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logging_point.cpp
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#include "common.h"
#include "const.h"
//void Logging_point( void ) ;
void Get_Ue_Distribution( void ) ;
void Get_PathLoss( void ) ;
void Get_DelaySpread( void ) ;
void Get_AngleSpread( void ) ;
void Get_ChannelCoeff( void ) ;
void Get_PDF( void ) ;
void PDF_path_loss( void ) ;
void PDF_block_SS_1( void ) ;
void PDF_block_SS_2( void ) ;
void PDF_block_SS_3( void ) ;
void PDF_block_SS_4( void ) ;
void PDF_block_SS_5( void ) ;
void PDF_block_SS_6( void ) ;
void PDF_block_SS_7( void ) ;
//void Size_Logging_point_Parameters( void ) ;
/*===================================================================
FUNCTION: Logging_point()
AUTHOR: Kim, Kyung-Won
DESCRIPTION: ITU Channel Model Simulator
NOTES: ...
===================================================================*/
void Logging_Point()
{
if ( ue_distribution == 1 && t == 0 )
{
Get_Ue_Distribution();
}
if ( PathLoss == 1 && t == 0 )
{
Get_PathLoss() ;
}
if( DelaySpread == 1 && t == 0 )
{
Get_DelaySpread() ;
}
if( AngleSpread == 1 && t == 0 )
{
Get_AngleSpread() ;
}
if( ChannelCoef == 1 && sample_ue > 0 && sample_ue-1 < num_ues )
{
Get_ChannelCoeff() ;
}
if( PDF == 1 && t == run_times-1 )
{
Get_PDF() ;
}
}
/*===================================================================
FUNCTION: Get_Ue_Distribution()
AUTHOR: Kim, Kyung-Won
DESCRIPTION: Initialize a Drop
NOTES:
===================================================================*/
void Get_Ue_Distribution()
{
ofstream Cell_location;
ofstream UE_location;
if( drop_idx == 0 )
{
Cell_location.open( "./Output/Cell_location.dat" ,ios::out);
UE_location.open( "./Output/UE_location.dat" ,ios::out);
}
else
{
Cell_location.open( "./Output/Cell_location.dat" ,ios::app);
UE_location.open( "./Output/UE_location.dat" ,ios::app);
}
Cell_location << "# UE Distribution of " << drop_idx + 1 << " drop " << endl;
Cell_location << "# The number of ue is " << num_ues << endl << endl;
UE_location << "# UE Distribution of " << drop_idx + 1<< " drop " << endl;
UE_location << "# The number of ue is " << num_ues << endl << endl;
LOCATION * ue_location;
ue_location = new LOCATION[num_ues];
if( scenario == INDOOR_HOTSPOT )
{
Cell_location << -30. << "\t" << 0 << endl;
Cell_location << 30. << "\t" << 0 << endl;
Cell_location << endl << endl << endl;
for (int ue_idx = 0 ; ue_idx < num_ues ; ue_idx++ )
{
ue_location[ue_idx].x = ue[ue_idx].coordinate.x;
ue_location[ue_idx].y = ue[ue_idx].coordinate.y;
}
}
else
{
double d;
if ( scenario == 1 )
d = 500. ;
else if ( scenario == 2 )
d = 200. ;
else if ( scenario == 3 )
d = 1732. ;
else if ( scenario == 4 )
d = 1299. ;
LOCATION cell_location[19];
cell_location[16].x = (3./2.)*d;
cell_location[16].y = d/sqrt((double)3);
cell_location[17].x = (5./2.)*d;
cell_location[17].y = d/sqrt((double)3);
cell_location[18].x = (7./2.)*d;
cell_location[18].y = d/sqrt((double)3);
cell_location[15].x = d;
cell_location[15].y = d/sqrt((double)3) + (sqrt((double)3)/2.)*d;
cell_location[ 5].x = 2*d;
cell_location[ 5].y = d/sqrt((double)3) + (sqrt((double)3)/2.)*d;
cell_location[ 6].x = 3*d;
cell_location[ 6].y = d/sqrt((double)3) + (sqrt((double)3)/2.)*d;
cell_location[ 7].x = 4*d;
cell_location[ 7].y = d/sqrt((double)3) + (sqrt((double)3)/2.)*d;
cell_location[14].x = d/2.;
cell_location[14].y = d/sqrt((double)3) + sqrt((double)3)*d;
cell_location[ 4].x = (3./2.)*d;
cell_location[ 4].y = d/sqrt((double)3) + sqrt((double)3)*d;
cell_location[ 0].x = (5./2.)*d;
cell_location[ 0].y = d/sqrt((double)3) + sqrt((double)3)*d;
cell_location[ 1].x = (7./2.)*d;
cell_location[ 1].y = d/sqrt((double)3) + sqrt((double)3)*d;
cell_location[ 8].x = (9./2.)*d;
cell_location[ 8].y = d/sqrt((double)3) + sqrt((double)3)*d;
cell_location[13].x = d;
cell_location[13].y = d/sqrt((double)3) + (3*sqrt((double)3)/2.)*d;
cell_location[ 3].x = 2*d;
cell_location[ 3].y = d/sqrt((double)3) + (3*sqrt((double)3)/2.)*d;
cell_location[ 2].x = 3*d;
cell_location[ 2].y = d/sqrt((double)3) + (3*sqrt((double)3)/2.)*d;
cell_location[ 9].x = 4*d;
cell_location[ 9].y = d/sqrt((double)3) + (3*sqrt((double)3)/2.)*d;
cell_location[12].x = (3./2.)*d;
cell_location[12].y = d/sqrt((double)3) + (4*sqrt((double)3)/2.)*d;
cell_location[11].x = (5./2.)*d;
cell_location[11].y = d/sqrt((double)3) + (4*sqrt((double)3)/2.)*d;
cell_location[10].x = (7./2.)*d;
cell_location[10].y = d/sqrt((double)3) + (4*sqrt((double)3)/2.)*d;
for (int cell_idx = 0 ; cell_idx < 19 ; cell_idx++ )
{
Cell_location << cell_location[cell_idx].x << "\t" << cell_location[cell_idx].y << endl;
}
Cell_location << endl << endl << endl;
for (int ue_idx = 0 ; ue_idx < num_ues ; ue_idx++ )
{
int cell_num = (int)(ue[ue_idx].sector_in_control/3);
ue_location[ue_idx].x = cell_location[cell_num].x + ue[ue_idx].coordinate.x;
ue_location[ue_idx].y = cell_location[cell_num].y + ue[ue_idx].coordinate.y;
}
}
for (int ue_idx = 0 ; ue_idx < num_ues ; ue_idx++ )
{
UE_location << ue_location[ue_idx].x << "\t" << ue_location[ue_idx].y << "\t" << ue[ue_idx].static_gain[ue[ue_idx].sector_in_control] << endl;
}
UE_location << endl << endl << endl;
if( drop_idx == num_drops )
{
Cell_location.close();
UE_location.close();
}
}
/*===================================================================
FUNCTION: Get_PathLoss()
AUTHOR: Kim, Kyung-Won
DESCRIPTION: ITU Channel Model Simulator
NOTES: ...
===================================================================*/
void Get_PathLoss( void )
{
ofstream PL ;
if( drop_idx == 0 )
{
PL.open("./Output/PathLoss.dat",ios::out) ;
}
else
{
PL.open("./Output/PathLoss.dat",ios::app) ;
}
if( drop_idx == 0 )
{
PL << "# Output is ( distance[m], PathLoss[dB] )" << endl << endl << endl << endl ;
}
PL << "(drop = " << drop_idx << ")" << endl << endl ;
for(int ue_idx = 0; ue_idx < num_ues / 3; ue_idx++)
{
for(int cell_idx = 0; cell_idx < NUM_SECTORS / 3; cell_idx++)
{
PL << ue[ ue_idx ].Distance[ 3 * cell_idx ] << "\t" ;
PL << ue[ ue_idx ].PathLoss[ 3 * cell_idx ] << endl ;
}
}
PL << endl << endl ;
if( drop_idx == num_drops )
{
PL.close();
}
}
/*===================================================================
FUNCTION: Get_DelaySpread( void )
AUTHOR: Kim, Kyung-Won
DESCRIPTION: ITU Channel Model Simulator
NOTES: ...
===================================================================*/
void Get_DelaySpread( void )
{
ofstream DS ;
if( drop_idx == 0 )
{
DS.open("./Output/DelaySpread.dat",ios::out) ;
}
else
{
DS.open("./Output/DelaySpread.dat",ios::app) ;
}
DS << "# Output is ( time[second], power[dB] )" << endl
<< "# u is received antenna index." << endl
<< "# s is transmitt antenna index." << endl << endl << endl << endl;
for( int ue_idx = 0; ue_idx < num_ues; ue_idx++ )
{
for( int u = 0; u < num_received_antenna; u++ )
{
for( int s = 0; s < num_transmit_antenna; s++ )
{
DS << "(ue = " << ue_idx << ", drop = " << drop_idx << ", u = " << u << ", s = " << s << ")" << endl << endl ;
for(int cluster_idx = 0; cluster_idx < num_path[ue_idx][0]; cluster_idx++)
{
DS << delay[ ue_idx ][0][ cluster_idx ][ u ][ s ] << "\t" ;
DS << cluster_power[ ue_idx ][0][ cluster_idx ][ u ][ s ] << endl ;
}
DS << endl << endl ;
}
}
}
if( drop_idx == num_drops )
{
DS.close();
}
}
/*===================================================================
FUNCTION: Get_AngleSpread( void )
AUTHOR: Kim, Kyung-Won
DESCRIPTION: ITU Channel Model Simulator
NOTES: ...
===================================================================*/
void Get_AngleSpread( void )
{
ofstream AoA ;
ofstream AoD ;
if( drop_idx == 0 )
{
AoA.open("./Output/AoASpread.dat",ios::out) ;
}
else
{
AoA.open("./Output/AoASpread.dat",ios::app) ;
}
if( drop_idx == 0 )
{
AoD.open("./Output/AoDSpread.dat",ios::out) ;
}
else
{
AoD.open("./Output/AoDSpread.dat",ios::app) ;
}
if( drop_idx == 0 )
{
AoA << "# Output is ( angle[dgree], power[dB] )" << endl
<< "# u is received antenna index." << endl
<< "# s is transmitt antenna index." << endl << endl << endl << endl;
AoD << "# Output is ( angle[dgree], power[dB] )" << endl
<< "# u is received antenna index." << endl
<< "# s is transmitt antenna index." << endl << endl << endl << endl;
}
for( int ue_idx = 0; ue_idx < num_ues; ue_idx++ )
{
for( int u = 0; u < num_received_antenna; u++ )
{
for( int s = 0; s < num_transmit_antenna; s++ )
{
AoA << "(ue = " << ue_idx << ", drop = " << drop_idx << ", u = " << u << ", s = " << s << ")" << endl
<< "travel angle of is " << travel_angle[ue_idx] << endl<< endl ;
AoD << "(ue = " << ue_idx << ", drop = " << drop_idx << ", u = " << u << ", s = " << s << ")" << endl << endl ;
for(int cluster_idx = 0; cluster_idx < num_path[ue_idx][0]; cluster_idx++)
{
AoA << arrival_angle[ue_idx][0][cluster_idx][ u ][ s ] << "\t" ;
AoA << cluster_power[ue_idx][0][cluster_idx][ u ][ s ] << endl ;
AoD << depart_angle[ue_idx][0][cluster_idx][ u ][ s ] << "\t" ;
AoD << cluster_power[ue_idx][0][cluster_idx][ u ][ s ] << endl ;
}
AoA << endl << endl ;
AoD << endl << endl ;
}
}
}
if( drop_idx == num_drops )
{
AoA.close();
AoD.close();
}
}
/*===================================================================
FUNCTION: Get_ChannelCoeff( void )
AUTHOR: Kim, Kyung-Won
DESCRIPTION: ITU Channel Model Simulator
NOTES: ...
===================================================================*/
void Get_ChannelCoeff( void )
{
for(int path_idx = 0; path_idx < num_path[ sample_ue-1 ][0]; path_idx++)
{
for(int u = 0; u < num_received_antenna; u++)
{
for(int s = 0; s < num_transmit_antenna; s++)
{
Coef[ path_idx ][ u ][ s ][ t ] = Channel_coef[ sample_ue-1 ][0][ path_idx ][ u ][ s ] ;
}
}
}
if( t == run_times-1 )
{
ofstream Channel ;
if( drop_idx == 0 )
{
Channel.open("./Output/Channel_Coef.dat",ios::out) ;
}
else
{
Channel.open("./Output/Channel_Coef.dat",ios::app) ;
}
if( drop_idx == 0 )
{
Channel << "# Output is ( time[s], |Channel_Coef| )" << endl
<< "# Channel_Coef is normalized." << endl
<< "# path is multipath index." << endl
<< "# u is received antenna index." << endl
<< "# s is transmitt antenna index." << endl << endl << endl << endl;
}
for(int u = 0; u < num_received_antenna; u++)
{
for(int s = 0; s < num_transmit_antenna; s++)
{
for(int path_idx = 0; path_idx < num_path[ sample_ue-1 ][0]; path_idx++)
{
Channel << "(drop = " << drop_idx << ", path = " << path_idx << ", u = " << u << ", s = " << s << ")" ;
if( num_rays[sample_ue-1][0][path_idx][u][s] != 20 )
{
Channel << " # sub-cluster" ;
}
Channel << endl << endl ;
for(int t_idx = 0; t_idx < run_times; t_idx++)
{
Channel << 0.001*t_idx << "\t" << abs( Coef[ path_idx ][ u ][ s ][ t_idx ] ) << endl ;
}
Channel << endl << endl ;
}
}
}
if( drop_idx == num_drops )
{
Channel.close();
}
}
}
/*===================================================================
FUNCTION: Get_PDF( void )
AUTHOR: Kim, Kyung-Won
DESCRIPTION: ITU Channel Model Simulator
NOTES: ...
===================================================================*/
void Get_PDF()
{
for( int ue_idx = 0; ue_idx < num_ues; ue_idx++ )
{
num_full_path[drop_idx][ue_idx] = num_path[ue_idx][0]-4 ;
Block_PL[drop_idx][ue_idx] = ue[ ue_idx ].PathLoss[ (int)( ue[ue_idx].sector_in_control ) ] ;
}
if( drop_idx == num_drops-1 )
{
PDF_path_loss() ;
PDF_block_SS_1() ;
PDF_block_SS_2() ;
PDF_block_SS_3() ;
PDF_block_SS_4() ;
PDF_block_SS_5() ;
PDF_block_SS_6() ;
PDF_block_SS_7() ;
}
}
/*===================================================================
FUNCTION: PDF_path_loss( void )
AUTHOR: Kim, Kyung-Won
DESCRIPTION: ITU Channel Model Simulator
NOTES: ...
===================================================================*/
void PDF_path_loss()
{
double min_value = 0. ;
double max_value = 150. ;
double gab = ( max_value - min_value ) / 199. ;
ofstream PDF_PL ;
if ( scenario == INDOOR_HOTSPOT )
{
if ( los_type == NLOS )
{
PDF_PL.open("./Output/PDF_InH_NLOS_PL.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_PL.open("./Output/PDF_InH_LOS_PL.dat",ios::out) ;
}
else
{
PDF_PL.open("./Output/PDF_InH_PL.dat",ios::out) ;
}
}
else if ( scenario == URBAN_MACRO )
{
if ( los_type == NLOS )
{
PDF_PL.open("./Output/PDF_UMa_NLOS_PL.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_PL.open("./Output/PDF_UMa_LOS_PL.dat",ios::out) ;
}
else
{
PDF_PL.open("./Output/PDF_UMa_PL.dat",ios::out) ;
}
}
else if ( scenario == URBAN_MICRO )
{
if ( los_type == NLOS )
{
PDF_PL.open("./Output/PDF_UMi_NLOS_PL.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_PL.open("./Output/PDF_UMi_LOS_PL.dat",ios::out) ;
}
else
{
PDF_PL.open("./Output/PDF_UMi_PL.dat",ios::out) ;
}
}
else if ( scenario == RURAL_MACRO )
{
if ( los_type == NLOS )
{
PDF_PL.open("./Output/PDF_RMa_NLOS_PL.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_PL.open("./Output/PDF_RMa_LOS_PL.dat",ios::out) ;
}
else
{
PDF_PL.open("./Output/PDF_RMa_PL.dat",ios::out) ;
}
}
else if ( scenario == SUBURBAN_MACRO )
{
if ( los_type == NLOS )
{
PDF_PL.open("./Output/PDF_SMa_NLOS_PL.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_PL.open("./Output/PDF_SMa_LOS_PL.dat",ios::out) ;
}
else
{
PDF_PL.open("./Output/PDF_SMa_PL.dat",ios::out) ;
}
}
else
{
if ( los_type == NLOS )
{
PDF_PL.open("./Output/PDF_OtoI_NLOS_PL.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_PL.open("./Output/PDF_OtoI_LOS_PL.dat",ios::out) ;
}
else
{
PDF_PL.open("./Output/PDF_OtoI_PL.dat",ios::out) ;
}
}
double out_PL[200] ;
double PD_PL[200] ;
for(int PD_idx = 0; PD_idx < 200; PD_idx++)
{
out_PL[ PD_idx ] = 0 ;
PD_PL[ PD_idx ] = 0 ;
}
for(int PD_idx = 0; PD_idx < 200; PD_idx++)
{
for(int drop = 0; drop < num_drops; drop++)
{
for(int ue_idx = 0; ue_idx < num_ues; ue_idx++)
{
out_PL[ PD_idx ] = min_value + gab * PD_idx ;
if( Block_PL[drop][ue_idx] >= out_PL[ PD_idx ]
&& Block_PL[drop][ue_idx] < out_PL[ PD_idx ] + gab )
{
PD_PL[ PD_idx ] = PD_PL[ PD_idx ] + 1. / (double)( num_drops * num_ues * gab ) ;
}
}
}
PDF_PL << out_PL[ PD_idx ] << "\t" ;
PDF_PL << PD_PL[ PD_idx ] << endl ;
}
PDF_PL.close();
}
/*===================================================================
FUNCTION: PDF_block_SS_1( void )
AUTHOR: Kim, Kyung-Won
DESCRIPTION: ITU Channel Model Simulator
NOTES: ...
===================================================================*/
void PDF_block_SS_1()
{
double min_value = 0. ;
double max_value = pow(0.1, 6) ;
double gab = ( max_value - min_value ) / 199. ;
ofstream PDF_SS_1 ;
if ( scenario == INDOOR_HOTSPOT )
{
if ( los_type == NLOS )
{
PDF_SS_1.open("./Output/PDF_InH_NLOS_SS_1.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_1.open("./Output/PDF_InH_LOS_SS_1.dat",ios::out) ;
}
else
{
PDF_SS_1.open("./Output/PDF_InH_SS_1.dat",ios::out) ;
}
}
else if ( scenario == URBAN_MACRO )
{
if ( los_type == NLOS )
{
PDF_SS_1.open("./Output/PDF_UMa_NLOS_SS_1.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_1.open("./Output/PDF_UMa_LOS_SS_1.dat",ios::out) ;
}
else
{
PDF_SS_1.open("./Output/PDF_UMa_SS_1.dat",ios::out) ;
}
}
else if ( scenario == URBAN_MICRO )
{
if ( los_type == NLOS )
{
PDF_SS_1.open("./Output/PDF_UMi_NLOS_SS_1.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_1.open("./Output/PDF_UMi_LOS_SS_1.dat",ios::out) ;
}
else
{
PDF_SS_1.open("./Output/PDF_UMi_SS_1.dat",ios::out) ;
}
}
else if ( scenario == RURAL_MACRO )
{
if ( los_type == NLOS )
{
PDF_SS_1.open("./Output/PDF_RMa_NLOS_SS_1.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_1.open("./Output/PDF_RMa_LOS_SS_1.dat",ios::out) ;
}
else
{
PDF_SS_1.open("./Output/PDF_RMa_SS_1.dat",ios::out) ;
}
}
else if ( scenario == SUBURBAN_MACRO )
{
if ( los_type == NLOS )
{
PDF_SS_1.open("./Output/PDF_SMa_NLOS_SS_1.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_1.open("./Output/PDF_SMa_LOS_SS_1.dat",ios::out) ;
}
else
{
PDF_SS_1.open("./Output/PDF_SMa_SS_1.dat",ios::out) ;
}
}
else
{
if ( los_type == NLOS )
{
PDF_SS_1.open("./Output/PDF_OtoI_NLOS_SS_1.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_1.open("./Output/PDF_OtoI_LOS_SS_1.dat",ios::out) ;
}
else
{
PDF_SS_1.open("./Output/PDF_OtoI_SS_1.dat",ios::out) ;
}
}
// PDF_SS_1 << "# Output is ( output of Block_SS_1, probability density )" << endl << endl << endl << endl;
double out_SS_1[200] ;
double PD_SS_1[200] ;
for(int PD_idx = 0; PD_idx < 200; PD_idx++)
{
out_SS_1[ PD_idx ] = 0 ;
PD_SS_1[ PD_idx ] = 0 ;
}
for(int PD_idx = 0; PD_idx < 200; PD_idx++)
{
for(int drop = 0; drop < num_drops; drop++)
{
for(int ue_idx = 0; ue_idx < num_ues; ue_idx++)
{
for(int path_idx = 0; path_idx < num_full_path[drop][ue_idx]; path_idx++)
{
for(int u = 0; u < num_received_antenna; u++)
{
for(int s = 0; s < num_transmit_antenna; s++)
{
out_SS_1[ PD_idx ] = min_value + gab * PD_idx ;
if( Block_SS_1[ drop ][ ue_idx ][ path_idx ][u][s] >= out_SS_1[ PD_idx ] && Block_SS_1[ drop ][ ue_idx ][ path_idx ][u][s] < out_SS_1[ PD_idx ] + gab )
{
PD_SS_1[ PD_idx ] = PD_SS_1[ PD_idx ] + 1. / (double)( num_drops * num_ues * num_full_path[drop][ue_idx] * num_received_antenna * num_transmit_antenna * gab ) ;
}
}
}
}
}
}
PDF_SS_1 << out_SS_1[ PD_idx ] << "\t" ;
PDF_SS_1 << PD_SS_1[ PD_idx ] << endl ;
}
PDF_SS_1.close();
}
/*===================================================================
FUNCTION: PDF_block_SS_2( void )
AUTHOR: Kim, Kyung-Won
DESCRIPTION: ITU Channel Model Simulator
NOTES: ...
===================================================================*/
void PDF_block_SS_2()
{
double min_value = 0. ;
double max_value = pow(0.1, 6) ;
double gab = ( max_value - min_value ) / 199. ;
ofstream PDF_SS_2 ;
if ( scenario == INDOOR_HOTSPOT )
{
if ( los_type == NLOS )
{
PDF_SS_2.open("./Output/PDF_InH_NLOS_SS_2.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_2.open("./Output/PDF_InH_LOS_SS_2.dat",ios::out) ;
}
else
{
PDF_SS_2.open("./Output/PDF_InH_SS_2.dat",ios::out) ;
}
}
else if ( scenario == URBAN_MACRO )
{
if ( los_type == NLOS )
{
PDF_SS_2.open("./Output/PDF_UMa_NLOS_SS_2.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_2.open("./Output/PDF_UMa_LOS_SS_2.dat",ios::out) ;
}
else
{
PDF_SS_2.open("./Output/PDF_UMa_SS_2.dat",ios::out) ;
}
}
else if ( scenario == URBAN_MICRO )
{
if ( los_type == NLOS )
{
PDF_SS_2.open("./Output/PDF_UMi_NLOS_SS_2.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_2.open("./Output/PDF_UMi_LOS_SS_2.dat",ios::out) ;
}
else
{
PDF_SS_2.open("./Output/PDF_UMi_SS_2.dat",ios::out) ;
}
}
else if ( scenario == RURAL_MACRO )
{
if ( los_type == NLOS )
{
PDF_SS_2.open("./Output/PDF_RMa_NLOS_SS_2.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_2.open("./Output/PDF_RMa_LOS_SS_2.dat",ios::out) ;
}
else
{
PDF_SS_2.open("./Output/PDF_RMa_SS_2.dat",ios::out) ;
}
}
else if ( scenario == SUBURBAN_MACRO )
{
if ( los_type == NLOS )
{
PDF_SS_2.open("./Output/PDF_SMa_NLOS_SS_2.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_2.open("./Output/PDF_SMa_LOS_SS_2.dat",ios::out) ;
}
else
{
PDF_SS_2.open("./Output/PDF_SMa_SS_2.dat",ios::out) ;
}
}
else
{
if ( los_type == NLOS )
{
PDF_SS_2.open("./Output/PDF_OtoI_NLOS_SS_2.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_2.open("./Output/PDF_OtoI_LOS_SS_2.dat",ios::out) ;
}
else
{
PDF_SS_2.open("./Output/PDF_OtoI_SS_2.dat",ios::out) ;
}
}
// PDF_SS_2 << "# Output is ( output of Block_SS_2, probability density )" << endl << endl << endl << endl;
double out_SS_2[200] ;
double PD_SS_2[200] ;
for(int PD_idx = 0; PD_idx < 200; PD_idx++)
{
out_SS_2[ PD_idx ] = 0 ;
PD_SS_2[ PD_idx ] = 0 ;
}
for(int PD_idx = 0; PD_idx < 200; PD_idx++)
{
for(int drop = 0; drop < num_drops; drop++)
{
for(int ue_idx = 0; ue_idx < num_ues; ue_idx++)
{
for(int path_idx = 0; path_idx < num_full_path[drop][ue_idx]; path_idx++)
{
for(int u = 0; u < num_received_antenna; u++)
{
for(int s = 0; s < num_transmit_antenna; s++)
{
out_SS_2[ PD_idx ] = min_value + gab * PD_idx ;
if( Block_SS_2[ drop ][ ue_idx ][ path_idx ][u][s] >= out_SS_2[ PD_idx ] && Block_SS_2[ drop ][ ue_idx ][ path_idx ][u][s] < out_SS_2[ PD_idx ] + gab )
{
PD_SS_2[ PD_idx ] = PD_SS_2[ PD_idx ] + 1. / (double)( num_drops * num_ues * num_full_path[drop][ue_idx] * num_received_antenna * num_transmit_antenna * gab ) ;
}
}
}
}
}
}
PDF_SS_2 << out_SS_2[ PD_idx ] << "\t" ;
PDF_SS_2 << PD_SS_2[ PD_idx ] << endl ;
}
PDF_SS_2.close();
}
/*===================================================================
FUNCTION: PDF_block_SS_3( void )
AUTHOR: Kim, Kyung-Won
DESCRIPTION: ITU Channel Model Simulator
NOTES: ...
===================================================================*/
void PDF_block_SS_3()
{
double min_value = 0. ;
double max_value = 1. ;
double gab = ( max_value - min_value ) / 199. ;
ofstream PDF_SS_3 ;
if ( scenario == INDOOR_HOTSPOT )
{
if ( los_type == NLOS )
{
PDF_SS_3.open("./Output/PDF_InH_NLOS_SS_3.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_3.open("./Output/PDF_InH_LOS_SS_3.dat",ios::out) ;
}
else
{
PDF_SS_3.open("./Output/PDF_InH_SS_3.dat",ios::out) ;
}
}
else if ( scenario == URBAN_MACRO )
{
if ( los_type == NLOS )
{
PDF_SS_3.open("./Output/PDF_UMa_NLOS_SS_3.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_3.open("./Output/PDF_UMa_LOS_SS_3.dat",ios::out) ;
}
else
{
PDF_SS_3.open("./Output/PDF_UMa_SS_3.dat",ios::out) ;
}
}
else if ( scenario == URBAN_MICRO )
{
if ( los_type == NLOS )
{
PDF_SS_3.open("./Output/PDF_UMi_NLOS_SS_3.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_3.open("./Output/PDF_UMi_LOS_SS_3.dat",ios::out) ;
}
else
{
PDF_SS_3.open("./Output/PDF_UMi_SS_3.dat",ios::out) ;
}
}
else if ( scenario == RURAL_MACRO )
{
if ( los_type == NLOS )
{
PDF_SS_3.open("./Output/PDF_RMa_NLOS_SS_3.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_3.open("./Output/PDF_RMa_LOS_SS_3.dat",ios::out) ;
}
else
{
PDF_SS_3.open("./Output/PDF_RMa_SS_3.dat",ios::out) ;
}
}
else if ( scenario == SUBURBAN_MACRO )
{
if ( los_type == NLOS )
{
PDF_SS_3.open("./Output/PDF_SMa_NLOS_SS_3.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_3.open("./Output/PDF_SMa_LOS_SS_3.dat",ios::out) ;
}
else
{
PDF_SS_3.open("./Output/PDF_SMa_SS_3.dat",ios::out) ;
}
}
else
{
if ( los_type == NLOS )
{
PDF_SS_3.open("./Output/PDF_OtoI_NLOS_SS_3.dat",ios::out) ;
}
else if ( los_type == LOS )
{
PDF_SS_3.open("./Output/PDF_OtoI_LOS_SS_3.dat",ios::out) ;
}