public void ReprodBackup()
{
for (int i = 0; i < numLU; i++)
{
landunit local_landunit = land_Units[i];
for (int j = 0; j < numSpecies; j++)
{
local_landunit.set_probReproductionOriginalBackup(j, local_landunit.get_probReproduction(j));
}
}
}
//Constructor, sets upper limit for number of land units.
public landunits(int n = defines.MAX_LANDUNITS)
{
numLU = 0;
currentLU = 0;
maxLU = n;
land_Units = new landunit[n];
for (int i = 0; i < n; i++)
{
land_Units[i] = new landunit();
}
}
public void ReprodUpdate(int year)
{
if (flagforSECFile == 3 || flagforSECFile == 0)
{
return;
}
float local_val = (1 + VectorIteration[year - 1]) * timestep / 10.0f;
for (int i = 0; i < numLU; i++)
{
//for (int j = 0; j < numSpecies; j++)
// land_Units[i].probReproduction[j] = land_Units[i].probReproductionOriginalBackup[j] / 10 * timestep * local_val;
landunit local_landunit = land_Units[i];
for (int j = 0; j < numSpecies; j++)
{
local_landunit.set_probReproduction(j, local_landunit.get_probReproductionOriginalBackup(j) * local_val);
}
}
}
/*
* public static void updateLandtypeMap8(BinaryReader ltMapFile)
* {
* uint[] dest = new uint[32];
*
* //LDfread((char*)dest, 4, 32, ltMapFile);
* for (int i = 0; i < 32; i++)
* dest[i] = ltMapFile.ReadUInt32();
*
*
* int b16or8;
* if ((dest[1] & 0xff0000) == 0x020000)
* b16or8 = 16;
* else if ((dest[1] & 0xff0000) == 0)
* b16or8 = 8;
* else
* {
* b16or8 = -1;
* throw new Exception("Error: IO: Landtype map is neither 16 bit or 8 bit.");
* }
*
* uint nCols = dest[4];
* uint nRows = dest[5];
*
*
* uint xDim = gl_sites.numColumns;
* uint yDim = gl_sites.numRows;
*
* if ((nCols != xDim) || (nRows != yDim))
* throw new Exception("landtype map and species map do not match.");
*
*
*
* if (b16or8 == 8) //8 bit
* {
* for (uint i = yDim; i > 0; i--)
* {
* for (uint j = 1; j <= xDim; j++)
* {
* int coverType = ltMapFile.Read();
*
* if (coverType >= 0)
* gl_sites.fillinLanduPt(i, j, gl_landUnits[coverType]);
* else
* throw new Exception("illegel landtype class found.");
* }
* }
* }
* else if (b16or8 == 16) //16 bit
* {
* for (uint i = yDim; i > 0; i--)
* {
* for (uint j = 1; j <= xDim; j++)
* {
* int coverType = ltMapFile.ReadUInt16();
*
* if (coverType >= 0)
* gl_sites.fillinLanduPt(i, j, gl_landUnits[coverType]);
* else
* throw new Exception("illegel landtype class found.");
* }
* }
* }
*
* }
*/
//Main program. This contains start and shut down procedures as well as the main iteration loop.
public override void Run()
{
int i = modelCore.TimeSinceStart;
int i_d_timestep = i / gl_sites.SuccessionTimeStep;
for (int r = 0; r < gl_landUnits.Num_Landunits; ++r)
{
gl_landUnits[r].MinShade = Land_type_Attributes.get_min_shade(r);
float[] rd = new float[4];
rd[0] = Land_type_Attributes.get_gso(0, r);
rd[1] = Land_type_Attributes.get_gso(1, r);
rd[2] = Land_type_Attributes.get_gso(2, r);
rd[3] = gl_land_attrs.get_maxgso(i, r);
gl_landUnits[r].MaxRDArrayItem = rd;
gl_landUnits[r].MaxRD = rd[3];
}
//Simulation loops////////////////////////////////////////////////
//for (int i = 1; i <= numbOfIter * gl_sites.TimeStep; i++)
//{
if (i % gl_sites.SuccessionTimeStep == 0)
{
if (gl_param.FlagforSECFile == 3)
{
int index = i_d_timestep - 1;
if (index == 0)
{
SEC_landtypefiles.Clear();
SEC_gisfiles.Clear();
/*
* using (StreamReader FpSECfile = new StreamReader(gl_param.VarianceSECFile))
* {
* int num_of_files = system1.read_int(FpSECfile);
*
* for (int ii_count_num = 0; ii_count_num < num_of_files; ii_count_num++)
* {
* string SECfileMapGIS = system1.read_string(FpSECfile);
* string SECfileNametemp = system1.read_string(FpSECfile);
*
* SEC_landtypefiles.Add(SECfileNametemp);
* SEC_gisfiles.Add(SECfileMapGIS);
* }
* }
*/
if (index < gl_land_attrs.year_arr.Count)
{
/*string SECfileNametemp = SEC_landtypefiles[index];
*
* string SECfileMapGIS = SEC_gisfiles[index];
*
* gl_param.LandUnitFile = SECfileNametemp;
*
* gl_landUnits.read(gl_param.LandUnitFile);
*/
Console.Write("\nEnvironment parameter Updated.\n");
string SECfileMapGIS = gl_land_attrs.Get_new_landtype_map(index);
//strcpy(parameters.landUnitMapFile, SECfileMapGIS);
gl_param.LandImgMapFile = SECfileMapGIS;
/*Dataset simgFile = null;
*
* if ((simgFile = (Dataset)Gdal.Open(gl_param.LandImgMapFile, Access.GA_ReadOnly)) == null) //* landtype.img
* {
* Console.Write("Land Map Img file %s not found.\n", gl_param.LandImgMapFile);
*
* throw new Exception(gl_param.LandImgMapFile);
* }
* else
* {
* double[] adfGeoTransform = new double[6];
*
* simgFile.GetGeoTransform(adfGeoTransform);
* {
* for (int ii = 0; ii < 6; ii++)
* {
* wAdfGeoTransform[ii] = adfGeoTransform[ii];
* }
* }
*
* updateLandtypeImg8(simgFile);
*
* simgFile = null;
* }
*/
Console.WriteLine("\nEnvironment map Updated.");
landunit SECLog_use = gl_landUnits.first();
int ii_count = 0;
using (StreamWriter fpLogFileSEC = new StreamWriter(fpLogFileSEC_name))
{
fpLogFileSEC.Write("Year: {0}\n", i);
for (; ii_count < gl_landUnits.Num_Landunits; ii_count++)
{
fpLogFileSEC.Write("Landtype{0}:\n", ii_count);
for (int jj_count = 1; jj_count <= specAtNum; jj_count++)
{
fpLogFileSEC.Write("spec{0}: {1:N6}, ", jj_count, SECLog_use.probRepro(jj_count));
}
SECLog_use = gl_landUnits.next();
fpLogFileSEC.Write("\n");
}
}
}
}
if (index > 0)
{
if (index < SEC_landtypefiles.Count)
{
/*gl_param.LandUnitFile = SEC_landtypefiles[index];
* //gl_param.landUnitMapFile = SEC_gisfiles[index];
* gl_param.LandImgMapFile = SEC_gisfiles[index];
*
* gl_landUnits.read(gl_param.LandUnitFile);
*/
gl_param.LandImgMapFile = gl_land_attrs.Get_new_landtype_map(index);
Console.WriteLine("\nEnvironment parameter Updated.");
/*using(BinaryReader GISmap = new BinaryReader(File.Open(gl_param.landUnitMapFile, FileMode.Open)))
* {
* updateLandtypeMap8(GISmap);
* }*/
/*Dataset ltimgFile = null;
*
* if ((ltimgFile = (Dataset)Gdal.Open(gl_param.LandImgMapFile, Access.GA_ReadOnly)) == null) //* landtype.img
* {
* Console.WriteLine("Land Map Img file {0} not found.", gl_param.LandImgMapFile);
*
* throw new Exception(gl_param.LandImgMapFile);
* }
* else
* {
* double[] adfGeoTransform = new double[6];
*
* ltimgFile.GetGeoTransform(adfGeoTransform);
* {
* for (int ii = 0; ii < 6; ii++)
* {
* wAdfGeoTransform[ii] = adfGeoTransform[ii];
* }
* }
*
* updateLandtypeImg8(ltimgFile);
*
* ltimgFile = null;
*
* }*/
Console.WriteLine("\nEnvironment map Updated.");
landunit SECLog_use = gl_landUnits.first();
using (StreamWriter fpLogFileSEC = new StreamWriter(fpLogFileSEC_name))
{
fpLogFileSEC.Write("Year: {0}\n", i);
int ii_count = 0;
for (; ii_count < gl_landUnits.Num_Landunits; ii_count++)
{
fpLogFileSEC.Write("Landtype{0}:\n", ii_count);
for (int jj_count = 1; jj_count <= specAtNum; jj_count++)
{
fpLogFileSEC.Write("spec{0}: {1:N6}, ", jj_count, SECLog_use.probRepro(jj_count));
}
SECLog_use = gl_landUnits.next();
fpLogFileSEC.Write("\n");
}
}
}
}
}
}//end if
Console.WriteLine("Processing succession at Year {0}", i);
singularLandisIteration(i, pPDP);
if (i % gl_sites.SuccessionTimeStep == 0 || i == numbOfIter * gl_sites.SuccessionTimeStep)
{
int[] frequency = new int[6] {
1, 1, 1, 1, 1, 1
};
if (i % (gl_sites.SuccessionTimeStep * freq[0]) == 0 && i_d_timestep <= numbOfIter)
{
In_Output.putOutput_Landis70Pro(0, i_d_timestep, freq);
}
if (i == gl_sites.SuccessionTimeStep * numbOfIter)
{
In_Output.putOutput_Landis70Pro(0, numbOfIter, frequency);
}
if (i % (gl_sites.SuccessionTimeStep * freq[4]) == 0 && i_d_timestep <= numbOfIter)
{
In_Output.putOutput(0, i_d_timestep, freq);
}
if (i == gl_sites.SuccessionTimeStep * numbOfIter)
{
In_Output.putOutput(0, numbOfIter, frequency);
}
In_Output.putOutput_AgeDistStat(i_d_timestep);
}
//}
//Simulation loops end/////////////////////////////////////////////////
}//end Run()
public static void succession_Landis70(pdp ppdp, int itr)
{
gl_sites.GetMatureTree();
//increase ages
for (uint i = 1; i <= snr; ++i)
{
for (uint j = 1; j <= snc; ++j)
{
ppdp.addedto_sTSLMortality(i, j, (short)gl_sites.SuccessionTimeStep);
//define land unit
landunit l = gl_sites.locateLanduPt(i, j);
if (l != null && l.active())
{
site local_site = gl_sites[i, j];
for (int k = 1; k <= specAtNum; ++k)
{
local_site.SpecieIndex(k).GrowTree();
}
}
}
//Console.ReadLine();
}
//seed dispersal
initiateRDofSite_Landis70();
Console.WriteLine("Seed Dispersal:");
for (uint i = 1; i <= snr; ++i)
{
//Console.WriteLine("\n{0}%\n", 100 * i / snr);
for (uint j = 1; j <= snc; ++j)
{
//Console.WriteLine("i = {0}, j = {1}", i, j);
landunit l = gl_sites.locateLanduPt(i, j);
KillTrees(i, j);
if (itr == 90 && i == 193 && j == 156)
{
Console.WriteLine("watch: {0}:{1}", "kill trees", gl_sites[193, 156].SpecieIndex(2).getAgeVector(1));
}
if (l != null && l.active())
{
float local_RD = gl_sites[i, j].RD;
if (local_RD < l.MaxRDArray(0))
{
gl_sites.SiteDynamics(0, i, j);
}
else if (local_RD >= l.MaxRDArray(0) && local_RD < l.MaxRDArray(1))
{
gl_sites.SiteDynamics(1, i, j);
}
else if (local_RD >= l.MaxRDArray(1) && local_RD <= l.MaxRDArray(2))
{
gl_sites.SiteDynamics(2, i, j);
}
else if (local_RD > l.MaxRDArray(2) && local_RD <= l.MaxRDArray(3))
{
gl_sites.SiteDynamics(3, i, j);
}
else
{
Debug.Assert(local_RD > l.MaxRDArray(3));
gl_sites.SiteDynamics(4, i, j);
}
}
}
}
Console.WriteLine("end succession_Landis70 once");
}