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thermo.cpp
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thermo.cpp
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/*!
* thermo.cpp
* Copyright (c) 2020 Asaki Kameda
* Released under GNU GPLv3.
* see LICENSE.txt
*/
//For OpenCL version v2.2.0(2020.03.04)
#include "thermo.h"
thermo::thermo(const int &argc, char *argv[]){
cout << scientific;
cout << "Program Version:" << THERMO_VER << "\n";
if(argc != 2){
cout << "Please specify the ini_file!\n";
exit(1);
}
string inifile = argv[1];
cout << "INI filename : " << inifile << endl;
if(f_ini.Load(inifile) == 0){
cout << "Loading ini file is failed" << endl;
}
}
bool thermo::lerror(string str1, string str2){
cout << "Error in loading Section:[" << str1 << "], " << str2 << endl;
return true;
}
int thermo::getini(){
//iniファイルから変数の読込
bool error = false;
//[SYSTEM] section
if( "\0" == (thermo_version = f_ini.GetSection("SYSTEM")->GetValue("THERMO_VER","\0").AsString()) ){ error = lerror("SYSTEM","THERMO_VER");}
if(thermo_version != THERMO_VER){
cout << "Please declare THERMO_VER on ini [SYSTEM] section for future lab members" << endl;
cout << "THERMO_VER = " << THERMO_VER << endl;
error = true;
}
if( "\0" == (DataFile = f_ini.GetSection("SYSTEM")->GetValue("DataFile","\0").AsString()) ){ error = lerror("SYSTEM","DataFile");}
if( -1 == (Selected_Vendor = f_ini.GetSection("SYSTEM")->GetValue("Selected_Vendor", -1 ).AsInt()) ){ error = lerror("SYSTEM","Selected_Vendor");}
if( -1 == (ld = static_cast<size_t>(f_ini.GetSection("SYSTEM")->GetValue("ld", -1 ).AsInt())) ){ error = lerror("SYSTEM","ld");}
if( -1 == (ls = static_cast<size_t>(f_ini.GetSection("SYSTEM")->GetValue("ls", -1 ).AsInt())) ){ error = lerror("SYSTEM","ls");}
if( -1 == (lz = static_cast<size_t>(f_ini.GetSection("SYSTEM")->GetValue("lz", -1 ).AsInt())) ){ error = lerror("SYSTEM","lz");}
//[OUTPUT] section
if( -1 == (Out4d = f_ini.GetSection("OUTPUT")->GetValue("Out4d", -1 ).AsInt()) ){ error = lerror("OUTPUT","Out4d");}
if( -1 == (Out2dSurface = f_ini.GetSection("OUTPUT")->GetValue("Out2dSurface", -1 ).AsInt()) ){ error = lerror("OUTPUT","Out2dSurface");}
if( -1 == (CalcRef = f_ini.GetSection("OUTPUT")->GetValue("CalcRef", -1 ).AsInt()) ){ error = lerror("OUTPUT","CalcRef");}
if( -1 == (CalcRef_i = f_ini.GetSection("OUTPUT")->GetValue("CalcRef_i", -1 ).AsInt()) ){ error = lerror("OUTPUT","CalcRef_i");}
if( -1 == (OutCSV = f_ini.GetSection("OUTPUT")->GetValue("OutCSV", -1 ).AsInt()) ){ error = lerror("OUTPUT","OutCSV");}
if( -1 == (OutProfile = f_ini.GetSection("OUTPUT")->GetValue("OutProfile", -1 ).AsInt()) ){ error = lerror("OUTPUT","OutProfile");}
if( -1 == (OutCoef = f_ini.GetSection("OUTPUT")->GetValue("OutCoef", -1 ).AsInt()) ){ error = lerror("OUTPUT","OutCoef");}
if( -1 == (OutPeaks = f_ini.GetSection("OUTPUT")->GetValue("OutPeaks", -1 ).AsInt()) ){ error = lerror("OUTPUT","OutPeaks");}
if( -1 == (Out2dSurface = f_ini.GetSection("OUTPUT")->GetValue("Out2dSurface", -1 ).AsInt()) ){ error = lerror("OUTPUT","Out2dSurface");}
if( -1 == (Out4d = f_ini.GetSection("OUTPUT")->GetValue("Out4d", -1 ).AsInt()) ){ error = lerror("OUTPUT","Out4d");}
if( -1 == (OutRef2D = f_ini.GetSection("OUTPUT")->GetValue("OutRef2D", -1 ).AsInt()) ){ error = lerror("OUTPUT","OutRef2D");}
//[FDM_PARAMS] section
if( -1 == (Nt = f_ini.GetSection("FDM_PARAMS")->GetValue("Nt", -1 ).AsInt()) ){ error = lerror("FDM_PARAMS","Nt");}
if( -1 == (Nd = f_ini.GetSection("FDM_PARAMS")->GetValue("Nd", -1 ).AsInt()) ){ error = lerror("FDM_PARAMS","Nd");}
if( -1 == (Ns = f_ini.GetSection("FDM_PARAMS")->GetValue("Ns", -1 ).AsInt()) ){ error = lerror("FDM_PARAMS","Ns");}
if( -1 == (Nz = f_ini.GetSection("FDM_PARAMS")->GetValue("Nz", -1 ).AsInt()) ){ error = lerror("FDM_PARAMS","Nz");}
if( -1 == (Ht = f_ini.GetSection("FDM_PARAMS")->GetValue("Ht", -1 ).AsDouble()) ){ error = lerror("FDM_PARAMS","Ht");}
if( -1 == (Hd = f_ini.GetSection("FDM_PARAMS")->GetValue("Hd", -1 ).AsDouble()) ){ error = lerror("FDM_PARAMS","Hd");}
if( -1 == (Hs = f_ini.GetSection("FDM_PARAMS")->GetValue("Hs", -1 ).AsDouble()) ){ error = lerror("FDM_PARAMS","Hs");}
if( -1 == (Hz = f_ini.GetSection("FDM_PARAMS")->GetValue("Hz", -1 ).AsDouble()) ){ error = lerror("FDM_PARAMS","Hz");}
//[OUTPUT_CONIFIG] section
if( -1 == (Delta_t = f_ini.GetSection("OUTPUT_CONIFIG")->GetValue("Delta_t", -1 ).AsInt()) ){ error = lerror("OUTPUT_CONIFIG","Delta_t");}
if( -1 == (Choosed_s = f_ini.GetSection("OUTPUT_CONIFIG")->GetValue("Choosed_s", -1 ).AsInt()) ){ error = lerror("OUTPUT_CONIFIG","Choosed_s");}
if( -1 == (zCenter = f_ini.GetSection("OUTPUT_CONIFIG")->GetValue("zCenter", -1 ).AsInt()) ){ error = lerror("OUTPUT_CONIFIG","zCenter");}
if( -1 == (Surface_Delta_t = f_ini.GetSection("OUTPUT_CONIFIG")->GetValue("Surface_Delta_t", -1 ).AsInt()) ){ error = lerror("OUTPUT_CONIFIG","Surface_Delta_t");}
if( -1 == (Delta_t_4D = f_ini.GetSection("OUTPUT_CONIFIG")->GetValue("Delta_t_4D", -1 ).AsInt()) ){ error = lerror("OUTPUT_CONIFIG","Delta_t_4D");}
//[THERMAL_CONFIG] section
if( -1 == (Tinit = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Tinit", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Tinit");}
if( -1 == (Power = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Power", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Power");}
if( -1e10 == (Center = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Center", -1e10 ).AsInt()) ){ error = lerror("THERMAL_CONFIG","Center");}
if( -1 == (Speed = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Speed", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Speed");}
if( -1 == (Radius = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Radius", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Radius");}
if( -1 == (Radius2 = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Radius2", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Radius2");}
if( -1 == (Radius3 = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Radius3", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Radius3");}
if( -1 == (Epsilon = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Epsilon", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Epsilon");}
if( -1 == (Epsilon2 = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Epsilon2", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Epsilon2");}
if( -1 == (Epsilon3 = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Epsilon3", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Epsilon3");}
if( -1 == (Coe = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Coe", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Coe");}
if( -1 == (Radiation_max = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Radiation_max", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Radiation_max");}
if( -1 == (Radiation_mid = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Radiation_mid", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Radiation_mid");}
if( -1 == (Radiation_min = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Radiation_min", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Radiation_min");}
if( -1 == (Radiation_supp = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Radiation_supp", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Radiation_supp");}
if( -1 == (Radiation_rate = f_ini.GetSection("THERMAL_CONFIG")->GetValue("Radiation_rate", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","Radiation_rate");}
if( -1 == (wa = f_ini.GetSection("THERMAL_CONFIG")->GetValue("wa", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","wa");}
if( -1 == (wb = f_ini.GetSection("THERMAL_CONFIG")->GetValue("wb", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","wb");}
if( -1 == (wc = f_ini.GetSection("THERMAL_CONFIG")->GetValue("wc", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","wc");}
if( -1 == (SuppCenter = f_ini.GetSection("THERMAL_CONFIG")->GetValue("SuppCenter", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","SuppCenter");}
if( -1 == (wbsupp = f_ini.GetSection("THERMAL_CONFIG")->GetValue("wbsupp", -1 ).AsDouble()) ){ error = lerror("THERMAL_CONFIG","wbsupp");}
//[REFRACTIVE_INDEX] section
if( -1 == (WaveLength = f_ini.GetSection("REFRACTIVE_INDEX")->GetValue("WaveLength", -1 ).AsDouble()) ){ error = lerror("REFRACTIVE_INDEX","WaveLength");}
if( -1 == (Ninit = f_ini.GetSection("REFRACTIVE_INDEX")->GetValue("Ninit", -1 ).AsDouble()) ){ error = lerror("REFRACTIVE_INDEX","Ninit");}
if( 1e100 == (Dn_dT = f_ini.GetSection("REFRACTIVE_INDEX")->GetValue("Dn_dT", 1e100 ).AsDouble()) ){ error = lerror("REFRACTIVE_INDEX","Dn_dT");}
if( 1e100 == (D2n_dT2 = f_ini.GetSection("REFRACTIVE_INDEX")->GetValue("D2n_dT2", 1e100 ).AsDouble()) ){ error = lerror("REFRACTIVE_INDEX","D2n_dT2");}
//[OTHERS] section
if( -1 == (RegardExpansion = static_cast<size_t>(f_ini.GetSection("OTHERS")->GetValue("RegardExpansion", -1 ).AsInt())) ){ error = lerror("OTHERS","RegardExpansion");}
if(Nd%ld !=0){
cout << "Error: ld needs to be a number that can divide Nd." << endl;
error = true;
}
if(Ns%ls !=0){
cout << "Error: ls needs to be a number that can divide Ns." << endl;
error = true;
}
if(Nz%lz !=0){
cout << "Error: lz needs to be a number that can divide Nz." << endl;
error = true;
}
if(Choosed_s < 0|| Choosed_s >= Ns){
cout << "Error: Choosed_s needs to be between 0 to Ns-1." << endl;
error = true;
}
if(zCenter < 0|| zCenter >= Nz){
cout << "Error: zCenter needs to be between 0 to Nz-1." << endl;
error = true;
}
if(error == true){
exit(EXIT_FAILURE);
}
local_item_size = {ld,ls,lz};
t_pnts = Nt/Delta_t + 1;
t_pnts_surface = Nt/(Surface_Delta_t) + 1;
t_pnts_4D = Nt/(Delta_t_4D) + 1;
cout << "Output points : " << t_pnts << "\n";
return 0;
}
int thermo::make_fname(){
vector<string> custom_filename_key;
INI::Array ar = f_ini.GetSection("SYSTEM")->GetValue("Custom_filename").AsArray();
for(size_t i = 0; i < ar.Size(); i++) {custom_filename_key.push_back(ar[i].AsString());}
if(custom_filename_key.empty()){
cout << "no custom_filename" << endl;
return 1;
}
for (INI::File::sections_iter it = f_ini.SectionsBegin(); it != f_ini.SectionsEnd(); it++){
for (INI::Section::values_iter vit = it->second->ValuesBegin(); vit != it->second->ValuesEnd(); vit++){
for(int i = 0; i < custom_filename_key.size(); i++){
if (vit->first == custom_filename_key.at(i)){
fname += "_" + vit->second.AsString();
break;
}
}
}
}
cout << "Output filename prefix: " << DataFile << "_" << fname << "\n" << endl;
return 0;
}
int thermo::check_ini(ostream& os, bool if_cout_true ){
string str_tab, str_lf, str_note, str_note_end;
if(if_cout_true == true){
str_tab = "";
str_lf = "\n";
str_note = "";
str_note_end = "";
}else{
str_tab = R"()";
str_lf = R"(\r)";
str_note = R"(X Note 'Reflectivity', ")";
str_note_end = "\"\n";
}
os << str_note << str_tab << "THERMO_VER:" << str_tab << thermo_version << str_lf << str_note_end ;
os << str_note << str_tab << "DataFile:" << str_tab << DataFile << str_lf << str_note_end ;
os << str_note << str_tab << "(Out4d,Out2dSurface,CalcRef,CalcRef_i,OutCSV,OutProfile,OutCoef):" << str_tab << "(" << Out4d << "," << Out2dSurface << "," << CalcRef << "," << CalcRef_i << "," << OutCSV << "," << OutProfile << "," << OutCoef <<")" << str_lf << str_note_end;
os << str_note << str_tab << "(Nd,Ns,Nt,Nz):" << str_tab << "(" << Nd << "," << Ns << "," << Nt << "," << Nz << ")" << str_lf << str_note_end ;
os << str_note << str_tab << "(Hd,Hs,Ht,Hz):" << str_tab << "(" << Hd << "," << Hs << "," << Ht << "," << Hz << ")" << str_lf << str_note_end ;
os << str_note << str_tab << "(Delta_t,Choosed_s,zCenter):" << str_tab << "(" << Delta_t << "," << Choosed_s << "," << zCenter << ")" << str_lf << str_note_end ;
os << str_note << str_tab << "(Tinit):" << str_tab << "(" << Tinit << ")" << str_lf << str_note_end ;
os << str_note << str_tab << "(ld,ls,lz):" << str_tab << "(" << ld << "," << ls << "," << lz << ")" << str_lf << str_note_end ;
os << str_note << str_tab << "(WaveLength,RegardExpansion):" << str_tab << "(" << WaveLength << "," << RegardExpansion << ")" << str_lf << str_note_end ;
os << str_note << str_tab << "(Ninit,Dn_dT,D2n_dT2):" << str_tab << "(" << Ninit << "," << Dn_dT << "," << D2n_dT2 << ")" << str_lf << str_note_end ;
os << str_note << str_tab << "(Power,Center,Speed):" << str_tab << "(" << Power << "," << Center << "," << Speed << ")" << str_lf << str_note_end ;
os << str_note << str_tab << "(Radius,Radius2,Radius3):" << str_tab << "(" << Radius << "," << Radius2 << "," << Radius3 << ")" << str_lf << str_note_end ;
os << str_note << str_tab << "(Epsilon,Epsilon2,Epsilon3,Coe):" << str_tab << "(" << Epsilon << "," << Epsilon2 << "," << Epsilon3 << "," << Coe << ")" << str_lf << str_note_end ;
os << str_note << str_tab << "(Radiation_max,Radiation_mid,Radiation_min,Radiation_rate,Radiation_supp):" << str_tab << "(" << Radiation_max << "," << Radiation_mid << "," << Radiation_min << "," << Radiation_rate << "," << Radiation_supp << ")" << str_lf << str_note_end ;
os << str_note << str_tab << "(wa,wb,wc,SuppCenter,wbsupp):" << str_tab << "(" << wa << "," << wb << "," << wc << "," << SuppCenter << "," << wbsupp << ")" << str_lf << str_note_end ;
os << str_note << str_tab << "Max power density : " << power_density(0,0) << "[W/mm2] = " << power_density(0,0)/10 << "[kW/cm2]" << str_lf << str_note_end; //
return 0;
}
int thermo::resize(void){
//配列確保
distribution = vector<double>(Nd*Ns*Nz, Tinit);
old_distribution = vector<double>(Nd*Ns*Nz, Tinit);
temperature.assign(t_pnts, 0);
temperature_back.assign(t_pnts, 0);
opt_thickness.assign(t_pnts, 0);
reflectivity.assign(t_pnts, 0);
reflectivity_comp.assign(t_pnts, 0);
global_item_size = {static_cast<size_t>(Nd),static_cast<size_t>(Ns),static_cast<size_t>(Nz)};
return 0;
}
int thermo::check_stability(double temperature){
double stability_x, stability_y, stability_z;
stability_x = 2 * kakusanritsu(temperature) * Ht / (Hd * Hd);
stability_y = 2 * kakusanritsu(temperature) * Ht / (Hs * Hs);
stability_z = 2 * kakusanritsu(temperature) * Ht / (Hz * Hz);
cout << "Stability("<< temperature << " K)" << " : (" << stability_x << " , " << stability_y << " , " << stability_z << ")\n";
//cout << "Output points : " << t_pnts << "\n";
return 0;
}
int thermo::out_dist_head(){
//4次元データのヘッダ
int d, s;
char str[256];
string Data4d;
ofstream fout;
Data4d = DataFile + "_" + fname + "_4d.itx";
strcpy(str, Data4d.c_str());
fout.open(str);
if (!fout){//出力ファイルの確認
cout << "Can't open 2d output file!\n";
return 1;
}
fout << scientific;
fout << "IGOR\n";
fout << "WAVES/D/O/N=(" << Ns << "," << Nz << "," << Nd << "," << t_pnts_4D << ")\t'Distribution'\n";
fout << "BEGIN\n";
fout.close();
return 0;
}
int thermo::out_dist(){
//4次元データの出力
int d, s, z, t;
char str[256];
string Data4d;
ofstream fout;
Data4d = DataFile + "_" + fname + "_4d.itx";
strcpy(str, Data4d.c_str());
fout.open(str, ios::app);
if (!fout){//出力ファイルの確認
cout << "2d file output error!\n";
return 1;
}
fout << scientific;
for (t=0; t<t_pnts_4D; t++){
for (d=0; d<Nd; d++){
for (s=0; s<Ns; s++){
for(z=0; z<Nz; z++){
fout << "\t" << device_memory_4D[Nd*Ns*Nz*t+Nz*Ns*d+Nz*s+z];
}
fout << "\n";
}
fout << "\n";
}
fout << "\n";
}
fout.close();
return 0;
}
int thermo::out_dist_foot(){
//4次元データのフッタ
int d, s;
char str[256];
string Data4d;
ofstream fout;
Data4d = DataFile + "_" + fname + "_4d.itx";
strcpy(str, Data4d.c_str());
fout.open(str, ios::app);
if (!fout){//出力ファイルの確認
cout << "2d file output error!\n";
return 1;
}
fout << scientific;
fout << "END\n";
fout << "X SetScale/P x 0,"<< Hd*1e-3 << ",\"m\",'Distribution'\n";
fout << "X SetScale/P y 0,"<< Hs*1e-3 << ",\"m\",'Distribution'\n";
fout << "X SetScale/P z 0,"<< Hz*1e-3 << ",\"m\",'Distribution'\n";
fout << "X SetScale/P t 0,"<< Ht*Delta_t_4D << ",\"s\",'Distribution'\n";
fout << "X SetScale d 0,0,\"K\",'distribution'\n";
fout.close();
cout << "output " << Data4d << "\n";
return 0;
}
int thermo::out_dist_surface_head(){
//基板表面温度分布データ
int d, s;
char str[256];
string Data4d;
ofstream fout;
Data4d = DataFile + "_" + fname + "_2dSurface.itx";
strcpy(str, Data4d.c_str());
fout.open(str);
if (!fout){//出力ファイルの確認
cout << "Can't open 2dSurface output file!\n";
return 1;
}
fout << scientific;
fout << "IGOR\n";
fout << "WAVES/D/O/N=(" << Ns << "," << Nz << "," << t_pnts_surface << ")\t'SurfaceDistribution'\n";
fout << "BEGIN\n";
fout.close();
return 0;
}
int thermo::out_dist_surface(){
//基板表面温度分布データ
int s ,z, t;
char str[256];
string Data4d;
ofstream fout;
Data4d = DataFile + "_" + fname + "_2dSurface.itx";
strcpy(str, Data4d.c_str());
fout.open(str, ios::app);
if (!fout){//出力ファイルの確認
cout << "2dSurface file output error!\n";
return 1;
}
fout << scientific;
for (t=0; t<t_pnts_surface; t++){
for (s=0; s<Ns; s++){
for(z=0; z<Nz; z++){
fout << "\t" << device_memory_2D[Ns*Nz*t+Nz*s+z];
}
fout << "\n";
}
fout << "\n";
}
fout << "\n";
fout.close();
return 0;
}
int thermo::out_dist_surface_foot(){
//基板表面温度分布データフッター
int d, s;
char str[256];
string Data4d;
ofstream fout;
Data4d = DataFile + "_" + fname + "_2dSurface.itx";
strcpy(str, Data4d.c_str());
fout.open(str, ios::app);
if (!fout){//出力ファイルの確認
cout << "2dSurface file output error!\n";
return 1;
}
fout << scientific;
fout << "END\n";
fout << "X SetScale/P x 0,"<< Hs*1e-3 << ",\"m\",'SurfaceDistribution'\n";
fout << "X SetScale/P y 0,"<< Hz*1e-3 << ",\"m\",'SurfaceDistribution'\n";
fout << "X SetScale/P z 0,"<< Ht*Surface_Delta_t << ",\"s\",'SurfaceDistribution'\n";
fout << "X SetScale d 0,0,\"K\",'distSurface'\n";
fout.close();
cout << "output " << Data4d << "\n";
return 0;
}
int thermo::opt_thickness_peakfind(){
int count = 0;
double diff,cumul=0;
int saisho = 0;
char str[256];
string Data1d;
ofstream fout;
Data1d = DataFile + "_" + fname +"_peak.itx";
strcpy(str, Data1d.c_str());
fout.open(str);
if (!fout){//出力ファイルの確認
cout << "Can't open 1d output file!\n";
return 1;
}
fout << scientific << setprecision(16);
fout << "IGOR\n";
fout << "WAVES/D/O" << "\t'PeakorValley'\t'ReflectivityP'\t'PeakCount'\t'Opt_ThicknessP'\t'Nd_Difference'\t'Nd_Diff_Cumul'";
fout << "\nBEGIN\n";
for (int t=1; t<t_pnts-1; t++){
if(reflectivity[t-1]<=reflectivity[t] && reflectivity[t+1]<=reflectivity[t]){
saisho = t;
break;
}
if(reflectivity[t-1]>=reflectivity[t] && reflectivity[t+1]>=reflectivity[t]){
saisho = t;
break;
}
}
for (int t=1; t<t_pnts-1; t++){
if(reflectivity[t-1]<=reflectivity[t] && reflectivity[t+1]<=reflectivity[t]){
diff = opt_thickness[t] - opt_thickness[saisho] - count * 3.275e-7;
cumul += diff;
fout << "100" << "\t" <<reflectivity[t] << "\t" << count << "\t" << opt_thickness[t] << "\t" << diff << "\t" << cumul << "\n";
count++;
}
if(reflectivity[t-1]>=reflectivity[t] && reflectivity[t+1]>=reflectivity[t]){
diff = opt_thickness[t] - opt_thickness[saisho] - count * 3.275e-7;
cumul += diff;
fout << "0" << "\t" << reflectivity[t] << "\t" << count << "\t" << opt_thickness[t] << "\t" << diff << "\t" << cumul << "\n";
count++;
}
}
fout << "END\n";
fout << "X SetScale/P x 0, 1,\"s\", 'PeakorValley'\n";
fout << "X SetScale d 0,0,\"%\",'PeakorValley'\n";
fout << "X SetScale/P x 0, 1,\"s\", 'ReflectivityP'\n";
fout << "X SetScale d 0,0,\"%\",'ReflectivityP'\n";
fout << "X SetScale/P x 0, 1,\"s\", 'PeakCount'\n";
fout << "X SetScale d 0,0,\"\",'PeakCount'\n";
fout << "X SetScale/P x 0, 1,\"s\", 'Opt_ThicknessP'\n";
fout << "X SetScale d 0,0,\"m\",'Opt_ThicknessP'\n";
fout << "X SetScale/P x 0, 1,\"s\", 'Nd_Difference'\n";
fout << "X SetScale d 0,0,\"m\",'Nd_Difference'\n";
fout << "X SetScale/P x 0, 1,\"s\", 'Nd_Diff_Cumul'\n";
fout << "X SetScale d 0,0,\"m\",'Nd_Diff_Cumul'\n";
fout.close();
cout << "output " << Data1d << "\n";
if(saisho = 0){
cout << "##########saisho = 0.#########" << endl;
}
return 0;
}
int thermo::out_calc(){
//1次元データの出力
int i;
char str[256];
string Data1d;
ofstream fout;
Data1d = DataFile + "_" + fname +"_1d.itx";
strcpy(str, Data1d.c_str());
fout.open(str);
if (!fout){//出力ファイルの確認
cout << "Can't open 1d output file!\n";
return 1;
}
fout << scientific;
fout << "IGOR\n";
fout << "WAVES/D/O" << "\t'Time_wave'\t'Temperature'\t'Temperature_back'\t'Opt_Thickness'";
if (CalcRef){
fout << "\t'Reflectivity'";
if (CalcRef_i){
fout << "\t'ref_comp_real'\t'ref_comp_imag'\t'ref_comp_abs'\t'ref_comp_arg'";
}
}
fout << "\t'Radiation'\t'LaserPositionPowerDensity'\t'LaserPosition0_GaussPosition'";
fout << "\nBEGIN\n";
// fout << "Time\tTemperature\tReflectivity\n";
for (i=0; i<t_pnts; i++){
fout << Ht*i*Delta_t << "\t" << temperature[i] << "\t" << temperature_back[i] << "\t" << opt_thickness[i];
if (CalcRef){
fout << "\t" << reflectivity[i];
if (CalcRef_i){
fout << "\t" << real(reflectivity_comp[i]) << "\t" << imag(reflectivity_comp[i]) << "\t" << abs(reflectivity_comp[i]) << "\t" << arg(reflectivity_comp[i]);
}
}
double distance = Hs*Center + Ht*i*Delta_t*Speed - Hs*Choosed_s;
double Out_Rad = Radiation_rate*(Radiation_max-Radiation_mid)*exp(- pow(distance/wa,2)/2) + (1-Radiation_rate)*(Radiation_max-Radiation_mid)*exp(- pow(distance/wb,2)/2) + (Radiation_mid-Radiation_min)*exp(- pow(distance/wc,2)/2) + Radiation_min + exp(- pow((abs(distance)-SuppCenter)/wbsupp,2)/2)*Radiation_supp;
fout << "\t" << Out_Rad << "\t" <<power_density(distance,0) << "\t" << distance;
fout << "\n";
}
fout << "END\n";
fout << "X SetScale d 0,0,\"s\",'Time_wave'\n";
fout << "X SetScale/P x 0," << Ht*Delta_t << ",\"s\", 'Temperature'\n";
fout << "X SetScale d 0,0,\"K\",'Temperature'\n";
fout << "X SetScale/P x 0," << Ht*Delta_t << ",\"s\", 'Temperature_back'\n";
fout << "X SetScale d 0,0,\"K\",'Temperature_back'\n";
fout << "X SetScale/P x 0," << Ht*Delta_t << ",\"s\", 'Opt_Thickness'\n";
fout << "X SetScale d 0,0,\"m\",'Opt_Thickness'\n";
if (CalcRef){
fout << "X SetScale/P x 0," << Ht*Delta_t << ",\"s\", 'Reflectivity'\n";
fout << "X SetScale d 0,0,\"%\",'Reflectivity'\n";
if (CalcRef_i){
fout << "X SetScale/P x 0," << Ht*Delta_t << ",\"s\", 'ref_comp_real'\n";
fout << "X SetScale d 0,0,\"\",'ref_comp_real'\n";
fout << "X SetScale/P x 0," << Ht*Delta_t << ",\"s\", 'ref_comp_imag'\n";
fout << "X SetScale d 0,0,\"\",'ref_comp_imag'\n";
fout << "X SetScale/P x 0," << Ht*Delta_t << ",\"s\", 'ref_comp_abs'\n";
fout << "X SetScale d 0,0,\"\",'ref_comp_abs'\n";
fout << "X SetScale/P x 0," << Ht*Delta_t << ",\"s\", 'ref_comp_arg'\n";
fout << "X SetScale d 0,0,\"\",'ref_comp_arg'\n";
}
}
fout << "X SetScale/P x 0," << Ht*Delta_t << ",\"s\", 'Radiation'\n";
fout << "X SetScale d 0,0,\"\",'Radiation'\n";
fout << "X SetScale/P x 0," << Ht*Delta_t << ",\"s\", 'LaserPositionPowerDensity'\n";
fout << "X SetScale d 0,0,\"(kW/cm2)\",'LaserPositionPowerDensity'\n";
fout << "X SetScale/P x 0," << Ht*Delta_t << ",\"s\", 'LaserPosition0_GaussPosition'\n";
fout << "X SetScale d 0,0,\"m\",'LaserPosition0_GaussPosition'\n";
check_ini(fout,false);
fout.close();
cout << "output " << Data1d << "\n";
return 0;
}
int thermo::out_calc_csv(){
//1次元データの出力(コンマセパレート)
int i;
char str[256];
string Data1d;
ofstream fout;
Data1d = DataFile + "_" + fname +"_1d.csv";
strcpy(str, Data1d.c_str());
fout.open(str);
if (!fout){//出力ファイルの確認
cout << "Can't open 1d output file!\n";
return 1;
}
fout << scientific;
fout << "Time(s),Temperature(K),Opt_Thickness(m)";
if (CalcRef){
fout << ",Reflectivity(%)";
}
fout << "\n";
for (i=0; i<t_pnts; i++){
fout << Ht*i*Delta_t << "," << temperature[i] << "," << opt_thickness[i];
if (CalcRef){
fout << "," << reflectivity[i];
}
fout << "\n";
}
fout.close();
cout << "output " << Data1d << "\n";
return 0;
}
int thermo::out_profile(){
//TPJのプロファイルの出力
//表面3次元TPJプロファイル 180522
int i, j;
char str[256];
string Data1d;
ofstream fout;
Data1d = DataFile + "_" + fname + "_profile.itx";
strcpy(str, Data1d.c_str());
fout.open(str);
if (!fout){//出力ファイルの確認
cout << "Can't open 1d_profile output file!\n";
return 1;
}
fout << scientific;
fout << "IGOR\n";
fout << "WAVES/D/O/N=(" << 2*Ns << "," << 2*Nz <<")\t'SurfacePowerProfile'";
fout << "\nBEGIN\n";
for (i = -Ns; i < Ns; i++) {
for (j = -Nz; j < Nz; j++) {
fout << "\t" << power_profile(Hs*i, Hz*j) / (10 * ((Hs*Hz) / (Hd*Hs*Hz)));
}
fout << "\n";
}
fout << "END\n";
fout << "X SetScale/P x "<< -Hs*Ns*1e-3 << ","<< Hs*1e-3 << ",\"m\",'SurfacePowerProfile'\n";
fout << "X SetScale/P y "<< -Hz*Nz*1e-3 << ","<< Hz*1e-3 << ",\"m\",'SurfacePowerProfile'\n";
fout << "X SetScale d 0,0,\"(kW/cm2)\",'SurfacePowerProfile'\n";
fout.close();
cout << "output " << Data1d << "\n";
return 0;
}
int thermo::out_coef(){
//1次元データの出力
int i;
char str[256];
string Data1d;
ofstream fout;
Data1d = DataFile + "_" + fname +"_hcoef.itx";
strcpy(str, Data1d.c_str());
fout.open(str);
if (!fout){//出力ファイルの確認
cout << "Can't open h coef output file!\n";
return 1;
}
fout << scientific;
fout << "IGOR\n";
fout << "WAVES/D/O" "\t'local_heat_transfer_coef_W/m2K'";
fout << "\nBEGIN\n";
for (i=-Ht*Nt*Speed; i<Ht*Nt*Speed; i++){
double Out_Rad = Radiation_rate*(Radiation_max-Radiation_mid)*exp(- pow(i/wa,2)/2) + (1-Radiation_rate)*(Radiation_max-Radiation_mid)*exp(- pow(i/wb,2)/2) + (Radiation_mid-Radiation_min)*exp(- pow(i/wc,2)/2) + Radiation_min + exp(- pow((abs(i)-SuppCenter)/wbsupp,2)/2)*Radiation_supp;
fout << "\t" << Out_Rad << "\n";
}
fout << "END\n";
fout << "X SetScale/P x " << (-Ht*Nt*Speed)/1000 << "," << 1e-3 << ",\"m\", 'local_heat_transfer_coef_W/m2K'\n";
fout << "X SetScale d 0,0,\"W/m2K\",'local_heat_transfer_coef_W/m2K'\n";
fout.close();
cout << "output " << Data1d << "\n";
return 0;
}
int thermo::out_reflectivity_2D_head(){
//裏面反射率マップヘッダ
int d, s;
char str[256];
string Data4d;
ofstream fout;
Data4d = DataFile + "_" + fname + "_reflectivity2d.itx";
strcpy(str, Data4d.c_str());
fout.open(str);
if (!fout){//出力ファイルの確認
cout << "Can't open 2dSurface output file!\n";
return 1;
}
fout << scientific;
fout << "IGOR\n";
fout << "WAVES/D/O/N=(" << Ns << "," << Nz << "," << t_pnts_4D << ")\t'Reflectivity_2D'\n";
fout << "BEGIN\n";
fout.close();
return 0;
}
int thermo::out_reflectivity_2D(){
//裏面反射率マップ
int s ,z, t;
char str[256];
string Data4d;
ofstream fout;
Data4d = DataFile + "_" + fname + "_reflectivity2d.itx";
strcpy(str, Data4d.c_str());
fout.open(str, ios::app);
if (!fout){//出力ファイルの確認
cout << "2dSurface file output error!\n";
return 1;
}
fout << scientific;
for (t=0; t<t_pnts_4D; t++){
for (s=0; s<Ns; s++){
for(z=0; z<Nz; z++){
fout << "\t" << calc_reflectivity_2D(&reflectivity_comp[t],t,s,z);
}
fout << "\n";
}
fout << "\n";
}
fout << "\n";
fout.close();
return 0;
}
int thermo::out_reflectivity_2D_foot(){
//裏面反射率マップフッター
int d, s;
char str[256];
string Data4d;
ofstream fout;
Data4d = DataFile + "_" + fname + "_reflectivity2d.itx";
strcpy(str, Data4d.c_str());
fout.open(str, ios::app);
if (!fout){//出力ファイルの確認
cout << "2dSurface file output error!\n";
return 1;
}
fout << scientific;
fout << "END\n";
fout << "X SetScale/P x 0,"<< Hs*1e-3 << ",\"m\",'Reflectivity_2D'\n";
fout << "X SetScale/P y 0,"<< Hz*1e-3 << ",\"m\",'Reflectivity_2D'\n";
fout << "X SetScale/P z 0,"<< Ht*t_pnts_4D << ",\"s\",'Reflectivity_2D'\n";
fout << "X SetScale d 0,0,\"%\",'Reflectivity_2D'\n";
fout.close();
cout << "output " << Data4d << "\n";
return 0;
}
double thermo::power_profile(double r1, double r2){
//熱発生率の計算
double value;
value = (Epsilon * Power * gaussian2d(r1, r2, Radius, Coe) + Epsilon2 * Power * gaussian2d(r1, r2, Radius2, Coe) + Epsilon3 * Power * gaussian2d(r1, r2, Radius3, Coe)) * (Hs*Hz)/(Hd*Hs*Hz);
return value;
}
double thermo::power_density(double r1, double r2){
//パワー密度
double value;
value = power_profile(r1,r2) / ((Hs*Hz)/(Hd*Hs*Hz));
return value;
}
void thermo::trace(){
//
for(int t=0; t<t_pnts; t++){
temperature[t] = device_memory_1D[t*Nd];
temperature_back[t] = device_memory_1D[t*Nd+Nd-1];
opt_thickness[t] = calc_thickness(t);
if (CalcRef){
reflectivity[t] = calc_reflectivity(&reflectivity_comp[t],t);
}
}
}
double thermo::gaussian2d(double r1, double r2, double sigma, double coe){
//2次元ガウシアン分布の計算
double value, pi;
pi = 2.0 * asin(1.0);
value = (1/(2*pi*sigma*coe*sigma))*exp(-((r2*r2)/(2*sigma*sigma))-((r1*r1) / (2*(coe*sigma)*(coe*sigma))));
//value = exp(-(r*r)/(2*sigma*sigma)) / (2*pi*sigma*sigma);
return value;
}
double thermo::calc_thickness(int t){
//光学膜厚の計算
double value;
value = 0;
for (int d=0; d<Nd; d++){
value += Hd * real(refractive_index(device_memory_1D[t*Nd+d])) * thickness_expansion(device_memory_1D[t*Nd+d]);
}
value *= 1e-3; //mmからmへの単位変換
return value;
}
complex<double> thermo::single_ref(complex<double> nBack, complex<double> nFwd, double thickness, complex<double> rhoFwd){
//単層の振幅反射率計算
complex<double> I = complex<double>(0.0, 1.0);
double pi;
pi = 2.0 * asin(1.0);
complex<double> rhoBack;
complex<double> fresnelR, delta;
fresnelR = (nBack - nFwd) / (nBack + nFwd);
delta = (2 * pi / WaveLength) * nFwd * thickness;
rhoBack = fresnelR + rhoFwd * exp(-2.0 * delta * I);
rhoBack = rhoBack / (1.0 + fresnelR * rhoFwd * exp(-2.0 * delta * I));
// rhoBack /= 1.0 + fresnelR * rhoFwd * exp(-2 * delta * I);
return rhoBack;
}
double thermo::calc_reflectivity(complex<double> *reflectivity_comp, int t){
//反射率の計算
int i,j;
complex<double> rho;
complex<double> indexB, indexF;
double thickness;
double value;
double Ref = 0;
complex<double> ref_comp = 0;
//基板表面-空気
indexB = refractive_index(device_memory_1D[t*Nd]);
indexF = 1;
rho = (indexB - indexF) / (indexB + indexF);
//基板内部
for (i=1; i<=Nd-1; i++){
indexB = refractive_index(device_memory_1D[t*Nd+i]);
indexF = refractive_index(device_memory_1D[t*Nd+i-1]);
thickness = Hd * 1e6 * thickness_expansion(device_memory_1D[t*Nd+i-1]);
rho = single_ref(indexB, indexF, thickness, rho);
}
//空気-基板裏面
indexB = 1;
indexF = refractive_index(device_memory_1D[t*Nd+Nd-1]);
thickness = Hd * 1e6 * thickness_expansion(device_memory_1D[t*Nd+Nd-1]);
rho = single_ref(indexB, indexF, thickness, rho);
value = norm(rho) * 100;
Ref += value;
ref_comp += rho;
*reflectivity_comp=ref_comp;
return Ref;
}
double thermo::calc_reflectivity_2D(complex<double> *reflectivity_comp, int t, int s, int z){
//反射率の計算
int i,j;
complex<double> rho;
complex<double> indexB, indexF;
double thickness;
double value;
double Ref = 0;
complex<double> ref_comp = 0;
//基板表面-空気
indexB = refractive_index(device_memory_4D[Nd*Ns*Nz*t+Nz*s+z]);
indexF = 1;
rho = (indexB - indexF) / (indexB + indexF);
//基板内部
for (i=1; i<=Nd-1; i++){
indexB = refractive_index(device_memory_4D[Nd*Ns*Nz*t+Ns*Nz*i+Nz*s+z]);
indexF = refractive_index(device_memory_4D[Nd*Ns*Nz*t+Ns*Nz*(i-1)+Nz*s+z]);
thickness = Hd * 1e6 * thickness_expansion(device_memory_4D[Nd*Ns*Nz*t+Ns*Nz*(i-1)+Nz*s+z]);
rho = single_ref(indexB, indexF, thickness, rho);
}
//空気-基板裏面
indexB = 1;
indexF = refractive_index(device_memory_4D[Nd*Ns*Nz*t+Ns*Nz*(Nd-1)+Nz*s+z]);
thickness = Hd * 1e6 * thickness_expansion(device_memory_4D[Nd*Ns*Nz*t+Ns*Nz*(Nd-1)+Nz*s+z]);
rho = single_ref(indexB, indexF, thickness, rho);
value = norm(rho) * 100;
Ref += value;
ref_comp += rho;
*reflectivity_comp=ref_comp;
return Ref;
}
void thermo::HandleCompileError(void){
cl_int logStatus;
char *buildLog = NULL;
size_t buildLogSize = 0;
//in this tutorial i only have one device
logStatus = clGetProgramBuildInfo( program, deviceToUse, CL_PROGRAM_BUILD_LOG, buildLogSize, buildLog, &buildLogSize);
if(logStatus != CL_SUCCESS)
{
printf("logging error\n");
exit(EXIT_FAILURE);
}
buildLog = (char *)malloc(buildLogSize);
if(buildLog == NULL)
{
printf("ERROR TO ALLOCATE MEM FOR BUILDLOG\n");
exit(EXIT_FAILURE);
}
memset(buildLog, 0, buildLogSize);
logStatus = clGetProgramBuildInfo (program, deviceToUse, CL_PROGRAM_BUILD_LOG, buildLogSize, buildLog, NULL);
if(logStatus != CL_SUCCESS)
{
free(buildLog);
cleanup();
exit(1);
}
printf("\nBUILD LOG\n");
printf("************************************************************************\n");
printf("%s END \n", buildLog);
printf("************************************************************************\n");
free(buildLog);
cleanup();
exit(1);
}
void thermo::testStatus(int status, string errorMsg){
if(status != SUCCESS)
{
if(errorMsg.empty())
{
printf("Error\n");
}
else
{
cout << "Error : " << errorMsg << " : Status : " << status << endl;
}
exit(EXIT_FAILURE);
}
}
void thermo::initializeCL(){
platformToUse = NULL;
device_ids = NULL;
deviceToUse = NULL;
deviceTypeToUse = CL_DEVICE_TYPE_GPU;
num_devices;
num_platforms;
ret = clGetPlatformIDs(0, NULL, &num_platforms);
testStatus(ret, "clGetPlatformIDs error 1");
platform_ids = new cl_platform_id[num_platforms];
if(platform_ids == NULL){
cout << "Error when allocating space for the platforms" <<endl;
exit(EXIT_FAILURE);
}
ret = clGetPlatformIDs(num_platforms, platform_ids, NULL);
testStatus(ret, "clGetPlatformIDs error 2");
string message,comp;
if(Selected_Vendor == 0){
message = "Intel OpenCL platform is found.";
comp = "Intel(R) Corporation";
}else if(Selected_Vendor == 1){
message = "AMD OpenCL platform is found.";
comp = "Advanced";
}else if(Selected_Vendor == 2){
message = "NVIDIA OpenCL platform is found.";
comp = "NVIDIA";
}else{
cout << "Error : Please define Selected_Vendor in the parameter file.\n" << endl;
cout << "Intel : 0, AMD : 1, NVIDIA : 2\n" << endl;
exit(EXIT_FAILURE);
}
for(unsigned int i=0;i<num_platforms;i++){
char pbuf[100];
ret = clGetPlatformInfo(platform_ids[i], CL_PLATFORM_VENDOR, sizeof(pbuf), pbuf, NULL);
testStatus(ret, "clGetPlatformInfo error 3");
if(!strncmp(pbuf, comp.c_str(), 5)){
cout << message << endl;
platformToUse = platform_ids[i];
break;
}
}
if(platformToUse == NULL){
cout << "Error : Selected OpenCL vendor is not found.\n" << endl;
exit(EXIT_FAILURE);
}
//deviceTypeToUseにマッチするデバイス数をnum_devicesへ代入
ret = clGetDeviceIDs(platformToUse, deviceTypeToUse, 0, device_ids, &num_devices);
testStatus(ret, "clGetDeviceIDs error 1");
device_ids = new cl_device_id[num_devices];
if(device_ids == NULL){
cout << "Error when allocating space for the devices" <<endl;
exit(EXIT_FAILURE);
}
//device_idsへデバイス入れる
ret = clGetDeviceIDs(platformToUse, deviceTypeToUse, num_devices, device_ids, NULL);