest Neighbor regardless of class.
NeighborList allClassesNeighbors (images, log);
allClassesNeighbors.FindNearestNeighbors (NeighborType::AnyPlankton, fromPlankton);
double allClassesMinDistAnyClass = 0.0f;
double allClassesMaxDistAnyClass = 0.0f;
allClassesNeighbors.CalcStatistics (allClassesMeanNNDAnyClass,
allClassesMeanStdDevAnyClass,
allClassesMinDistAnyClass,
allClassesMaxDistAnyClass
);
}
RandomNND randomizeLocations (lastScanLine,
images,
numOfIterations,
numOfBuckets,
bucketSize,
randomReport,
log
);
randomizeLocations.GenerateReport ();
// All classes Z-Score
double allClassesRandomMeanNND = randomizeLocations.NND_Mean ();
double allClassesRandomStdDevNND = randomizeLocations.NND_StdDev ();
double allClassesRealDataU2Stat = randomizeLocations.RealDataU2Stat ();
double z_Score = Z_Score (allClassesMeanNNDAnyClass, allClassesRandomMeanNND, allClassesRandomStdDevNND, images.QueueSize ());
KKStr zScoreSummaryLine = KKStr ("All-Classes") + "\t" +
StrFormatDouble (allClassesMeanNNDAnyClass, "###,##0.00") + "\t" +
StrFormatDouble (allClassesMeanStdDevAnyClass, "###,##0.00") + "\t" +
StrFormatDouble (allClassesRandomMeanNND, "###,##0.00") + "\t" +
StrFormatDouble (allClassesRandomStdDevNND, "###,##0.00") + "\t" +
StrFormatDouble (z_Score, "###,##0.00");
zScoreSummaryLines.push_back (zScoreSummaryLine);
randomReport << endl << endl << endl
<< "Z-Score" << endl
<< "=======" << endl
<< endl
<< "SampleMeanNND " << "\t" << allClassesMeanNNDAnyClass << endl
<< "SampleStdDevNND " << "\t" << allClassesMeanStdDevAnyClass << endl
<< "RandomMeanNND " << "\t" << allClassesRandomMeanNND << endl
<< "RandomStdDevNND " << "\t" << allClassesRandomStdDevNND << endl
<< "------- Z-Score " << "\t" << z_Score << endl
<< endl;
classSummaries.PushOnBack (new ClassSummary (MLClass::CreateNewMLClass (KKStr ("AllClasses")),
allClassesLLoydsEntries,
(float)allClassesRealDataU2Stat,
(float)z_Score
)
);
}
{
// Z-Score Summary Report
KKB::kkuint32 x;
*report << std::endl << std::endl
<< "Z-Score Summary By Class" << std::endl
<< std::endl
<< "ClassName" << "\t" << "SampleMean" << "\t" << "SampleStdDev" << "\t" << "RandomMean" << "\t" << "RandomStdDev" << "\t" << "Z-Score" << std::endl
<< "=========" << "\t" << "==========" << "\t" << "============" << "\t" << "==========" << "\t" << "============" << "\t" << "=======" << std::endl;
for (x = 0; x < zScoreSummaryLines.size (); x++)
*report << zScoreSummaryLines[x] << std::endl;
}
*report << endl << endl << endl;
classSummaries.SummaryReport (*report);
*report << endl << endl << endl;
classSummaries.SpatialOverlapReport (*report);
classSummaries.SaveLLoydsBinsData (lloydsBinsFileName, sourceRootDirPath, lastScanLine, baseLLoydsBinSize);
} /* RandomReport */