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TestGeneralizedHarvestRegime.cpp
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1682 lines (1550 loc) · 69.8 KB
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//---------------------------------------------------------------------------
// TestGeneralizedHarvestRegime.cpp
//---------------------------------------------------------------------------
#include "TestGeneralizedHarvestRegime.h"
#include <gtest/gtest.h>
#include <fstream>
#include <math.h>
#include "TreePopulation.h"
#include "SimManager.h"
#include "BehaviorBase.h"
////////////////////////////////////////////////////////////////////////////
// TestRun1()
// Tests the decision to log the plot. Many replicates are run with the same
// probability of logging for each. If logging occurs, all trees are to be
// cut, which allows us to easily determine which runs were logged and
// which were not. Saplings have no mortality and a gamma probability
// distribution is used.
////////////////////////////////////////////////////////////////////////////
TEST(GeneralizedHarvestRegime, TestRun1) {
clSimManager * p_oSimManager = new clSimManager( 7, 1, "" );
try {
clTreePopulation * p_oPop;
clTreeSearch *p_oAllTrees;
clTree *p_oTree;
int iNumRuns = 10000,
iCutRuns = 0, iNoCutRuns = 0, iNumTrees, i;
for (i = 0; i < iNumRuns; i++) {
//Load our test file and get our tree population pointers
p_oSimManager->ReadFile( WriteGeneralizedHarvestRegimeXMLFile1() );
p_oPop = ( clTreePopulation * ) p_oSimManager->GetPopulationObject( "treepopulation" );
p_oSimManager->RunSim(1);
//See if we got any adults this run. Note that since we have to draw on
//the gamma distribution, even if we specify 100% removal, the actual
//rate might be less, allowing a handful of individuals to remain. So
//allow for that.
p_oAllTrees = p_oPop->Find("type=3");
p_oTree = p_oAllTrees->NextTree();
iNumTrees = 0;
if (p_oTree) {
while (p_oTree) {
iNumTrees++;
p_oTree = p_oAllTrees->NextTree();
}
if (iNumTrees < 5) iNumTrees = 0;
if (iNumTrees > 0) EXPECT_EQ(100, iNumTrees);
}
if (iNumTrees == 0) iCutRuns++;
else iNoCutRuns++;
//Make sure saplings were untouched
p_oAllTrees = p_oPop->Find("type=2");
p_oTree = p_oAllTrees->NextTree();
iNumTrees = 0;
while (p_oTree) {
iNumTrees++;
p_oTree = p_oAllTrees->NextTree();
}
EXPECT_EQ(50, iNumTrees);
}
EXPECT_LT(abs(iCutRuns - 7880), 1000);
EXPECT_LT(abs(iNoCutRuns - (iNumRuns - 7880)), 1000);
delete p_oSimManager;
} catch (modelErr &e) {
delete p_oSimManager;
FAIL() << "Testing failed in function: " << e.sFunction << " with message: " << e.sMoreInfo;
}
}
////////////////////////////////////////////////////////////////////////////
// TestRun2()
// Tests the decision to log the plot. This is the same as Test 1 but with
// a different initial biomass and therefore a different logging probability.
// It also uses the user-defined distribution.
////////////////////////////////////////////////////////////////////////////
TEST(GeneralizedHarvestRegime, TestRun2) {
clSimManager * p_oSimManager = new clSimManager( 7, 1, "" );
try {
clTreePopulation * p_oPop;
clTreeSearch *p_oAllTrees;
clTree *p_oTree;
int iNumRuns = 1000,
iCutRuns = 0, iNoCutRuns = 0, iNumTrees, i;
for (i = 0; i < iNumRuns; i++) {
//Load our test file and get our tree population pointers
p_oSimManager->ReadFile( WriteGeneralizedHarvestRegimeXMLFile2() );
p_oPop = ( clTreePopulation * ) p_oSimManager->GetPopulationObject( "treepopulation" );
p_oSimManager->RunSim(1);
//See if we got any adults this run. Note that since we have to draw on
//the gamma distribution, even if we specify 100% removal, the actual
//rate might be less, allowing a handful of individuals to remain. So
//allow for that.
p_oAllTrees = p_oPop->Find("type=3");
p_oTree = p_oAllTrees->NextTree();
iNumTrees = 0;
if (p_oTree) {
while (p_oTree) {
iNumTrees++;
p_oTree = p_oAllTrees->NextTree();
}
if (iNumTrees < 5) iNumTrees = 0;
if (iNumTrees > 0) EXPECT_EQ(200, iNumTrees);
}
if (iNumTrees == 0) iCutRuns++;
else iNoCutRuns++;
//Make sure saplings were untouched
p_oAllTrees = p_oPop->Find("type=2");
ASSERT_TRUE(p_oAllTrees->NextTree());
}
EXPECT_LT(abs(iCutRuns - 938), 100);
EXPECT_LT(abs(iNoCutRuns - (iNumRuns - 938)), 100);
delete p_oSimManager;
} catch (modelErr &e) {
delete p_oSimManager;
FAIL() << "Testing failed in function: " << e.sFunction << " with message: " << e.sMoreInfo;
}
}
////////////////////////////////////////////////////////////////////////////
// TestRun3()
// Tests the decision to log the plot.
////////////////////////////////////////////////////////////////////////////
TEST(GeneralizedHarvestRegime, TestRun3) {
clSimManager * p_oSimManager = new clSimManager( 7, 1, "" );
try {
clTreePopulation * p_oPop;
clTreeSearch *p_oAllTrees;
clTree *p_oTree;
float fBA = 0, fPostCutBA = 0, fDBH;
//Load our test file and get our tree population pointers
p_oSimManager->ReadFile( WriteGeneralizedHarvestRegimeXMLFile3() );
p_oPop = ( clTreePopulation * ) p_oSimManager->GetPopulationObject( "treepopulation" );
p_oAllTrees = p_oPop->Find("type=3");
p_oTree = p_oAllTrees->NextTree();
while (p_oTree) {
p_oTree->GetValue(p_oPop->GetDbhCode(p_oTree->GetSpecies(), p_oTree->GetType()), &fDBH);
fBA += clModelMath::CalculateBasalArea(fDBH);
p_oTree = p_oAllTrees->NextTree();
}
p_oSimManager->RunSim(1);
//See if we got any adults this run
p_oAllTrees = p_oPop->Find("type=3");
p_oTree = p_oAllTrees->NextTree();
while (p_oTree) {
p_oTree->GetValue(p_oPop->GetDbhCode(p_oTree->GetSpecies(), p_oTree->GetType()), &fDBH);
fPostCutBA += clModelMath::CalculateBasalArea(fDBH);
p_oTree = p_oAllTrees->NextTree();
}
EXPECT_LT(fabs((fPostCutBA / fBA) - (1-0.71627)), 0.5);
delete p_oSimManager;
} catch (modelErr &e) {
delete p_oSimManager;
FAIL() << "Testing failed in function: " << e.sFunction << " with message: " << e.sMoreInfo;
}
}
////////////////////////////////////////////////////////////////////////////
// TestRun4()
// Tests the decision to log the plot.
////////////////////////////////////////////////////////////////////////////
TEST(GeneralizedHarvestRegime, TestRun4) {
clSimManager * p_oSimManager = new clSimManager( 7, 1, "" );
try {
clTreePopulation * p_oPop;
clTreeSearch *p_oAllTrees;
clTree *p_oTree;
float fBA = 0, fPostCutBA = 0, fDBH;
//Load our test file and get our tree population pointers
p_oSimManager->ReadFile( WriteGeneralizedHarvestRegimeXMLFile4() );
p_oPop = ( clTreePopulation * ) p_oSimManager->GetPopulationObject( "treepopulation" );
p_oAllTrees = p_oPop->Find("type=3");
p_oTree = p_oAllTrees->NextTree();
while (p_oTree) {
p_oTree->GetValue(p_oPop->GetDbhCode(p_oTree->GetSpecies(), p_oTree->GetType()), &fDBH);
fBA += clModelMath::CalculateBasalArea(fDBH);
p_oTree = p_oAllTrees->NextTree();
}
//Make sure there are 1000 saplings
int iSaps = 0;
p_oAllTrees = p_oPop->Find("type=2");
p_oTree = p_oAllTrees->NextTree();
while (p_oTree) {
iSaps++;
p_oTree = p_oAllTrees->NextTree();
}
EXPECT_EQ(iSaps, 1000);
p_oSimManager->RunSim(1);
//See if we got any adults this run
p_oAllTrees = p_oPop->Find("type=3");
p_oTree = p_oAllTrees->NextTree();
while (p_oTree) {
p_oTree->GetValue(p_oPop->GetDbhCode(p_oTree->GetSpecies(), p_oTree->GetType()), &fDBH);
fPostCutBA += clModelMath::CalculateBasalArea(fDBH);
p_oTree = p_oAllTrees->NextTree();
}
EXPECT_LT(fabs((fPostCutBA / fBA) - (1-0.12567)), 0.5);
//How many saplings should have been removed?
iSaps = 0;
float fProb, fP = 0.2, fM = 50, fN = -1, fPCR = 100.0 * (1-(fPostCutBA/fBA));
fProb = fP + ((1-fP)/(1 + pow(fPCR/fM, fN)));
p_oAllTrees = p_oPop->Find("type=2");
p_oTree = p_oAllTrees->NextTree();
while (p_oTree) {
iSaps++;
p_oTree = p_oAllTrees->NextTree();
}
int iExpectedSaps = (1000*(1-fProb));
EXPECT_LT(abs(iSaps - iExpectedSaps), 250);
delete p_oSimManager;
} catch (modelErr &e) {
delete p_oSimManager;
FAIL() << "Testing failed in function: " << e.sFunction << " with message: " << e.sMoreInfo;
}
}
////////////////////////////////////////////////////////////////////////////
// TestRun4a()
// Tests the cut amount. This is a user-defined distribution with two
// intensity classes, with equal possibility. This will run replicates and
// make sure that the cut classes work out.
////////////////////////////////////////////////////////////////////////////
TEST(GeneralizedHarvestRegime, TestRun4a) {
clSimManager * p_oSimManager = new clSimManager( 7, 1, "" );
try {
clTreePopulation * p_oPop;
clTreeSearch *p_oAllTrees;
clTree *p_oTree;
float fBA = 0, fPostCutBA = 0, fDBH;
int iNumRuns = 1000,
iCut1Runs = 0, iCut2Runs = 0, i;
for (i = 0; i < iNumRuns; i++) {
//Load our test file and get our tree population pointers
p_oSimManager->ReadFile( WriteGeneralizedHarvestRegimeXMLFile4a() );
p_oPop = ( clTreePopulation * ) p_oSimManager->GetPopulationObject( "treepopulation" );
fBA = 0;
fPostCutBA = 0;
p_oAllTrees = p_oPop->Find("type=3");
p_oTree = p_oAllTrees->NextTree();
while (p_oTree) {
p_oTree->GetValue(p_oPop->GetDbhCode(p_oTree->GetSpecies(), p_oTree->GetType()), &fDBH);
fBA += clModelMath::CalculateBasalArea(fDBH);
p_oTree = p_oAllTrees->NextTree();
}
p_oSimManager->RunSim(1);
//See if we got any adults this run
p_oAllTrees = p_oPop->Find("type=3");
p_oTree = p_oAllTrees->NextTree();
while (p_oTree) {
p_oTree->GetValue(p_oPop->GetDbhCode(p_oTree->GetSpecies(), p_oTree->GetType()), &fDBH);
fPostCutBA += clModelMath::CalculateBasalArea(fDBH);
p_oTree = p_oAllTrees->NextTree();
}
if (fPostCutBA / fBA < 0.5) {
//Intensity class 2
EXPECT_LT(fabs((fPostCutBA / fBA) - (1-0.73)), 0.25);
iCut1Runs++;
} else {
//Intensity class 1
EXPECT_LT(fabs((fPostCutBA / fBA) - (1-0.22)), 0.25);
iCut2Runs++;
}
}
EXPECT_LT(abs(iCut1Runs - 500), 50);
EXPECT_LT(abs(iCut2Runs - 500), 50);
delete p_oSimManager;
} catch (modelErr &e) {
delete p_oSimManager;
FAIL() << "Testing failed in function: " << e.sFunction << " with message: " << e.sMoreInfo;
}
}
////////////////////////////////////////////////////////////////////////////
// TestRun5()
// Tests the decision to log the plot when BA is used rather than biomass.
////////////////////////////////////////////////////////////////////////////
TEST(GeneralizedHarvestRegime, TestRun5) {
clSimManager * p_oSimManager = new clSimManager( 7, 1, "" );
try {
clTreePopulation * p_oPop;
clTreeSearch *p_oAllTrees;
clTree *p_oTree;
int iNumRuns = 10000,
iCutRuns = 0, iNoCutRuns = 0, iNumTrees, iNumSaps, i;
for (i = 0; i < iNumRuns; i++) {
//Load our test file and get our tree population pointers
p_oSimManager->ReadFile(WriteGeneralizedHarvestRegimeXMLFile5());
p_oPop = ( clTreePopulation * ) p_oSimManager->GetPopulationObject( "treepopulation" );
p_oSimManager->RunSim(1);
//See if we got any adults this run. Note that since we have to draw on
//the gamma distribution, even if we specify 100% removal, the actual
//rate might be less, allowing a handful of individuals to remain. So
//allow for that.
p_oAllTrees = p_oPop->Find("type=3");
p_oTree = p_oAllTrees->NextTree();
iNumTrees = 0;
if (p_oTree) {
while (p_oTree) {
iNumTrees++;
p_oTree = p_oAllTrees->NextTree();
}
if (iNumTrees < 5) iNumTrees = 0;
if (iNumTrees > 0) EXPECT_EQ(200, iNumTrees);
}
//Check the number of removed saplings
iNumSaps = 0;
p_oAllTrees = p_oPop->Find("type=2");
p_oTree = p_oAllTrees->NextTree();
while (p_oTree) {
iNumSaps++;
p_oTree = p_oAllTrees->NextTree();
}
if (iNumTrees == 0) {
iCutRuns++;
EXPECT_LT(abs(iNumSaps - 266), 55);
} else {
iNoCutRuns++;
EXPECT_EQ(1000, iNumSaps);
}
}
EXPECT_LT(abs(iCutRuns - 5654), 1000);
EXPECT_LT(abs(iNoCutRuns - (iNumRuns - 5654)), 1000);
delete p_oSimManager;
} catch (modelErr &e) {
delete p_oSimManager;
FAIL() << "Testing failed in function: " << e.sFunction << " with message: " << e.sMoreInfo;
}
}
////////////////////////////////////////////////////////////////////////////
// TestRun6()
// Tests the decision to log the plot when BA is used rather than biomass.
////////////////////////////////////////////////////////////////////////////
TEST(GeneralizedHarvestRegime, TestRun6) {
clSimManager * p_oSimManager = new clSimManager( 7, 1, "" );
try {
clTreePopulation * p_oPop;
clTreeSearch *p_oAllTrees;
clTree *p_oTree;
int iNumRuns = 10000,
iCutRuns = 0, iNoCutRuns = 0, iNumTrees, i;
for (i = 0; i < iNumRuns; i++) {
//Load our test file and get our tree population pointers
p_oSimManager->ReadFile(WriteGeneralizedHarvestRegimeXMLFile6());
p_oPop = ( clTreePopulation * ) p_oSimManager->GetPopulationObject( "treepopulation" );
p_oSimManager->RunSim(1);
//See if we got any adults this run. Note that since we have to draw on
//the gamma distribution, even if we specify 100% removal, the actual
//rate might be less, allowing a handful of individuals to remain. So
//allow for that.
p_oAllTrees = p_oPop->Find("type=3");
p_oTree = p_oAllTrees->NextTree();
iNumTrees = 0;
if (p_oTree) {
while (p_oTree) {
iNumTrees++;
p_oTree = p_oAllTrees->NextTree();
}
if (iNumTrees < 5) iNumTrees = 0;
if (iNumTrees > 0) EXPECT_EQ(200, iNumTrees);
}
if (iNumTrees == 0) iCutRuns++;
else iNoCutRuns++;
//Make sure saplings were untouched
p_oAllTrees = p_oPop->Find("type=2");
p_oTree = p_oAllTrees->NextTree();
iNumTrees = 0;
while (p_oTree) {
iNumTrees++;
p_oTree = p_oAllTrees->NextTree();
}
EXPECT_EQ(50, iNumTrees);
}
EXPECT_LT(abs(iCutRuns - 5654), 1000);
EXPECT_LT(abs(iNoCutRuns - (iNumRuns - 5654)), 1000);
delete p_oSimManager;
} catch (modelErr &e) {
delete p_oSimManager;
FAIL() << "Testing failed in function: " << e.sFunction << " with message: " << e.sMoreInfo;
}
}
////////////////////////////////////////////////////////////////////////////
// WriteGeneralizedHarvestRegimeXMLFileSet1()
////////////////////////////////////////////////////////////////////////////
const char* WriteGeneralizedHarvestRegimeXMLFile1() {
using namespace std;
const char *cFileString = "TestFile1.xml";
int iNumTreesPerSpecies = 50;
//Open file to write to
fstream oOut;
oOut.open(cFileString, ios::out | ios::trunc);
//Write file
oOut << "<?xml version=\"1.0\" encoding=\"UTF-8\" standalone=\"no\" ?>"
<< "<paramFile fileCode=\"06010101\">"
<< "<plot>"
<< "<timesteps>1</timesteps>"
<< "<yearsPerTimestep>1</yearsPerTimestep>"
<< "<randomSeed>0</randomSeed>"
<< "<plot_lenX>80.0</plot_lenX>"
<< "<plot_lenY>80.0</plot_lenY>"
<< "<plot_precip_mm_yr>1150.645781</plot_precip_mm_yr>"
<< "<plot_temp_C>12.88171785</plot_temp_C>"
<< "<plot_latitude>55.37</plot_latitude>"
<< "</plot>"
<< "<trees>"
<< "<tr_speciesList>"
<< "<tr_species speciesName=\"Species_1\" />"
<< "<tr_species speciesName=\"Species_2\" />"
<< "</tr_speciesList>"
<< "<tr_seedDiam10Cm>0.1</tr_seedDiam10Cm>"
<< "<tr_minAdultDBH>"
<< "<tr_madVal species=\"Species_1\">10.0</tr_madVal>"
<< "<tr_madVal species=\"Species_2\">10.0</tr_madVal>"
<< "</tr_minAdultDBH>"
<< "<tr_maxSeedlingHeight>"
<< "<tr_mshVal species=\"Species_1\">1.35</tr_mshVal>"
<< "<tr_mshVal species=\"Species_2\">1.35</tr_mshVal>"
<< "</tr_maxSeedlingHeight>"
<< "<tr_treemap>"
<< "<tm_treeSettings sp=\"Species_1\" tp=\"" << clTreePopulation::adult << "\">"
<< "<tm_floatCodes>"
<< "<tm_floatCode label=\"X\">0</tm_floatCode>"
<< "<tm_floatCode label=\"Y\">1</tm_floatCode>"
<< "<tm_floatCode label=\"DBH\">2</tm_floatCode>"
<< "</tm_floatCodes>"
<< "</tm_treeSettings>"
<< "<tm_treeSettings sp=\"Species_1\" tp=\"" << clTreePopulation::sapling << "\">"
<< "<tm_floatCodes>"
<< "<tm_floatCode label=\"X\">0</tm_floatCode>"
<< "<tm_floatCode label=\"Y\">1</tm_floatCode>"
<< "<tm_floatCode label=\"DBH\">2</tm_floatCode>"
<< "</tm_floatCodes>"
<< "</tm_treeSettings>"
<< "<tm_treeSettings sp=\"Species_2\" tp=\"" << clTreePopulation::adult << "\">"
<< "<tm_floatCodes>"
<< "<tm_floatCode label=\"X\">0</tm_floatCode>"
<< "<tm_floatCode label=\"Y\">1</tm_floatCode>"
<< "<tm_floatCode label=\"DBH\">2</tm_floatCode>"
<< "</tm_floatCodes>"
<< "</tm_treeSettings>";
for (int i = 0; i < iNumTreesPerSpecies; i++) {
oOut << "<tree sp=\"0\" tp=\"" << clTreePopulation::adult << "\">"
<< "<fl c=\"0\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"1\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"2\">" << (clModelMath::GetRand() * 50) + 10 << "</fl>"
<< "</tree>";
}
for (int i = 0; i < iNumTreesPerSpecies; i++) {
oOut << "<tree sp=\"1\" tp=\"" << clTreePopulation::adult << "\">"
<< "<fl c=\"0\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"1\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"2\">" << (clModelMath::GetRand() * 50) + 10 << "</fl>"
<< "</tree>";
}
for (int i = 0; i < iNumTreesPerSpecies; i++) {
oOut << "<tree sp=\"0\" tp=\"" << clTreePopulation::sapling << "\">"
<< "<fl c=\"0\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"1\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"2\">" << clModelMath::GetRand() * 8 + 1 << "</fl>"
<< "</tree>";
}
oOut << "</tr_treemap>"
<< "</trees>";
WriteGeneralizedHarvestRegimeAllometry(oOut);
oOut << "<behaviorList>"
<< "<behavior>"
<< "<behaviorName>GeneralizedHarvestRegime</behaviorName>"
<< "<version>1</version>"
<< "<listPosition>1</listPosition>"
<< "<applyTo species=\"Species_1\" type=\"Adult\"/>"
<< "<applyTo species=\"Species_2\" type=\"Adult\"/>"
<< "</behavior>"
<< "<behavior>"
<< "<behaviorName>DimensionAnalysis</behaviorName>"
<< "<version>1</version>"
<< "<listPosition>2</listPosition>"
<< "<applyTo species=\"Species_1\" type=\"Adult\"/>"
<< "<applyTo species=\"Species_2\" type=\"Adult\"/>"
<< "</behavior>"
<< "</behaviorList>";
oOut << "<GeneralizedHarvestRegime1>"
<< "<di_genHarvLogProbA>65.51</di_genHarvLogProbA>"
<< "<di_genHarvLogProbM>1.38</di_genHarvLogProbM>"
<< "<di_genHarvLogProbB>0.282</di_genHarvLogProbB>"
<< "<di_genHarvLogRemoveAlpha>200</di_genHarvLogRemoveAlpha>"
<< "<di_genHarvLogRemoveBeta>1</di_genHarvLogRemoveBeta>"
<< "<di_genHarvLogRemoveMu>0</di_genHarvLogRemoveMu>"
<< "<di_genHarvGammaScale>0.000001</di_genHarvGammaScale>"
<< "<di_genHarvAllowedDeviation>0</di_genHarvAllowedDeviation>"
<< "<di_genHarvLogCutProbAlpha>"
<< "<di_ghlcpaVal species=\"Species_1\">1.748758</di_ghlcpaVal>"
<< "<di_ghlcpaVal species=\"Species_2\">1.853409</di_ghlcpaVal>"
<< "</di_genHarvLogCutProbAlpha>"
<< "<di_genHarvLogCutProbBeta>"
<< "<di_ghlcpbVal species=\"Species_1\">0.001083513</di_ghlcpbVal>"
<< "<di_ghlcpbVal species=\"Species_2\">0.001018502</di_ghlcpbVal>"
<< "</di_genHarvLogCutProbBeta>"
<< "<di_genHarvLogCutProbGamma>"
<< "<di_ghlcpgVal species=\"Species_1\">1</di_ghlcpgVal>"
<< "<di_ghlcpgVal species=\"Species_2\">0.9468814</di_ghlcpgVal>"
<< "</di_genHarvLogCutProbGamma>"
<< "<di_genHarvLogCutProbMu>"
<< "<di_ghlcpmVal species=\"Species_1\">42.53707</di_ghlcpmVal>"
<< "<di_ghlcpmVal species=\"Species_2\">39.45325</di_ghlcpmVal>"
<< "</di_genHarvLogCutProbMu>"
<< "<di_genHarvLogCutProbA>"
<< "<di_ghlcpaaVal species=\"Species_1\">21.2954</di_ghlcpaaVal>"
<< "<di_ghlcpaaVal species=\"Species_2\">21.2954</di_ghlcpaaVal>"
<< "</di_genHarvLogCutProbA>"
<< "<di_genHarvLogCutProbB>"
<< "<di_ghlcpbVal species=\"Species_1\">0.01202805</di_ghlcpbVal>"
<< "<di_ghlcpbVal species=\"Species_2\">0.01202805</di_ghlcpbVal>"
<< "</di_genHarvLogCutProbB>"
<< "<di_genHarvLogCutProbC>"
<< "<di_ghlcpcVal species=\"Species_1\">15.20595</di_ghlcpcVal>"
<< "<di_ghlcpcVal species=\"Species_2\">15.20595</di_ghlcpcVal>"
<< "</di_genHarvLogCutProbC>"
<< "<di_genHarvUseBiomassOrBA>1</di_genHarvUseBiomassOrBA>"
<< "<di_genHarvDoSaplingMort>0</di_genHarvDoSaplingMort>"
<< "<di_genHarvSapMortP>0.2</di_genHarvSapMortP>"
<< "<di_genHarvSapMortM>50</di_genHarvSapMortM>"
<< "<di_genHarvSapMortN>-1</di_genHarvSapMortN>"
<< "</GeneralizedHarvestRegime1>";
WriteGeneralizedHarvestRegimeDimensionAnalysis(oOut);
oOut << "</paramFile>";
oOut.close();
return cFileString;
}
////////////////////////////////////////////////////////////////////////////
// WriteGeneralizedHarvestRegimeXMLFile2()
////////////////////////////////////////////////////////////////////////////
const char* WriteGeneralizedHarvestRegimeXMLFile2() {
using namespace std;
const char *cFileString = "TestFile1.xml";
int iNumTreesPerSpecies = 100;
//Open file to write to
fstream oOut;
oOut.open(cFileString, ios::out | ios::trunc);
//Write file
oOut << "<?xml version=\"1.0\" encoding=\"UTF-8\" standalone=\"no\" ?>"
<< "<paramFile fileCode=\"06010101\">"
<< "<plot>"
<< "<timesteps>1</timesteps>"
<< "<yearsPerTimestep>1</yearsPerTimestep>"
<< "<randomSeed>1</randomSeed>"
<< "<plot_lenX>80.0</plot_lenX>"
<< "<plot_lenY>80.0</plot_lenY>"
<< "<plot_precip_mm_yr>1150.645781</plot_precip_mm_yr>"
<< "<plot_temp_C>12.88171785</plot_temp_C>"
<< "<plot_latitude>55.37</plot_latitude>"
<< "</plot>"
<< "<trees>"
<< "<tr_speciesList>"
<< "<tr_species speciesName=\"Species_1\" />"
<< "<tr_species speciesName=\"Species_2\" />"
<< "</tr_speciesList>"
<< "<tr_seedDiam10Cm>0.1</tr_seedDiam10Cm>"
<< "<tr_minAdultDBH>"
<< "<tr_madVal species=\"Species_1\">10.0</tr_madVal>"
<< "<tr_madVal species=\"Species_2\">10.0</tr_madVal>"
<< "</tr_minAdultDBH>"
<< "<tr_maxSeedlingHeight>"
<< "<tr_mshVal species=\"Species_1\">1.35</tr_mshVal>"
<< "<tr_mshVal species=\"Species_2\">1.35</tr_mshVal>"
<< "</tr_maxSeedlingHeight>"
<< "<tr_treemap>"
<< "<tm_treeSettings sp=\"Species_1\" tp=\"" << clTreePopulation::adult << "\">"
<< "<tm_floatCodes>"
<< "<tm_floatCode label=\"X\">0</tm_floatCode>"
<< "<tm_floatCode label=\"Y\">1</tm_floatCode>"
<< "<tm_floatCode label=\"DBH\">2</tm_floatCode>"
<< "</tm_floatCodes>"
<< "</tm_treeSettings>"
<< "<tm_treeSettings sp=\"Species_1\" tp=\"" << clTreePopulation::sapling << "\">"
<< "<tm_floatCodes>"
<< "<tm_floatCode label=\"X\">0</tm_floatCode>"
<< "<tm_floatCode label=\"Y\">1</tm_floatCode>"
<< "<tm_floatCode label=\"DBH\">2</tm_floatCode>"
<< "</tm_floatCodes>"
<< "</tm_treeSettings>"
<< "<tm_treeSettings sp=\"Species_2\" tp=\"" << clTreePopulation::adult << "\">"
<< "<tm_floatCodes>"
<< "<tm_floatCode label=\"X\">0</tm_floatCode>"
<< "<tm_floatCode label=\"Y\">1</tm_floatCode>"
<< "<tm_floatCode label=\"DBH\">2</tm_floatCode>"
<< "</tm_floatCodes>"
<< "</tm_treeSettings>";
for (int i = 0; i < iNumTreesPerSpecies; i++) {
oOut << "<tree sp=\"0\" tp=\"" << clTreePopulation::adult << "\">"
<< "<fl c=\"0\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"1\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"2\">" << (clModelMath::GetRand() * 50) + 10 << "</fl>"
<< "</tree>";
}
for (int i = 0; i < iNumTreesPerSpecies; i++) {
oOut << "<tree sp=\"1\" tp=\"" << clTreePopulation::adult << "\">"
<< "<fl c=\"0\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"1\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"2\">" << (clModelMath::GetRand() * 50) + 10 << "</fl>"
<< "</tree>";
}
for (int i = 0; i < iNumTreesPerSpecies; i++) {
oOut << "<tree sp=\"0\" tp=\"" << clTreePopulation::sapling << "\">"
<< "<fl c=\"0\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"1\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"2\">" << clModelMath::GetRand() * 8 + 1 << "</fl>"
<< "</tree>";
}
oOut << "</tr_treemap>"
<< "</trees>";
WriteGeneralizedHarvestRegimeAllometry(oOut);
oOut << "<behaviorList>"
<< "<behavior>"
<< "<behaviorName>GeneralizedHarvestRegime</behaviorName>"
<< "<version>1</version>"
<< "<listPosition>1</listPosition>"
<< "<applyTo species=\"Species_1\" type=\"Adult\"/>"
<< "<applyTo species=\"Species_2\" type=\"Adult\"/>"
<< "</behavior>"
<< "<behavior>"
<< "<behaviorName>DimensionAnalysis</behaviorName>"
<< "<version>1</version>"
<< "<listPosition>2</listPosition>"
<< "<applyTo species=\"Species_1\" type=\"Adult\"/>"
<< "<applyTo species=\"Species_2\" type=\"Adult\"/>"
<< "</behavior>"
<< "</behaviorList>";
oOut << "<GeneralizedHarvestRegime1>"
<< "<di_genHarvLogProbA>65.51</di_genHarvLogProbA>"
<< "<di_genHarvLogProbM>1.38</di_genHarvLogProbM>"
<< "<di_genHarvLogProbB>0.282</di_genHarvLogProbB>"
<< "<di_genHarvRemoveDist>0</di_genHarvRemoveDist>"
<< "<di_genHarvIntensClass1>0.1</di_genHarvIntensClass1>"
<< "<di_genHarvIntensClass2>0.2</di_genHarvIntensClass2>"
<< "<di_genHarvIntensClass3>0.3</di_genHarvIntensClass3>"
<< "<di_genHarvIntensClass4>0.4</di_genHarvIntensClass4>"
<< "<di_genHarvIntensClass5>0.5</di_genHarvIntensClass5>"
<< "<di_genHarvIntensClass6>0.6</di_genHarvIntensClass6>"
<< "<di_genHarvIntensClass7>0.7</di_genHarvIntensClass7>"
<< "<di_genHarvIntensClass8>0.8</di_genHarvIntensClass8>"
<< "<di_genHarvIntensClass9>0.999</di_genHarvIntensClass9>"
<< "<di_genHarvIntensClass10>1</di_genHarvIntensClass10>"
<< "<di_genHarvIntensClassProb1>0</di_genHarvIntensClassProb1>"
<< "<di_genHarvIntensClassProb2>0</di_genHarvIntensClassProb2>"
<< "<di_genHarvIntensClassProb3>0</di_genHarvIntensClassProb3>"
<< "<di_genHarvIntensClassProb4>0</di_genHarvIntensClassProb4>"
<< "<di_genHarvIntensClassProb5>0</di_genHarvIntensClassProb5>"
<< "<di_genHarvIntensClassProb6>0</di_genHarvIntensClassProb6>"
<< "<di_genHarvIntensClassProb7>0</di_genHarvIntensClassProb7>"
<< "<di_genHarvIntensClassProb8>0</di_genHarvIntensClassProb8>"
<< "<di_genHarvIntensClassProb9>0</di_genHarvIntensClassProb9>"
<< "<di_genHarvIntensClassProb10>1.0</di_genHarvIntensClassProb10>"
<< "<di_genHarvAllowedDeviation>0</di_genHarvAllowedDeviation>"
<< "<di_genHarvLogCutProbAlpha>"
<< "<di_ghlcpaVal species=\"Species_1\">1.748758</di_ghlcpaVal>"
<< "<di_ghlcpaVal species=\"Species_2\">1.853409</di_ghlcpaVal>"
<< "</di_genHarvLogCutProbAlpha>"
<< "<di_genHarvLogCutProbBeta>"
<< "<di_ghlcpbVal species=\"Species_1\">0.001083513</di_ghlcpbVal>"
<< "<di_ghlcpbVal species=\"Species_2\">0.001018502</di_ghlcpbVal>"
<< "</di_genHarvLogCutProbBeta>"
<< "<di_genHarvLogCutProbGamma>"
<< "<di_ghlcpgVal species=\"Species_1\">1</di_ghlcpgVal>"
<< "<di_ghlcpgVal species=\"Species_2\">0.9468814</di_ghlcpgVal>"
<< "</di_genHarvLogCutProbGamma>"
<< "<di_genHarvLogCutProbMu>"
<< "<di_ghlcpmVal species=\"Species_1\">42.53707</di_ghlcpmVal>"
<< "<di_ghlcpmVal species=\"Species_2\">39.45325</di_ghlcpmVal>"
<< "</di_genHarvLogCutProbMu>"
<< "<di_genHarvLogCutProbA>"
<< "<di_ghlcpaaVal species=\"Species_1\">21.2954</di_ghlcpaaVal>"
<< "<di_ghlcpaaVal species=\"Species_2\">21.2954</di_ghlcpaaVal>"
<< "</di_genHarvLogCutProbA>"
<< "<di_genHarvLogCutProbB>"
<< "<di_ghlcpbVal species=\"Species_1\">0.01202805</di_ghlcpbVal>"
<< "<di_ghlcpbVal species=\"Species_2\">0.01202805</di_ghlcpbVal>"
<< "</di_genHarvLogCutProbB>"
<< "<di_genHarvLogCutProbC>"
<< "<di_ghlcpcVal species=\"Species_1\">15.20595</di_ghlcpcVal>"
<< "<di_ghlcpcVal species=\"Species_2\">15.20595</di_ghlcpcVal>"
<< "</di_genHarvLogCutProbC>"
<< "<di_genHarvUseBiomassOrBA>1</di_genHarvUseBiomassOrBA>"
<< "<di_genHarvDoSaplingMort>0</di_genHarvDoSaplingMort>"
<< "<di_genHarvSapMortP>0.2</di_genHarvSapMortP>"
<< "<di_genHarvSapMortM>50</di_genHarvSapMortM>"
<< "<di_genHarvSapMortN>-1</di_genHarvSapMortN>"
<< "</GeneralizedHarvestRegime1>";
WriteGeneralizedHarvestRegimeDimensionAnalysis(oOut);
oOut << "</paramFile>";
oOut.close();
return cFileString;
}
////////////////////////////////////////////////////////////////////////////
// WriteGeneralizedHarvestRegimeXMLFile3()
////////////////////////////////////////////////////////////////////////////
const char* WriteGeneralizedHarvestRegimeXMLFile3() {
using namespace std;
const char *cFileString = "TestFile1.xml";
//Open file to write to
fstream oOut;
oOut.open(cFileString, ios::out | ios::trunc);
//Write file
oOut << "<?xml version=\"1.0\" encoding=\"UTF-8\" standalone=\"no\" ?>"
<< "<paramFile fileCode=\"06010101\">"
<< "<plot>"
<< "<timesteps>1</timesteps>"
<< "<yearsPerTimestep>1</yearsPerTimestep>"
<< "<randomSeed>0</randomSeed>"
<< "<plot_lenX>80.0</plot_lenX>"
<< "<plot_lenY>80.0</plot_lenY>"
<< "<plot_precip_mm_yr>1150.645781</plot_precip_mm_yr>"
<< "<plot_temp_C>12.88171785</plot_temp_C>"
<< "<plot_latitude>55.37</plot_latitude>"
<< "</plot>"
<< "<trees>"
<< "<tr_speciesList>"
<< "<tr_species speciesName=\"Species_1\" />"
<< "<tr_species speciesName=\"Species_2\" />"
<< "</tr_speciesList>"
<< "<tr_seedDiam10Cm>0.1</tr_seedDiam10Cm>"
<< "<tr_minAdultDBH>"
<< "<tr_madVal species=\"Species_1\">10.0</tr_madVal>"
<< "<tr_madVal species=\"Species_2\">10.0</tr_madVal>"
<< "</tr_minAdultDBH>"
<< "<tr_maxSeedlingHeight>"
<< "<tr_mshVal species=\"Species_1\">1.35</tr_mshVal>"
<< "<tr_mshVal species=\"Species_2\">1.35</tr_mshVal>"
<< "</tr_maxSeedlingHeight>"
<< "<tr_treemap>"
<< "<tm_treeSettings sp=\"Species_1\" tp=\"" << clTreePopulation::adult << "\">"
<< "<tm_floatCodes>"
<< "<tm_floatCode label=\"X\">0</tm_floatCode>"
<< "<tm_floatCode label=\"Y\">1</tm_floatCode>"
<< "<tm_floatCode label=\"DBH\">2</tm_floatCode>"
<< "</tm_floatCodes>"
<< "</tm_treeSettings>"
<< "<tm_treeSettings sp=\"Species_1\" tp=\"" << clTreePopulation::sapling << "\">"
<< "<tm_floatCodes>"
<< "<tm_floatCode label=\"X\">0</tm_floatCode>"
<< "<tm_floatCode label=\"Y\">1</tm_floatCode>"
<< "<tm_floatCode label=\"DBH\">2</tm_floatCode>"
<< "</tm_floatCodes>"
<< "</tm_treeSettings>"
<< "<tm_treeSettings sp=\"Species_2\" tp=\"" << clTreePopulation::adult << "\">"
<< "<tm_floatCodes>"
<< "<tm_floatCode label=\"X\">0</tm_floatCode>"
<< "<tm_floatCode label=\"Y\">1</tm_floatCode>"
<< "<tm_floatCode label=\"DBH\">2</tm_floatCode>"
<< "</tm_floatCodes>"
<< "</tm_treeSettings>";
for (int i = 0; i < 50; i++) {
oOut << "<tree sp=\"0\" tp=\"" << clTreePopulation::adult << "\">"
<< "<fl c=\"0\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"1\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"2\">" << (clModelMath::GetRand() * 50) + 10 << "</fl>"
<< "</tree>";
}
for (int i = 0; i < 50; i++) {
oOut << "<tree sp=\"1\" tp=\"" << clTreePopulation::adult << "\">"
<< "<fl c=\"0\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"1\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"2\">" << (clModelMath::GetRand() * 50) + 10 << "</fl>"
<< "</tree>";
}
for (int i = 0; i < 50; i++) {
oOut << "<tree sp=\"0\" tp=\"" << clTreePopulation::sapling << "\">"
<< "<fl c=\"0\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"1\">" << clModelMath::GetRand() * 79 << "</fl>"
<< "<fl c=\"2\">" << (clModelMath::GetRand() * 8) + 0.1 << "</fl>"
<< "</tree>";
}
oOut << "</tr_treemap>"
<< "</trees>";
WriteGeneralizedHarvestRegimeAllometry(oOut);
oOut << "<behaviorList>"
<< "<behavior>"
<< "<behaviorName>GeneralizedHarvestRegime</behaviorName>"
<< "<version>1</version>"
<< "<listPosition>1</listPosition>"
<< "<applyTo species=\"Species_1\" type=\"Adult\"/>"
<< "<applyTo species=\"Species_2\" type=\"Adult\"/>"
<< "</behavior>"
<< "<behavior>"
<< "<behaviorName>DimensionAnalysis</behaviorName>"
<< "<version>1</version>"
<< "<listPosition>2</listPosition>"
<< "<applyTo species=\"Species_1\" type=\"Adult\"/>"
<< "<applyTo species=\"Species_2\" type=\"Adult\"/>"
<< "</behavior>"
<< "</behaviorList>";
oOut << "<GeneralizedHarvestRegime1>"
<< "<di_genHarvLogProbA>0</di_genHarvLogProbA>"
<< "<di_genHarvLogProbM>0</di_genHarvLogProbM>"
<< "<di_genHarvLogProbB>0.282</di_genHarvLogProbB>"
<< "<di_genHarvRemoveDist>1</di_genHarvRemoveDist>"
<< "<di_genHarvLogRemoveAlpha>99.6</di_genHarvLogRemoveAlpha>"
<< "<di_genHarvLogRemoveBeta>1</di_genHarvLogRemoveBeta>"
<< "<di_genHarvLogRemoveMu>0.00211</di_genHarvLogRemoveMu>"
<< "<di_genHarvGammaScale>0.000001</di_genHarvGammaScale>"
<< "<di_genHarvAllowedDeviation>0.1</di_genHarvAllowedDeviation>"
<< "<di_genHarvLogCutProbAlpha>"
<< "<di_ghlcpaVal species=\"Species_1\">1.748758</di_ghlcpaVal>"
<< "<di_ghlcpaVal species=\"Species_2\">1.853409</di_ghlcpaVal>"
<< "</di_genHarvLogCutProbAlpha>"
<< "<di_genHarvLogCutProbBeta>"
<< "<di_ghlcpbVal species=\"Species_1\">0.001083513</di_ghlcpbVal>"
<< "<di_ghlcpbVal species=\"Species_2\">0.001018502</di_ghlcpbVal>"
<< "</di_genHarvLogCutProbBeta>"
<< "<di_genHarvLogCutProbGamma>"
<< "<di_ghlcpgVal species=\"Species_1\">1</di_ghlcpgVal>"
<< "<di_ghlcpgVal species=\"Species_2\">0.9468814</di_ghlcpgVal>"
<< "</di_genHarvLogCutProbGamma>"
<< "<di_genHarvLogCutProbMu>"
<< "<di_ghlcpmVal species=\"Species_1\">42.53707</di_ghlcpmVal>"
<< "<di_ghlcpmVal species=\"Species_2\">39.45325</di_ghlcpmVal>"
<< "</di_genHarvLogCutProbMu>"
<< "<di_genHarvLogCutProbA>"
<< "<di_ghlcpaaVal species=\"Species_1\">21.2954</di_ghlcpaaVal>"
<< "<di_ghlcpaaVal species=\"Species_2\">21.2954</di_ghlcpaaVal>"
<< "</di_genHarvLogCutProbA>"
<< "<di_genHarvLogCutProbB>"
<< "<di_ghlcpbVal species=\"Species_1\">0.01202805</di_ghlcpbVal>"
<< "<di_ghlcpbVal species=\"Species_2\">0.01202805</di_ghlcpbVal>"
<< "</di_genHarvLogCutProbB>"
<< "<di_genHarvLogCutProbC>"
<< "<di_ghlcpcVal species=\"Species_1\">15.20595</di_ghlcpcVal>"
<< "<di_ghlcpcVal species=\"Species_2\">15.20595</di_ghlcpcVal>"
<< "</di_genHarvLogCutProbC>"
<< "<di_genHarvUseBiomassOrBA>1</di_genHarvUseBiomassOrBA>"
<< "</GeneralizedHarvestRegime1>";
WriteGeneralizedHarvestRegimeDimensionAnalysis(oOut);
oOut << "</paramFile>";
oOut.close();
return cFileString;
}
////////////////////////////////////////////////////////////////////////////
// WriteGeneralizedHarvestRegimeXMLFile4()
////////////////////////////////////////////////////////////////////////////
const char* WriteGeneralizedHarvestRegimeXMLFile4() {
using namespace std;
const char *cFileString = "TestFile1.xml";
//Open file to write to
fstream oOut;
oOut.open(cFileString, ios::out | ios::trunc);
//Write file
oOut << "<?xml version=\"1.0\" encoding=\"UTF-8\" standalone=\"no\" ?>"
<< "<paramFile fileCode=\"06010101\">"
<< "<plot>"
<< "<timesteps>1</timesteps>"
<< "<yearsPerTimestep>1</yearsPerTimestep>"
<< "<randomSeed>0</randomSeed>"
<< "<plot_lenX>200.0</plot_lenX>"
<< "<plot_lenY>200.0</plot_lenY>"
<< "<plot_precip_mm_yr>1150.645781</plot_precip_mm_yr>"
<< "<plot_temp_C>12.88171785</plot_temp_C>"
<< "<plot_latitude>55.37</plot_latitude>"
<< "</plot>"
<< "<trees>"
<< "<tr_speciesList>"
<< "<tr_species speciesName=\"Species_1\" />"
<< "<tr_species speciesName=\"Species_2\" />"
<< "</tr_speciesList>"
<< "<tr_seedDiam10Cm>0.1</tr_seedDiam10Cm>"
<< "<tr_minAdultDBH>"
<< "<tr_madVal species=\"Species_1\">10.0</tr_madVal>"
<< "<tr_madVal species=\"Species_2\">10.0</tr_madVal>"
<< "</tr_minAdultDBH>"
<< "<tr_maxSeedlingHeight>"
<< "<tr_mshVal species=\"Species_1\">1.35</tr_mshVal>"
<< "<tr_mshVal species=\"Species_2\">1.35</tr_mshVal>"
<< "</tr_maxSeedlingHeight>"
<< "<tr_treemap>"
<< "<tm_treeSettings sp=\"Species_1\" tp=\"" << clTreePopulation::adult << "\">"
<< "<tm_floatCodes>"
<< "<tm_floatCode label=\"X\">0</tm_floatCode>"
<< "<tm_floatCode label=\"Y\">1</tm_floatCode>"
<< "<tm_floatCode label=\"DBH\">2</tm_floatCode>"
<< "</tm_floatCodes>"
<< "</tm_treeSettings>"
<< "<tm_treeSettings sp=\"Species_1\" tp=\"" << clTreePopulation::sapling << "\">"
<< "<tm_floatCodes>"
<< "<tm_floatCode label=\"X\">0</tm_floatCode>"
<< "<tm_floatCode label=\"Y\">1</tm_floatCode>"
<< "<tm_floatCode label=\"DBH\">2</tm_floatCode>"
<< "</tm_floatCodes>"
<< "</tm_treeSettings>"
<< "<tm_treeSettings sp=\"Species_2\" tp=\"" << clTreePopulation::adult << "\">"
<< "<tm_floatCodes>"
<< "<tm_floatCode label=\"X\">0</tm_floatCode>"
<< "<tm_floatCode label=\"Y\">1</tm_floatCode>"
<< "<tm_floatCode label=\"DBH\">2</tm_floatCode>"
<< "</tm_floatCodes>"
<< "</tm_treeSettings>";
for (int i = 0; i < 100; i++) {
oOut << "<tree sp=\"0\" tp=\"" << clTreePopulation::adult << "\">"
<< "<fl c=\"0\">" << clModelMath::GetRand() * 199 << "</fl>"
<< "<fl c=\"1\">" << clModelMath::GetRand() * 199 << "</fl>"
<< "<fl c=\"2\">" << (clModelMath::GetRand() * 50) + 10 << "</fl>"
<< "</tree>";
}
for (int i = 0; i < 100; i++) {
oOut << "<tree sp=\"1\" tp=\"" << clTreePopulation::adult << "\">"
<< "<fl c=\"0\">" << clModelMath::GetRand() * 199 << "</fl>"
<< "<fl c=\"1\">" << clModelMath::GetRand() * 199 << "</fl>"
<< "<fl c=\"2\">" << (clModelMath::GetRand() * 50) + 10 << "</fl>"
<< "</tree>";
}
for (int i = 0; i < 1000; i++) {
oOut << "<tree sp=\"0\" tp=\"" << clTreePopulation::sapling << "\">"
<< "<fl c=\"0\">" << clModelMath::GetRand() * 199 << "</fl>"
<< "<fl c=\"1\">" << clModelMath::GetRand() * 199 << "</fl>"