///
/// DrawingCanvas::useWhiteInk()
///
///
///
bool DrawingCanvas::useWhiteInk(Individual *pIndividual){
//
// How many sections are there?
//
unsigned sections = pIndividual->getDataTable()->getIconColumnCount();
if(!sections){
return false;
}else{
const DataTable * pDT = pIndividual->getDataTable();
//
// Well, we are only going to look at the first section of the pie
// even if there are multiple sections ...
//
DataColumn * pDC = pDT->getColumn( pDT->getIconColumnIndex(0) );
const UniqueList * pUL = pDC->getUniqueList();
//
// Only process if there are some non-missing levels present:
//
if(!pUL->getLevels()){
return false;
}else{
//
// What is the level and label in the UniqueList corresponding to the data value
// for this individual?
//
unsigned level;
std::string label;
pUL->getOrdinalAndLabelForKey( pDC->getDataAtIndex( pIndividual->getRowIndex() ),label,level );
//
// UniqueList ordinals are 1-offset, so we should only get zero back
// if the key was not found, which should never happen:
//
if(level==0) throw Exception("DrawingCanvas::useWhiteInk()","UniqueList returned ordinal 0.");
//
// Level is 1-offset, so subtract:
//
level--;
//
// Get the color series corresponding to this icon column:
//
ColorSeries *pCS;
if(DrawingMetrics::getColor()){
pCS = pDT->getColorSeriesFromStack(0);
}else{
pCS = pDT->getBlackAndWhiteSeriesFromStack(0);
}
if(pCS->useBlackInkAtLevel(level)){
return false;
}else{
return true;
}
}
}
}
///
/// toggleColumnsForPedigree(): User can specify any number of columns to be displayed on the pedigree.
/// Mark all such columns for output display, if they exist.
///
void DataTable::toggleColumnsForPedigree(const std::vector<std::string> &columns){
// Since the labels are specified by the user clear the vector that contains
// the default label 'Individual Id'
_labelColumns.clear();
for(unsigned i=0;i<columns.size();i++){
if(columnExists(columns[i])){
DataColumn* dc = getColumn(stringToUpper(columns[i]).c_str());
dc->setShowOnPedigree(true);
_labelColumns.push_back(dc->getOrdinal());
}else Warning("DataTable::toggleColumnsForPedigree","Could not find column %s to show on the pedigree.",columns[i].c_str());
}
}
void DataChart::Load(Simulator *lpSim, CStdXml &oXml)
{
short iColumn, iTotalColumns;
ActivatedItem::Load(lpSim, oXml);
oXml.IntoElem(); //Into DataChart Element
if(m_aryDataBuffer) delete[] m_aryDataBuffer;
m_aryDataBuffer = NULL;
m_aryDataColumns.RemoveAll();
float fltCollectInterval = oXml.GetChildFloat("CollectInterval");
Std_IsAboveMin((float) 0, fltCollectInterval, TRUE, "CollectInterval");
//Lets calculate the number of slices for the collect interval.
m_iCollectInterval = (int) (fltCollectInterval/lpSim->TimeStep());
if(m_iCollectInterval<=0) m_iCollectInterval = 1;
if(!oXml.FindChildElement("SetStartEndTime", FALSE))
{
m_bSetStartEndTime = oXml.GetChildBool("SetStartEndTime", TRUE);
m_fltCollectTimeWindow = oXml.GetChildFloat("CollectTimeWindow", -1);
}
else
{
m_bSetStartEndTime = TRUE;
m_fltCollectTimeWindow = -1;
}
//*** Begin Loading DataColumns. *****
oXml.IntoChildElement("DataColumns");
iTotalColumns = oXml.NumberOfChildren();
DataColumn *lpColumn = NULL;
for(iColumn=0; iColumn<iTotalColumns; iColumn++)
{
oXml.FindChildByIndex(iColumn);
lpColumn = LoadDataColumn(lpSim, oXml);
if(lpColumn->Index() < 0)
lpColumn->Index(iColumn);
}
oXml.OutOfElem();
//*** End Loading DataColumns. *****
oXml.OutOfElem(); //OutOf DataChart Element
}
Attribute::Attribute(const DataColumn& col)
{
totalUnique = 0;
name = col.Name();
PopulateMaps(col);
totalEntities = col.size;
}
DataColumn *DataChart::FindColumn(string strID, int &iIndex, BOOL bThrowError)
{
int iCount = m_aryDataColumns.GetSize();
DataColumn *lpColumn = NULL;
strID = Std_CheckString(strID);
for(iIndex=0; iIndex<iCount; iIndex++)
{
lpColumn = m_aryDataColumns[iIndex];
if(lpColumn->ID() >= strID)
return lpColumn;
}
if(bThrowError)
THROW_TEXT_ERROR(Al_Err_lDataColumnIDNotFound, Al_Err_strDataColumnIDNotFound, " DataColumn ID: " + strID);
return NULL;
}
//
// addPedigreesFromDataTable():
//
void PedigreeSet::addPedigreesFromDataTable(const DataTable * p_pedigreeTable, unsigned tableIndex,const std::string& sortField){
//
// Use const reference for convenience:
// (so I don't have to change the code
// since the parameter has changed from a
// const DataTable & to a const DataTable * )
//
const DataTable & pedigreeTable = (*p_pedigreeTable);
std::cout << "Start of addPedigreesFromDataTable" << std::endl;
//
// Get all the core columns from the datatable:
//
DataColumn *familyIdColumn = pedigreeTable.getColumn( pedigreeTable.labels.FamilyIdField );
//familyIdColumn->printData();
DataColumn *individualIdColumn = pedigreeTable.getColumn( pedigreeTable.labels.IndividualIdField );
//individualIdColumn->printData();
DataColumn *motherIdColumn = pedigreeTable.getColumn( pedigreeTable.labels.MotherIdField );
DataColumn *fatherIdColumn = pedigreeTable.getColumn( pedigreeTable.labels.FatherIdField );
DataColumn *genderColumn = pedigreeTable.getColumn( pedigreeTable.labels.GenderField );
//
// Insert the Pedigrees in a set:
//
std::string currentFamily;
int numberOfRows = familyIdColumn->getNumberOfRows();
int index=0;
while(index < numberOfRows){
currentFamily = familyIdColumn->get(index);
if(currentFamily == "."){
Warning("PedigreeSet::addPedigreesFromDataTable()",
"Family Id is missing for individual %s and will be ignored.",
individualIdColumn->get(index).c_str()
);
index++;
continue;
}
std::pair<std::set<Pedigree*,comparePedigrees>::iterator,bool> pp;
pp = _pedigrees.insert(new Pedigree(currentFamily,tableIndex));
if(pp.second){
for(int i=0;i<familyIdColumn->getNumberOfRows();i++) {
if(currentFamily.compare(familyIdColumn->get(i)) == 0){
(*pp.first)->addIndividual(individualIdColumn->get(i),motherIdColumn->get(i),fatherIdColumn->get(i),genderColumn->get(i),i,tableIndex,pedigreeTable);
}
}
}
index++;
}
// Set the core optional fields on the individuals
_setCoreOptionalFields(p_pedigreeTable);
_establishConnections();
bool dobPresent = false;
if(pedigreeTable.getDOBColumnIndex() != DataTable::COLUMN_IS_MISSING){
_checkParentChildDOB();
dobPresent = true;
}
_determineFoundingGroups();
bool sortFieldPresent = false;
if(sortField != std::string("") && sortField != pedigreeTable.labels.DOBField){
// Check to see if the field actually exists in the data table
if(pedigreeTable.columnExists(sortField)){
_computeWidths(sortField);
sortFieldPresent = true;
}else{
Warning("PedigreeSet::addPedigreesFromDataTable()",
"Field '%s' specified for sorting the siblings does not exist in the Pedigree Table. Default ordering will be used.",
sortField.c_str()
);
}
}
if(!sortFieldPresent){
if(dobPresent){
std::cout << "Siblings are ordered by DOB." << std::endl;
_computeWidths(pedigreeTable.labels.DOBField,true);
DrawingMetrics::setDisplayBirthOrder(true);
}else{
std::cout << "Default ordering of siblings." << std::endl;
_computeWidths(std::string(""));
}
}
std::cout << "End of addPedigreesFromDataTable" << std::endl;
}
///
/// iconPie(): Draws a pie with a given color on the individual icon. Each pie corresponds to one
/// categorical variable. The color corresponds to the level in that variable.
///
void DrawingCanvas::iconPie( double x, double y, Individual *pIndividual ){
//
// Handle virtual individuals:
//
if(pIndividual->isVirtual()){
//_body << "<circle cx=\"" << x << "\" cy=\"" << y << "\" r=\"" << 0.5*DrawingMetrics::getScalingFactor() << "\"";
//_body << " class=\"thinLine\"";
//_body << "/>\n";
return;
}
//
// Get here if non-virtual:
//
//
// How many sections are there?
//
unsigned sections = pIndividual->getDataTable()->getIconColumnCount();
if(!sections){
//
// No affected fields : Draw a small circle in the middle:
// (Nice for debugging -- otherwise comment out )
//
//_body << "<circle cx=\"" << x << "\" cy=\"" << y << "\" r=\"" << 0.5*DrawingMetrics::getScalingFactor() << "\"";
//_body << " class=\"thinLine\"";
//_body << "/>\n";
return;
}
//
// Setup clipping Id, if needed:
//
std::string clipId = pIndividual->getId().get() + "_clipPath";
double radius=DrawingMetrics::getIconRadius();
bool isMale = false;
if( pIndividual->getGender().getEnum()==Gender::MALE ){
setClipPath(x,y,clipId);
//
// Increase radius for clipping:
//
radius*=Number::SQRT_TWO;
isMale = true;
_body << "<g clip-path=\"url(#" << clipId << ")\">\n";
}else{
//
// Empty g with no clipping for female:
//
_body << "<g>\n";
}
//
// Iterate over _iconColumns:
//
const DataTable *pDT = pIndividual->getDataTable();
double arcAngle = 2.0*Number::PI/sections;
double startAngle = 0.5*Number::PI - arcAngle;
double endAngle = startAngle+arcAngle;
for(unsigned i=0;i<sections;i++){
//
// Get the data column of the ith icon column:
//
DataColumn * pDC = pDT->getColumn( pDT->getIconColumnIndex(i) );
//
// Get the UniqueList for this column:
//
const UniqueList * pUL = pDC->getUniqueList();
//
// Only process if there are some non-missing levels
// present:
//
if(!pUL->getLevels()) continue;
//
// What is the level and label in the UniqueList corresponding to the data value
// for this individual?
//
unsigned level;
std::string label;
pUL->getOrdinalAndLabelForKey( pDC->getDataAtIndex( pIndividual->getRowIndex() ),label,level );
//
// UniqueList ordinals are 1-offset, so we should only get zero back
// if the key was not found, which should never happen:
//
if(level==0) throw Exception("DrawingCanvas::iconPie()","UniqueList returned ordinal 0.");
//
// Level is 1-offset, so subtract:
//
level--;
//
// Get the color series corresponding to this icon column:
//
// NOTA BENE: (1) IF there is only one section, we use the
// blackAndWhite series
// UNLESS there is a color override.
//
// (2) OTHERWISE if there are more than one section,
// we use the color series
// UNLESS there is a black-and-white override.
//
ColorSeries *pCS;
if(sections==1){
if(DrawingMetrics::getColor()) pCS = pDT->getColorSeriesFromStack(i);
else pCS = pDT->getBlackAndWhiteSeriesFromStack(i);
}else{
if(DrawingMetrics::getBlackAndWhite()) pCS = pDT->getBlackAndWhiteSeriesFromStack(i);
else pCS = pDT->getColorSeriesFromStack(i);
}
//
// Assume reversed for now:
//
bool reversed=true;
std::string arcClass="blackInkLetter";
if(!pCS->reversedSeriesUseBlackInkAtLevel(level)) arcClass="whiteInkLetter";
//
// If the number of sections is small, use a larger font size
//
if(sections == 1) arcClass += "_1";
else if(sections == 2) arcClass += "_2";
else if(sections == 3) arcClass += "_3";
arc(x,y,radius,startAngle,endAngle,(reversed?pCS->reversedSeriesGetColorAtLevel(level):pCS->getColorAtLevel(level)),label,arcClass,isMale);
startAngle+=arcAngle;
endAngle+=arcAngle;
// For the first time draw the icon legend too:
if(!_iconLegendFlag){
_iconLegendFlag = true;
_iconLegend.setPedigreeTable(pDT);
}
}
_body << "</g>\n";
return;
}
///
/// iconQuadrantFill(): Shade quadrants of the icon to indicate specific levels.
/// This method has a limit of 16 distinct levels.
///
void DrawingCanvas::iconQuadrantFill( double x, double y, Individual *pIndividual ){
//
// Handle virtual individuals:
//
if(pIndividual->isVirtual()){
return;
}
//
// Get here if non-virtual:
//
//
// How many sections are there?
//
unsigned sections = pIndividual->getDataTable()->getIconColumnCount();
if(!sections){
//
// No affected fields : Draw a small circle in the middle:
// (Nice for debugging -- otherwise comment out )
//
//_body << "<circle cx=\"" << x << "\" cy=\"" << y << "\" r=\"" << 0.5*DrawingMetrics::getScalingFactor() << "\"";
//_body << " class=\"thinLine\"";
//_body << "/>\n";
return;
}
//
// Setup clipping Id, if needed:
//
double radius=DrawingMetrics::getIconRadius();
bool isMale = false;
if( pIndividual->getGender().getEnum()==Gender::MALE ){
std::string clipId = pIndividual->getId().get() + "_clipPath";
setClipPath(x,y,clipId);
//
// Increase radius for clipping:
//
radius*=Number::SQRT_TWO;
isMale = true;
_body << "<g clip-path=\"url(#" << clipId << ")\">\n";
}else{
//
// Empty g with no clipping for female:
//
_body << "<g>\n";
}
//
// NOTA BENE: The quadrant fill method looks only at the
// FIRST iconColumn and ignores any additional icon columns:
//
const DataTable *pDT = pIndividual->getDataTable();
//
// Get the data column of the first icon column:
//
DataColumn * pDC = pDT->getColumn( pDT->getIconColumnIndex(0) );
//
// Get the UniqueList for this column:
//
const UniqueList * pUL = pDC->getUniqueList();
//
// Only process if there are some non-missing levels
// present:
//
if(!pUL->getLevels()){
_body << "</g>\n";
return;
}
//
// What is the level and label in the UniqueList corresponding to the data value
// for this individual?
//
//unsigned level;
//std::string label;
//pUL->getOrdinalAndLabelForKey( pDC->getDataAtIndex( pIndividual->getRowIndex() ),label,level );
//
Data* data = pDC->getDataAtIndex( pIndividual->getRowIndex());
//
// Draw a dot for missing values:
//
if(data->isMissing()){
drawText(x,y,".","blackInkLetter_1");
_body << "</g>\n";
return;
}
std::string label;
std::string svalue = data->get();
std::istringstream i(svalue);
int level;
bool converted = (i>>level);
if(!converted || level<0 || level>15 ){
//
// (1) Unable to convert data string to integer, or
// (2) integer value is out of range
//
double lineSpacing,xAdvance,yMinimum,yMaximum;
_lasiWrapper.getDimensions(svalue,&lineSpacing,&xAdvance,&yMinimum,&yMaximum);
y+= 0.5*(yMaximum-yMinimum);
drawIconText(x,y,svalue,"blackInkLetter_1");
_body << "</g>\n";
return;
}
//
// Fill arc for each quadrant based on level:
// Note: Madeline's "arc()" method doesn't use the standard counter-clockwise quadrants
// starting at 0, so the order of the 4 "if" statements below may appear mixed up but
// this actually results in shading of the quadrants according to standard notation:
//
if(level & 0x02 ){
arc(x,y,radius,0,0.5*Number::PI,"#000",label,"whiteInkLetter",isMale);
}
if(level & 0x01 ){
arc(x,y,radius,0.5*Number::PI,Number::PI,"#000",label,"whiteInkLetter",isMale);
}
if(level & 0x08 ){
arc(x,y,radius,Number::PI,1.5*Number::PI,"#000",label,"whiteInkLetter",isMale);
}
if(level & 0x04 ){
arc(x,y,radius,1.5*Number::PI,2.0*Number::PI,"#000",label,"whiteInkLetter",isMale);
}
//
// For the first time draw the icon legend too:
//
//if(!_iconLegendFlag){
// _iconLegendFlag = true;
// _iconLegend.setPedigreeTable(pDT);
//}
_body << "</g>\n";
return;
}
int SqliteClient::executeSqlQuery(const string& sql, DataTable& table)
{
Locker locker(&_sqliteDbMutex);
#if DEBUG
Stopwatch sw("executeSqlQuery", 100);
#endif
sqlite3_stmt *stmt;
int result = sqlite3_prepare_v2(_sqliteDb, sql.c_str(), sql.length(), &stmt, 0);
if(result != SQLITE_OK)
{
printErrorInfo("sqlite3_prepare_v2", sql);
return result;
}
//const char* name = sqlite3_column_table_name(stmt, 0);
//table.setName(name != NULL ? name : "temp");
// todo: linke error for sqlite3_column_table_name.
table.setName("temp");
#if DEBUG
sw.setInfo(Convert::convertStr("executeSqlQuery, the table name is '%s'", table.getName().c_str()));
#endif
int columnCount = sqlite3_column_count(stmt);
for (int i = 0; i < columnCount; i++)
{
char* nameStr = (char*)sqlite3_column_name(stmt, i);
string name;
if(nameStr != NULL)
{
name = nameStr;
}
else
{
char temp[32];
sprintf(temp, "tempCol%d", i);
name = temp;
}
const char* typeStr = sqlite3_column_decltype(stmt, i);
string type = typeStr != NULL ? typeStr : "int";
DataColumn* column = new DataColumn(name, type);
table.addColumn(column);
}
while(sqlite3_step(stmt) == SQLITE_ROW)
{
DataRow* row = new DataRow();
for (int i = 0; i < columnCount; i++)
{
DataColumn* column = table.getColumns()->at(i);
DataCell* cell = NULL;
Value value;
memset(&value, 0, sizeof(value));
ValueTypes type = column->getType();
switch (type)
{
case Null:
break;
case Integer:
value.nValue = sqlite3_column_int(stmt, i);
break;
case String:
case DateTime:
{
char* str = (char*)sqlite3_column_text(stmt, i);
DataCell::setStringValue(value, str);
}
break;
case Float:
value.dValue = sqlite3_column_double(stmt, i);
break;
default:
assert(false);
break;
}
cell = new DataCell(column, value);
row->addCell(cell);
}
table.addRow(row);
}
result = sqlite3_finalize(stmt);
if(result != SQLITE_OK)
{
printErrorInfo("sqlite3_finalize", sql);
return result;
}
return SQLITE_OK;
}
//
// addPedigreesFromDataTable():
//
void PedigreeSet::addPedigreesFromDataTable(const DataTable * p_pedigreeTable, unsigned tableIndex,const std::string& sortField){
//
// Use const reference for convenience:
// (so I don't have to change the code
// since the parameter has changed from a
// const DataTable & to a const DataTable * )
//
const DataTable & pedigreeTable = (*p_pedigreeTable);
//std::cout << vt100::startBlue << "┏ Start of addPedigreesFromDataTable ┓" << vt100::stopColor << std::endl;
//
// Get all the core columns from the datatable:
//
DataColumn *familyIdColumn = pedigreeTable.getColumn( pedigreeTable.labels.FamilyIdField );
//familyIdColumn->printData();
DataColumn *individualIdColumn = pedigreeTable.getColumn( pedigreeTable.labels.IndividualIdField );
//individualIdColumn->printData();
DataColumn *motherIdColumn = pedigreeTable.getColumn( pedigreeTable.labels.MotherIdField );
DataColumn *fatherIdColumn = pedigreeTable.getColumn( pedigreeTable.labels.FatherIdField );
DataColumn *genderColumn = pedigreeTable.getColumn( pedigreeTable.labels.GenderField );
DataColumn *collapsedColumn= 0;
if(pedigreeTable.columnExists(pedigreeTable.labels.CollapsedField)){
// 2015.11.30.ET ADDENDA:
collapsedColumn=pedigreeTable.getColumn( pedigreeTable.labels.CollapsedField );
}
//
// Insert the Pedigrees in a set:
//
std::string currentFamily;
int numberOfRows = familyIdColumn->getNumberOfRows();
int index=0;
std::map<std::string,Individual *> collapsedIndicatorSet;
Individual * collapsedIndividual=0;
while(index < numberOfRows){
currentFamily = familyIdColumn->get(index);
if(currentFamily == "."){
Warning("PedigreeSet::addPedigreesFromDataTable()",
"Family Id is missing for individual %s and will be ignored.",
individualIdColumn->get(index).c_str()
);
index++;
continue;
}
std::pair<std::set<Pedigree*,comparePedigrees>::iterator,bool> pp;
pp = _pedigrees.insert(new Pedigree(currentFamily,tableIndex));
if(pp.second){
for(int i=0;i<familyIdColumn->getNumberOfRows();i++) {
if(currentFamily.compare(familyIdColumn->get(i)) == 0){
///////////////////////////////////
//
// Handle "collapsing":
//
///////////////////////////////////
if(DrawingMetrics::getCollapsible() && collapsedColumn){
std::string indicator=collapsedColumn->get(i);
if(indicator=="."){
// Add normal, non-collapsed individual, as usual:
(*pp.first)->addIndividual(individualIdColumn->get(i),motherIdColumn->get(i),fatherIdColumn->get(i),genderColumn->get(i),i,tableIndex,pedigreeTable);
}else{
//
// Handling collapsed individuals:
//
std::map<std::string,Individual *>::iterator it=collapsedIndicatorSet.find(indicator);
if(it==collapsedIndicatorSet.end()){
//
// Indicator not yet present in set, so add the first marked individual
// as the token individual:
//
collapsedIndividual = (*pp.first)->addIndividual(individualIdColumn->get(i),motherIdColumn->get(i),fatherIdColumn->get(i),genderColumn->get(i),i,tableIndex,pedigreeTable);
collapsedIndividual->incrementCollapsedCount();
collapsedIndicatorSet.insert(std::pair<std::string,Individual *>(indicator,collapsedIndividual));
// 2015.12.01.ET DEBUG
std::cout << "*** Individual " << individualIdColumn->get(i) << " used for collapsed group " << indicator << std::endl;
}else{
//////////////////////////////////////////////////
//
// Is gender of new person consistent?
//
// Note: using Gender.getEnum() guarantees
// symbolic equivalency across different
// string representations, e.g. "M"=="male",
// "♀"=="female", etc.
//
//////////////////////////////////////////////////
if( it->second->getGender().getEnum() != Gender(genderColumn->get(i)).getEnum() ){
// Change to missing on token individual:
it->second->setGender(".");
}
//////////////////////////////////////////////////
//
// Is affection status of new person consistent?
//
//////////////////////////////////////////////////
//////////////////////////////////////////////////
//
// increment collapsed count:
//
//////////////////////////////////////////////////
it->second->incrementCollapsedCount();
// 2015.12.01.ET DEBUG
// std::cout << "*** Individual " << it->second->getId() << " with indicator " << indicator << " incremented to " << it->second->getCollapsedCount() << std::endl;
}
}
}else{
// CollapsedState OFF or Collapsed column not present, so just add everybody:
(*pp.first)->addIndividual(individualIdColumn->get(i),motherIdColumn->get(i),fatherIdColumn->get(i),genderColumn->get(i),i,tableIndex,pedigreeTable);
}
}
}
}
index++;
}
// Set the core optional fields on the individuals
_setCoreOptionalFields(p_pedigreeTable);
_establishConnections();
bool dobPresent = false;
if(pedigreeTable.getDOBColumnIndex() != DataTable::COLUMN_IS_MISSING){
_checkParentChildDOB();
dobPresent = true;
}
if(pedigreeTable.getPregnancyColumnIndex() != DataTable::COLUMN_IS_MISSING){
_checkPregnancyStateValidity();
}
_determineFoundingGroups();
bool sortFieldPresent = false;
if(sortField != std::string("") && sortField != pedigreeTable.labels.DOBField){
// Check to see if the field actually exists in the data table
if(pedigreeTable.columnExists(sortField)){
_computeWidths(sortField);
sortFieldPresent = true;
}else{
Warning("PedigreeSet::addPedigreesFromDataTable()",
"Field '%s' specified for sorting the siblings does not exist in the Pedigree Table. Default ordering will be used.",
sortField.c_str()
);
}
}
if(!sortFieldPresent){
if(dobPresent){
//std::cout << "Siblings are ordered by DOB." << std::endl;
_computeWidths(pedigreeTable.labels.DOBField,true);
DrawingMetrics::setDisplayBirthOrder(true);
}else{
//std::cout << "Default ordering of siblings." << std::endl;
_computeWidths(std::string(""));
}
}
//std::cout << vt100::startBlue << "┗ End of addPedigreesFromDataTable ┛" << vt100::stopColor << std::endl;
}
