MapCombineABCD.m

% Main Script to execute the Antenna Simulation 

% Eric Pate

%clear everything
clc
clear all
close all
com.mathworks.mlservices.MatlabDesktopServices.getDesktop.closeGroup('Web Browser')
load('Cell_Info.mat');
load('mapCampusLoss.mat');

% Antenna Type
% An1=dipole('Length',1.829,'Width',0.305);       % THIS IS PLACEHOLDER DATA, need: full antenna toolbox type and specifications

%
An1=dipole('Length',0.4,'Width',0.001,'Tilt',0);    % mean of +10.00 dB, std dev of 11.58 dB
An2=dipole('Length',2,'Width',0.043,'Tilt',0);      % mean of -0.07 dB, std dev of 10.24 dB
An3=dipole('Length',1.2,'Width',0.080,'Tilt',0);    % mean of +13.97 dB, std dev of 11.21 dB
An4=dipole('Length',0.3,'Width',0.001999,'Tilt',0); % mean of +14.00 dB, std dev of 10.97 dB
%

%  BEST Mean Antennas
%{
An1=dipole('Length',2,'Width',0.014,'Tilt',0);      % mean of -0.03 dB, std dev of 14.35 dB
An2=dipole('Length',2,'Width',0.043,'Tilt',0);      % mean of -0.07 dB, std dev of 10.24 dB
An3=dipole('Length',2,'Width',0.040,'Tilt',0);
An4=dipole('Length',2,'Width',0.001999,'Tilt',0);   % mean of +0.39 dB, std dev of 12.32 dB
%}
%

%  BEST RPS Antennas 11.6
%{
An1=dipole('Length',0.4,'Width',0.001,'Tilt',0);    % mean of +10.00 dB, std dev of 11.58 dB
An2=dipole('Length',2,'Width',0.043,'Tilt',0);      % mean of -0.07 dB, std dev of 10.24 dB
An3=dipole('Length',1.2,'Width',0.080,'Tilt',0);    % mean of +13.97 dB, std dev of 11.21 dB
An4=dipole('Length',0.3,'Width',0.001999,'Tilt',0); % mean of +14.00 dB, std dev of 10.97 dB
%}
%

% Target Power Maps
PMap1=Cell_Info_A.ReceivedPowerMap;
PMap2=Cell_Info_B.ReceivedPowerMap;
PMap3=Cell_Info_C.ReceivedPowerMap;
PMap4=Cell_Info_D.ReceivedPowerMap;

%%% Import and shift the Loss Maps
LossPrim=final_4; % The initial 
LossPrimA=LossPrim; % Does not need shift
LossPrimB=imageShifter(LossPrim,32,25); %X & Y are reversed
LossPrimC=imageShifter(LossPrim,25,-26);
LossPrimD=LossPrim; % Does not need shift

% debug Output Boundary Coords A/B/C/D
%Cell_Info_A.Lon_UL Cell_Info_A.Lat_UL Cell_Info_A.Lon_LR Cell_Info_A.Lat_LR

%%% Precision
Prec=0.01; %KM

%%%%% Target Antenna Coords:
Alat=33.777420000000000; Alon=-84.397360000000000;
AnegX=-pos2dist(Alat,Alon,Cell_Info_A.Lat_LR,Alon,1);
AposX=pos2dist(Alat,Alon,Cell_Info_A.Lat_UL,Alon,1);
AnegY=-pos2dist(Alat,Alon,Alat,Cell_Info_A.Lon_LR,1);
AposY=pos2dist(Alat,Alon,Alat,Cell_Info_A.Lon_UL,1);

Blat=33.774590000000000; Blon=-84.400190000000000;
BnegX=-pos2dist(Blat,Blon,Cell_Info_B.Lat_LR,Blon,1);
BposX=pos2dist(Blat,Blon,Cell_Info_B.Lat_UL,Blon,1);
BnegY=-pos2dist(Blat,Blon,Blat,Cell_Info_B.Lon_LR,1);
BposY=pos2dist(Blat,Blon,Blat,Cell_Info_B.Lon_UL,1);

Clat=33.775140000000000; Clon=-84.394640000000000;
CnegX=-pos2dist(Clat,Clon,Cell_Info_C.Lat_LR,Clon,1);
CposX=pos2dist(Clat,Clon,Cell_Info_C.Lat_UL,Clon,1);
CnegY=-pos2dist(Clat,Clon,Clat,Cell_Info_C.Lon_LR,1);
CposY=pos2dist(Clat,Clon,Clat,Cell_Info_C.Lon_UL,1);

Dlat=33.777420000000000; Dlon=-84.397360000000000;
DnegX=-pos2dist(Dlat,Dlon,Cell_Info_D.Lat_LR,Dlon,1);
DposX=pos2dist(Dlat,Dlon,Cell_Info_D.Lat_UL,Dlon,1);
DnegY=-pos2dist(Dlat,Dlon,Dlat,Cell_Info_D.Lon_LR,1);
DposY=pos2dist(Dlat,Dlon,Dlat,Cell_Info_D.Lon_UL,1);

% Freq
fr=0.85e9; %all are 850mhz

% AntennaModelingCore(freq,antenna,xRange,yRange,latCenter,lonCenter,Plot#);
figure
[X1,Y1,Emag1,Dvec1]=AntennaModelingCore(fr,An1,(AnegX:Prec:AposX),(AnegY:Prec:AposY),Alat,Alon,1);
[X2,Y2,Emag2,Dvec2]=AntennaModelingCore(fr,An2,(BnegX:Prec:BposX),(BnegY:Prec:BposY),Blat,Blon,2);
[X3,Y3,Emag3,Dvec3]=AntennaModelingCore(fr,An3,(CnegX:Prec:CposX),(CnegY:Prec:CposY),Clat,Clon,3);
[X4,Y4,Emag4,Dvec4]=AntennaModelingCore(fr,An4,(DnegX:Prec:DposX),(DnegY:Prec:DposY),Dlat,Dlon,4);

%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% FIXER values for
%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% emag _> cutout
% dirty hack to solve slight inaccuracy between geomap map and flap,
% suspect curvature of earth was the cause. issue is ON THE EDGE and NOT in
% the final cull area so safe to pad with -95dB
% Pad
Pad=zeros(1,208);
Pad(Pad==0)=-95; 
Emag1=vertcat(Emag1,Pad,Pad,Pad,Pad,Pad,Pad);
Emag2=vertcat(Emag2,Pad,Pad,Pad,Pad,Pad,Pad);
Emag3=vertcat(Emag3,Pad,Pad,Pad,Pad,Pad,Pad);
Emag4=vertcat(Emag4,Pad,Pad,Pad,Pad,Pad,Pad);

% Trim
Emag1=Emag1(:,1:203);
Emag2=Emag2(:,1:203);
Emag3=Emag3(:,1:203);
Emag4=Emag4(:,1:203);
%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%

% Convert Loss map to LossDBmap
ALossDB=Loss2DB(LossPrimA);
BLossDB=Loss2DB(LossPrimB);
CLossDB=Loss2DB(LossPrimC);
DLossDB=Loss2DB(LossPrimD);

% Reduce Emag's according to weighted and shifted lossmap. 
EmagL1=Emag1+ALossDB;
EmagL2=Emag2+BLossDB;
EmagL3=Emag3+CLossDB;
EmagL4=Emag4+DLossDB;

% STREET Knockout Culling
KnockA=KnockOut(PMap1);
KnockB=KnockOut(PMap2);
KnockC=KnockOut(PMap3);
KnockD=KnockOut(PMap4);

% Cull Emag Maps to Campus Street Data
Final1=KnockA.*EmagL1;
Final2=KnockB.*EmagL2;
Final3=KnockC.*EmagL3;
Final4=KnockD.*EmagL4;

% Loss Map Render %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
figure
subplot(2,2,1)
imagesc(LossPrimA); % Plots a 2D image from a matrix
axis equal; % sets aspect ratio equal
axis xy; % vertical flip so (1,1) is at lower-left
colorbar; % puts a colorbar legend on right of graph
title('LossMap 1')


subplot(2,2,2)
imagesc(LossPrimB); % Plots a 2D image from a matrix
axis equal; % sets aspect ratio equal
axis xy; % vertical flip so (1,1) is at lower-left
colorbar; % puts a colorbar legend on right of graph
title('LossMap 2')

subplot(2,2,3)
imagesc(LossPrimC); % Plots a 2D image from a matrix
axis equal; % sets aspect ratio equal
axis xy; % vertical flip so (1,1) is at lower-left
colorbar; % puts a colorbar legend on right of graph
title('LossMap 3')

subplot(2,2,4)
imagesc(LossPrimD); % Plots a 2D image from a matrix
axis equal; % sets aspect ratio equal
axis xy; % vertical flip so (1,1) is at lower-left
colorbar; % puts a colorbar legend on right of graph
title('LossMap 4')

% Emag + Campus Render %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
figure
subplot(2,2,1)
imagesc(EmagL1); % Plots a 2D image from a matrix
axis equal; % sets aspect ratio equal
axis xy; % vertical flip so (1,1) is at lower-left
colorbar; % puts a colorbar legend on right of graph
title('Emag Campus 1')

subplot(2,2,2)
imagesc(EmagL2); % Plots a 2D image from a matrix
axis equal; % sets aspect ratio equal
axis xy; % vertical flip so (1,1) is at lower-left
colorbar; % puts a colorbar legend on right of graph
title('Emag Campus 2')

subplot(2,2,3)
imagesc(EmagL3); % Plots a 2D image from a matrix
axis equal; % sets aspect ratio equal
axis xy; % vertical flip so (1,1) is at lower-left
colorbar; % puts a colorbar legend on right of graph
title('Emag Campus 3')

subplot(2,2,4)
imagesc(EmagL4); % Plots a 2D image from a matrix
axis equal; % sets aspect ratio equal
axis xy; % vertical flip so (1,1) is at lower-left
colorbar; % puts a colorbar legend on right of graph
title('Emag Campus 4')

% Final Render %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
figure
subplot(2,2,1)
imagesc(Final1); % Plots a 2D image from a matrix
axis equal; % sets aspect ratio equal
axis xy; % vertical flip so (1,1) is at lower-left
colorbar; % puts a colorbar legend on right of graph
title('Campus 1')

subplot(2,2,2)
imagesc(Final2); % Plots a 2D image from a matrix
axis equal; % sets aspect ratio equal
axis xy; % vertical flip so (1,1) is at lower-left
colorbar; % puts a colorbar legend on right of graph
title('Campus 2')

subplot(2,2,3)
imagesc(Final3); % Plots a 2D image from a matrix
axis equal; % sets aspect ratio equal
axis xy; % vertical flip so (1,1) is at lower-left
colorbar; % puts a colorbar legend on right of graph
title('Campus 3')

subplot(2,2,4)
imagesc(Final4); % Plots a 2D image from a matrix
axis equal; % sets aspect ratio equal
axis xy; % vertical flip so (1,1) is at lower-left
colorbar; % puts a colorbar legend on right of graph
title('Campus 4')   

%Save & Compare Values %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
% create the necessary structure and filenames to run the comparison 
Simulation_Info.Cell_Info_A.ReceivedPowerMap=Final1;
Simulation_Info.Cell_Info_B.ReceivedPowerMap=Final2;
Simulation_Info.Cell_Info_C.ReceivedPowerMap=Final3;
Simulation_Info.Cell_Info_D.ReceivedPowerMap=Final4;
save('Simulation_Info_ABCD.mat','-struct','Simulation_Info')


[mu1,sigma1] = CompareMaps('Cell_Info.mat','Simulation_Info_ABCD.mat');