MPI Simulations and stuff

This commit is contained in:
Silas Oettinghaus
2024-08-14 09:36:51 +02:00
parent 1eeb970d8f
commit 34f9149346
61 changed files with 4295 additions and 429 deletions

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clear
Ref = load("C:\Users\Silas\Documents\MATLAB\imdd_simulation\projects\MPI_Juni\EQ_optimization\ref_sig_with_mpi.mat",'Ref');
Rx_sig = load("C:\Users\Silas\Documents\MATLAB\imdd_simulation\projects\MPI_Juni\EQ_optimization\rx_sig_with_mpi.mat",'Rx_sig');
Bits = load("C:\Users\Silas\Documents\MATLAB\imdd_simulation\projects\MPI_Juni\EQ_optimization\ref_bits_prms.mat","Bits");
M = 4;
Ref = Ref.Ref;
Rx_sig = Rx_sig.Rx_sig;
Bits = Bits.Bits;
kover = 8;
fdac = 256e9;
fadc = 160e9;
Lp_phd = Filter('filtdegree',2,"f_cutoff",70e9,"fs",fdac*kover,"filterType",filtertypes.gaussian,"active",true);
Lp_scpe = Filter('filtdegree',4,"f_cutoff",63e9,"fs",fadc,"filterType",filtertypes.butterworth,"active",true);
Scp = Scope("fsimu",fdac*kover,"fadc",fadc,...
"delay",0,"fixed_delay",0,"filtertype",filtertypes.butterworth,...
"samplingdelay",0,"rand_samplingdelay",0,"freq_offset",0,"samp_jitter",0,...
"adcresolution",16,"quantbuffer",0.1,'block_dc',1,'lpf_active',1,'H_lpf',Lp_scpe);
fadc = Scp.fadc;
% SETUP TX Model
Pmap = PAMmapper(M,0);
% SETUP RX Model
Phd = Photodiode("fsimu",fdac*kover,"dark_current",2e-08,"responsivity",1,"temperature",20);
% Eq = EQ_silas_ofc("Ne",[50,2,2],"Nb",[2,0,0],"trainlength",4096,...
% "sps",2,...
% "mu_dc_dd",[0.5, 0.5, 0.5, 0.5],...
% "mu_dc_train",0.0,...
% "mu_ffe_train",0.00,...
% "mu_dfe_train",0.005,...
% "mu_ffe_dd",[0.0004 0.0004 0.0004],...
% "mu_dfe_dd",0.005,...
% "ddloops",3,...
% "trainloops",4,...
% "eq_parallelization_blocklength",0, ...
% "eq_updatelatency",1,...
% "eq_avg_blocklength",0);
if 0
Eq = EQ("Ne",[21,4,4],"Nb",[0,0,0],"training_length",4096,"training_loops",4,"dd_loops",4,"K",2,"DCmu",0,"DDmu",[0.0004 0.0005 0.0006 0.0003 ],"DFEmu",0.000,"FFEmu",0,"plotfinal",0,"ideal_dfe",0);
% % RX Model
Rx_bits = rx_model(Rx_sig,Ref,Phd,Lp_phd,Scp,Eq,Pmap);
% % BER
[~,errors_bm,ber,errors] = calc_ber(Rx_bits.signal,Bits.signal,"skip_front",100,"skip_end",150,"returnErrorLocation",1);
disp(['BER: ',sprintf('%.1E',ber),' - - ROP: ',num2str(Rx_sig.power),'dBm - - PAM-',num2str(M),' - - ']);
end
%%%%% Local Parameter %%%%%%%%
fsym = Ref.fs;
%%%%%% Square Law %%%%%%
Rx_sig = Phd.process(Rx_sig);
%%%%%% Lowpass PhDiode %%%%%%
Rx_sig = Lp_phd.process(Rx_sig);
% Rx_sig.spectrum("displayname","Received Signal after PhD","fignum",201);
%%%%%% Scope %%%%%%
Scpe_sig = Scp.process(Rx_sig);
% Scpe_sig.spectrum("displayname",'after scope','fignum',123);
%%%%%% Sample to 2x fsym %%%%%%
Scpe_sig = Scpe_sig.resample("fs_in",Scp.fadc,"fs_out",2*fsym);
% Scpe_sig.plot('fignum',12345,'displayname','bla')
%%%%%% Sync Rx signal with reference %%%%%%
[Scpe_sig,D,cuts] = Scpe_sig.tsynch("reference",Ref,"fs_ref",fsym);
Scpe_sig = Scpe_sig.normalize("mode","rms");
Eq = FFE("epochs_tr",5,"epochs_dd",5,"len_tr",4096*2,"mu_dd",1e-4,"mu_tr",0,"order",20,"sps",2,"decide",1);
% Eq = FFE_DFE("epochs_tr",5,"epochs_dd",5,"len_tr",4096*2,"ffe_mu_dd",1e-4,"dfe_mu_dd",5e-4,"ffe_mu_tr",0,"dfe_mu_tr",0,"ffe_order",21,"dfe_order",0,"sps",2,"decide",1);
% Eq = VNLE("epochs_tr",7,"epochs_dd",7,"len_tr",4096,"mu_dd",[0.0004 0.0005 0.0006],"mu_tr",0,"order",[21,5,5],"sps",2,"decide",1);
Eq_sig = Eq.process(Scpe_sig,Ref);
Rx_bits = Pmap.demap(Eq_sig);
% BER
[~,errors_bm,ber,errors] = calc_ber(Rx_bits.signal,Bits.signal,"skip_front",100,"skip_end",150,"returnErrorLocation",1);
disp(['BER: ',sprintf('%.1E',ber),' - - ROP: ',num2str(Rx_sig.power),'dBm - - PAM-',num2str(M),' - - ']);

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function ber_curve(wh,options)
arguments
wh
options.DisplayName = '';
end
M = wh.parameter.M.values(1);
datarate = wh.parameter.datarate.values;
sir = wh.parameter.sir.values(1);
laser_linewidth = wh.parameter.laser_linewidth.values(1);
pn_key = wh.parameter.pn_key.values(1);
vbias_rel = wh.parameter.vbias_rel.values(1);
rop = wh.parameter.rop.values;
clipfactor = wh.parameter.clipfactor.values;
rrcalpha = wh.parameter.rrcalpha.values(1);
cols = linspecer(numel(datarate));
cnt = 0;
for dr = datarate
cnt = cnt+1;
bers = wh.getStoValue('ber',M,dr,sir,laser_linewidth,pn_key,vbias_rel,rop,clipfactor, rrcalpha);
rops = wh.getStoValue('rop',M,dr,sir,laser_linewidth,pn_key,vbias_rel,rop,clipfactor, rrcalpha);
ers = unique(wh.getStoValue('er',M,dr,sir,laser_linewidth,pn_key,vbias_rel,rop,clipfactor, rrcalpha));
if 1 %isempty(options.DisplayName)
dn = ['M: ',num2str(M),'; Rate: ',num2str(dr),'; Vbias rel: ',num2str(vbias_rel), '; ER: ', num2str(ers)];
else
dn = options.DisplayName;
end
% Create the initial plot
figure(43);
hold on; % Retain the plot so new points can be added without complete redraw
plot(rops,bers,"LineWidth",1,"LineStyle","--","Marker",".","MarkerSize",10,"DisplayName",string(dn),'Color',cols(cnt,:));
end
yline(3.8e-3,'DisplayName','HD-FEC');
xlabel('Received Optical Power (dBm)');
ylabel('Bit Error Rate (BER)');
title('Bit Error Rate vs. Received Optical Power');
set(gca,'yscale','log');
grid on;
legend
end

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function tx_signal_curve(wh,options)
arguments
wh
options.DisplayName = '';
end
M = wh.parameter.M.values(1);
datarate = wh.parameter.datarate.values(1);
sirs = wh.parameter.sir.values(1);
mpi_len = wh.parameter.mpi_pathlen.values(1);
laser_linewidths = wh.parameter.laser_linewidth.values(1);
pn_key = wh.parameter.pn_key.values;
vbias_rel = wh.parameter.vbias_rel.values(1);
rop = wh.parameter.rop.values(1);
clipfactor = wh.parameter.clipfactor.values;
rrcalpha = wh.parameter.rrcalpha.values(1);
% Create the initial plot
figure(4);
cols = linspecer(6);
cnt = 0;
bers(:) = wh.getStoValue('ber',M,datarate,sirs,mpi_len,laser_linewidths,pn_key,vbias_rel,rop,clipfactor, rrcalpha);
ers(:) = wh.getStoValue('er',M,datarate,sirs,mpi_len,laser_linewidths,pn_key,vbias_rel,rop,clipfactor, rrcalpha);
dn = ['M: ',num2str(M),'; Rate: ',num2str(datarate),'; SIR ',num2str(sirs), 'dB; lw: ',num2str(laser_linewidths.*1e-6),' MHz'];
hold on; % Retain the plot so new points can be added without complete redraw
% scatter(clipfactor,bers,"LineWidth",1,"Marker",".","DisplayName",string(dn),"MarkerEdgeColor",cols(cnt,:),'HandleVisibility','off');
yyaxis left
plot(clipfactor,bers,"LineWidth",1,"Marker",".","DisplayName",'BER');
yline(3.8e-3,'DisplayName','HD-FEC','HandleVisibility','off');
set(gca,'yscale','log');
grid on;
ylim([1e-5,4e-2])
yyaxis right
plot(clipfactor,ers,"LineWidth",1,"Marker",".","DisplayName",'Extinction Ratio in dB');
xlabel('Clip Factor');
ylabel('Bit Error Rate (BER)');
title(['Bit Error Rate vs. Clip Factor: ',dn]);
legend
end

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function ercurve(wh)
M = wh.parameter.M.values(1);
datarate = wh.parameter.datarate.values(1);
sir = wh.parameter.sir.values(1);
laser_linewidth = wh.parameter.laser_linewidth.values(1);
pn_key = wh.parameter.pn_key.values(1);
vbias_rel = wh.parameter.vbias_rel.values;
rop = wh.parameter.rop.values;
clipfactor = wh.parameter.clipfactor.values;
rrcalpha = wh.parameter.rrcalpha.values(1);
for vbr = vbias_rel
bers = wh.getStoValue('ber',M,datarate,sir,laser_linewidth,pn_key,vbr,rop,clipfactor, rrcalpha);
rops = wh.getStoValue('rop',M,datarate,sir,laser_linewidth,pn_key,vbr,rop,clipfactor, rrcalpha);
ers = unique(wh.getStoValue('er',M,datarate,sir,laser_linewidth,pn_key,vbr,rop,clipfactor, rrcalpha));
if 1 %isempty(options.DisplayName)
dn = ['M: ',num2str(M),'; Rate: ',num2str(datarate),'; Vbias rel: ',num2str(vbr), '; ER: ', num2str(ers)];
else
dn = options.DisplayName;
end
% Create the initial plot
figure(43);
hold on; % Retain the plot so new points can be added without complete redraw
plot(rops,bers,"LineWidth",1,"LineStyle","--","Marker",".","MarkerSize",10,"DisplayName",string(dn));
end
yline(3.8e-3,'DisplayName','HD-FEC');
xlabel('Received Optical Power (dBm)');
ylabel('Bit Error Rate (BER)');
title('Bit Error Rate vs. Received Optical Power');
set(gca,'yscale','log');
grid on;
legend
end

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function linewidth_curve(wh,options)
arguments
wh
options.DisplayName = '';
end
M = wh.parameter.M.values(1);
datarate = wh.parameter.datarate.values(1);
sir = wh.parameter.sir.values(6);
mpi_len = wh.parameter.mpi_pathlen.values;
laser_linewidth = wh.parameter.laser_linewidth.values;
pn_key = wh.parameter.pn_key.values;
vbias_rel = wh.parameter.vbias_rel.values(1);
rop = wh.parameter.rop.values(1);
clipfactor = wh.parameter.clipfactor.values(1);
rrcalpha = wh.parameter.rrcalpha.values(1);
cols = linspecer(numel(mpi_len));
% Create the initial plot
figure(44);
hold on; % Retain the plot so new points can be added without complete redraw
for l = 1:numel(mpi_len)
cnt = 0;
for i = 1:numel(laser_linewidth)
bers(:,i) = wh.getStoValue('ber',M,datarate,sir,mpi_len(l),laser_linewidth(i),pn_key,vbias_rel,rop,clipfactor, rrcalpha);
%ers(:,i) = unique(wh.getStoValue('er',M,datarate,sir,mpi_len,laser_linewidth(i),pn_key,vbias_rel,rop,clipfactor, rrcalpha));
dn = ['Interference Path Length: ',num2str(mpi_len(l)),'m; Rate: ',num2str(datarate)];
end
scatter(laser_linewidth.*1e-6,bers,"LineWidth",1,"Marker",".","DisplayName",string(dn),"MarkerEdgeColor",cols(l,:),'HandleVisibility','off');
plot(laser_linewidth.*1e-6,mean(bers),"LineWidth",1,"Marker",".","DisplayName",string(dn),"MarkerEdgeColor",cols(l,:),"Color",cols(l,:));
end
ylim([1e-4, 1e-2]);
yline(3.8e-3,'DisplayName','HD-FEC');
xlabel('Laser Linewidth in MHz');
ylabel('Bit Error Rate (BER)');
title(['Bit Error Rate vs. Interference Path Length @ SIR ',num2str(sir), 'dB']);
set(gca,'yscale','log');
grid on;
legend
end

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%% Parameter to simulate and save
params = struct;
params.M = [4];
params.datarate = [224];
params.sir = [25]; %decibel = attenuation of interference path
params.mpi_pathlen = [50];
params.laser_linewidth = [1e6];
params.pn_key = [15];
params.vbias_rel = [0.5];
params.rop = 0;
params.clipfactor = [1.3];
params.rrcalpha = [0.1];
name = ['wh_',strrep(num2str(now),'.','')];
wh = DataStorage(params);
wh.addStorage("ber");
wh.addStorage("rop");
wh.addStorage("txpapr");
wh.addStorage("er");
%% Init Params
link_length = 10000; %meter
endcnt = prod(wh.dim);
cnt=0;
disp(['Start Simulation of ',num2str(endcnt),' loops...'])
tic
for M = wh.parameter.M.values
for datarate = wh.parameter.datarate.values
for rrcalpha = wh.parameter.rrcalpha.values
%% SETUP HERE: %%
kover = 8;
Awg = M8199A("kover",kover);
fdac = Awg.fdac;
fsym = round(datarate / log2(M))*1e9;
Lp_awg = Filter('filtdegree',4,"f_cutoff",75e9,"fs",fdac*kover,"filterType",filtertypes.butterworth,"active",true);
Lp_mod = Filter('filtdegree',2,"f_cutoff",100e9,"fs",fdac*kover,"filterType",filtertypes.butterworth,"active",true);
Lp_opt = Filter('filtdegree',6,"f_cutoff",fsym.*0.7,"fs",fdac*kover,"filterType",filtertypes.gaussian,"active",true);
Lp_phd = Filter('filtdegree',2,"f_cutoff",70e9,"fs",fdac*kover,"filterType",filtertypes.gaussian,"active",true);
fadc = 256e9;
Lp_scpe = Filter('filtdegree',4,"f_cutoff",63e9,"fs",fadc,"filterType",filtertypes.butterworth,"active",true);
Scp = Scope("fsimu",fdac*kover,"fadc",fadc,...
"delay",0,"fixed_delay",0,"filtertype",filtertypes.butterworth,...
"samplingdelay",0,"rand_samplingdelay",0,"freq_offset",0,"samp_jitter",0,...
"adcresolution",16,"quantbuffer",0.1,'block_dc',1,'lpf_active',1,'H_lpf',Lp_scpe);
fadc = Scp.fadc;
% figure(222)
% Lp_awg.showHere;
% Lp_mod.showHere;
% Lp_opt.showHere;
% Lp_phd.showHere;
% Lp_scpe.showHere;
% SETUP TX Model
Pmap = PAMmapper(M,0);
Pform = Pulseformer("fsym",fsym,"fdac",4*fsym,"pulse","rrc","pulselength",16,"rrcalpha",rrcalpha);
% SETUP RX Model
Phd = Photodiode("fsimu",fdac*kover,"dark_current",2e-08,"responsivity",1,"temperature",20);
% Eq = EQ_silas("Ne",[25,0,0],"Nb",[2,0,0],"trainlength",4096,...
% "sps",2,...
% "mu_dc_dd",0.1,...
% "mu_dc_train",0.0,...
% "mu_ffe_train",0.00,...
% "mu_dfe_train",0.005,...
% "mu_ffe_dd",[0.0004 0.0004 0.0004],...
% "mu_dfe_dd",0.005,...
% "ddloops",3,...
% "trainloops",4,...
% "eq_parallelization_blocklength",0, ...
% "eq_updatelatency",0,...
% "eq_avg_blocklength",1000);
% Eq = FFE("epochs_tr",5,"epochs_dd",5,"len_tr",4096*2,"mu_dd",1e-4,"mu_tr",0,"order",25,"sps",2,"decide",0);
% Eq = FFE_DFE("epochs_tr",5,"epochs_dd",5,"len_tr",4096*2,"ffe_mu_dd",1e-4,"dfe_mu_dd",5e-4,"ffe_mu_tr",0,"dfe_mu_tr",0,"ffe_order",25,"dfe_order",2,"sps",2,"decide",1);
% Eq = EQ_silas_sliding_window_dc_removal("Ne",[25,0,0],"Nb",[2,0,0],"trainlength",4096,...
% "sps",2,...
% "mu_dc_dd",0.05,...
% "mu_dc_train",0.05,...
% "mu_ffe_train",0,...
% "mu_dfe_train",0.005,...
% "mu_ffe_dd",[0.0004 0.0004 0.0004],...
% "mu_dfe_dd",0.0004,...
% "ddloops",4,...
% "trainloops",4,...
% "eq_blocklength",0,...
% "eq_updatelatency",0);
% Eq = EQ("Ne",[25,3,3],"Nb",[0,0,0],"training_length",4096,"training_loops",4,"dd_loops",4,"K",2,"DCmu",0,"DDmu",[0.0004 0.0004 0.0004 0.0004 ],"DFEmu",0.005,"FFEmu",0,"plotfinal",1);
Eq = VNLE("epochs_tr",7,"epochs_dd",7,"len_tr",4096,"mu_dd",[0.0004 0.0005 0.0006],"mu_tr",0,"order",[25,3,3],"sps",2,"decide",1);
for clipfactor = wh.parameter.clipfactor.values
% TX model
[El,Bits,Ref] = tx_model(fsym,Pmap,Pform,Awg,"clipfactor",clipfactor);
% Laser and Modulation
El = Lp_mod.process(El);
El = Amplifier("amp_mode","ideal_no_noise","gain_mode","gain","amplification_db",15).process(El);
pwr_ = El.power; % in dbm into 50 ohm
papr_ = papr(El.signal);
vpk_ = max(abs(El.signal));
vswing_ = max(El.signal)-min(El.signal);
awg_string = ['AWG: Pout: ',num2str(round(pwr_,2)),' dBm (50 Ohm); PAPR: ',num2str(round(papr_,2)),'; Vpk: ',num2str(round(vpk_,2)),' V; Vswing: ',num2str(round(vswing_,2)),' V'];
disp(awg_string);
for laser_linewidth = wh.parameter.laser_linewidth.values
for pn_key = wh.parameter.pn_key.values
for vbias_rel = wh.parameter.vbias_rel.values
u_pi = 2.9;
vbias = -vbias_rel*u_pi;
extmodlaser = EML("mode",eml_mode.im_cosinus,"power",3,"fsimu",El.fs,"lambda",1290,"bias",vbias,"u_pi",u_pi,"linewidth",laser_linewidth,"randomkey",pn_key);
% El = El.normalize("mode","oneone").*u_pi.*0.4;
[modulated,extmodlaser] = extmodlaser.process(El);
if 1
figure(10)
hold on
scatter(El.signal(1:100000)+vbias,(abs(modulated.signal(1:100000)).^2)*1e3,0.1,'.','DisplayName','Modulator TF')
ylim([0 4]);
xlim([-u_pi/2, u_pi/2]+vbias);
xlabel('Input in V')
ylabel('abs(Output) in mW')
% Define properties
boxPosition = [0.15 0.86 0.2 0.05]; % Position for the first box [x y width height]
boxColor = [0.9 0.9 0.9]; % Light grey background color
boxEdgeColor = 'k'; % Black edge color
boxLineStyle = '--'; % Dashed line style
boxFontWeight = 'bold'; % Bold font
% Create first annotation box for Power
annotation('textbox', boxPosition, ...
'String', ['V pi: ',num2str(u_pi),' V'], ...
'BackgroundColor', boxColor, ...
'EdgeColor', boxEdgeColor, ...
'LineStyle', boxLineStyle, ...
'FontWeight', boxFontWeight, ...
'HorizontalAlignment', 'center');
% Adjust position for the second box (slightly to the right)
boxPosition = [0.37 0.86 0.2 0.05]; % Adjusted position
% Create second annotation box for PAPR
annotation('textbox', boxPosition, ...
'String', ['V bias: ',num2str(vbias),' V'], ...
'BackgroundColor', boxColor, ...
'EdgeColor', boxEdgeColor, ...
'LineStyle', boxLineStyle, ...
'FontWeight', boxFontWeight, ...
'HorizontalAlignment', 'center');
modulated.eye(fsym,M);
modulated.spectrum("fignum",112,"displayname",'transmit spectrum');
modulated = Lp_opt.process(modulated);
end
er = modulated.extinctionratio(fsym,M);
if 1
m_ = wh.parameter.mpi_pathlen.length;
j_ = wh.parameter.sir.length;
i_ = wh.parameter.rop.length;
ber=zeros(m_,j_,i_);
patten=zeros(m_,j_,i_);
for m = 1:m_
mpi_path = wh.parameter.mpi_pathlen.values(m);
for j = 1:j_
sir = wh.parameter.sir.values(j);
% MPI Channel
Opt = channel_model_mpi(modulated,link_length,mpi_path,sir);
for i = 1:i_
rop=wh.parameter.rop.values(i);
% Set ROP
Rx_sig = Amplifier("amp_mode","ideal_no_noise","gain_mode","output_power","amplification_db",rop).process(Opt);
patten(m,j,i) = Rx_sig.power;
% RX Model
Rx_bits = rx_model(Rx_sig,Ref,Phd,Lp_phd,Scp,Eq,Pmap);
% BER
[~,errors_bm,ber(m,j,i),errors] = calc_ber(Rx_bits.signal,Bits.signal,"skip_front",100,"skip_end",150,"returnErrorLocation",1);
cnt = cnt+1;
disp(['BER: ',sprintf('%.1E',ber(m,j,i)),' - - ROP: ',num2str(Rx_sig.power),'dBm - - PAM-',num2str(M),' - - ',num2str(fsym*1e-9),' GBd']);
end
end
end
for m = 1:m_
mpi_path = wh.parameter.mpi_pathlen.values(m);
for j = 1:j_
sir = wh.parameter.sir.values(j);
for i = 1:i_
rop=wh.parameter.rop.values(i);
wh.addValueToStorage(ber(m,j,i),'ber',M,datarate,sir,mpi_path,laser_linewidth,pn_key,vbias_rel,rop,clipfactor,rrcalpha);
wh.addValueToStorage(patten(m,j,i),'rop',M,datarate,sir,mpi_path,laser_linewidth,pn_key,vbias_rel,rop,clipfactor,rrcalpha);
wh.addValueToStorage(er,'er',M,datarate,sir,mpi_path,laser_linewidth,pn_key,vbias_rel,rop,clipfactor,rrcalpha);
end
end
end
end
end
toc
disp(['Simulated: ',num2str(cnt/endcnt*100),' %']);
save(['C:\Users\Silas\Documents\MATLAB\imdd_simulation\projects\MPI_Juni\',name,'.mat'],"wh");
end
end
end
end
end
end

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function mpilength_curve(wh,options)
arguments
wh
options.DisplayName = '';
end
M = wh.parameter.M.values(1);
datarate = wh.parameter.datarate.values(2);
sirs = wh.parameter.sir.values(1);
mpi_len = wh.parameter.mpi_pathlen.values;
laser_linewidths = wh.parameter.laser_linewidth.values;
pn_key = wh.parameter.pn_key.values;
vbias_rel = wh.parameter.vbias_rel.values(1);
rop = wh.parameter.rop.values(1);
clipfactor = wh.parameter.clipfactor.values(1);
rrcalpha = wh.parameter.rrcalpha.values(1);
% Create the initial plot
figure(4);
cols = linspecer(6);
cnt = 0;
for lw = 1:numel(laser_linewidths)
laser_linewidth = laser_linewidths(lw);
n=ceil(sqrt(wh.parameter.laser_linewidth.length));
%subplot(n,n,sp);
cnt=cnt+6;
for sir = sirs
for i = 1:numel(mpi_len)
bers(:,i) = wh.getStoValue('ber',M,datarate,sir,mpi_len(i),laser_linewidth,pn_key,vbias_rel,rop,clipfactor, rrcalpha);
% ers(:,i) = unique(wh.getStoValue('er',M,datarate,sir,mpi_len(i),laser_linewidth,pn_key,vbias_rel,rop,clipfactor, rrcalpha));
dn = ['M: ',num2str(M),'; Rate: ',num2str(datarate),'; SIR ',num2str(sir), 'dB; lw: ',num2str(laser_linewidth.*1e-6),' MHz'];
end
hold on; % Retain the plot so new points can be added without complete redraw
scatter(mpi_len,bers,"LineWidth",1,"Marker",".","DisplayName",string(dn),"MarkerEdgeColor",cols(cnt,:),'HandleVisibility','off');
plot(mpi_len,mean(bers),"LineWidth",1,"Marker",".","DisplayName",string(dn),"MarkerEdgeColor",cols(cnt,:),"Color",cols(cnt,:));
end
yline(3.8e-3,'DisplayName','HD-FEC');
xlabel('MPI Path in Meter');
ylabel('Bit Error Rate (BER)');
title(['Bit Error Rate vs. Interference Path Length; Linewidth: ',num2str(laser_linewidth.*1e-6), ' MHz']);
set(gca,'yscale','log');
grid on;
ylim([1e-5,4e-2])
end
legend
end

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function sir_curve(wh,options)
arguments
wh
options.DisplayName = '';
end
M = wh.parameter.M.values(1);
datarate = wh.parameter.datarate.values(1);
sir = wh.parameter.sir.values;
laser_linewidth = wh.parameter.laser_linewidth.values(1);
pn_key = wh.parameter.pn_key.values;
vbias_rel = wh.parameter.vbias_rel.values(1);
rop = wh.parameter.rop.values(1);
clipfactor = wh.parameter.clipfactor.values;
rrcalpha = wh.parameter.rrcalpha.values(1);
cols = linspecer(numel(pn_key));
cnt = 0;
for pnk = pn_key
cnt = cnt+1;
bers = wh.getStoValue('ber',M,datarate,sir,laser_linewidth,pnk,vbias_rel,rop,clipfactor, rrcalpha);
ers = unique(wh.getStoValue('er',M,datarate,sir,laser_linewidth,pnk,vbias_rel,rop,clipfactor, rrcalpha));
if 1 %isempty(options.DisplayName)
dn = ['M: ',num2str(M),'; Rate: ',num2str(datarate),'; Vbias rel: ',num2str(vbias_rel), '; ER: ', num2str(ers)];
else
dn = options.DisplayName;
end
% Create the initial plot
figure(43);
hold on; % Retain the plot so new points can be added without complete redraw
plot(sir,bers',"LineWidth",1,"LineStyle","-","Marker",".","MarkerSize",10,"DisplayName",string(dn),'Color',cols(cnt,:));
end
yline(3.8e-3,'DisplayName','HD-FEC');
xlabel('Signal to Interference Ratio (dB)');
ylabel('Bit Error Rate (BER)');
title('Bit Error Rate vs. SIR (MPI)');
set(gca,'yscale','log');
grid on;
legend
end

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function tx_signal_curve(wh,options)
arguments
wh
options.DisplayName = '';
end
M = wh.parameter.M.values(1);
datarate = wh.parameter.datarate.values(1);
sirs = wh.parameter.sir.values(1);
mpi_len = wh.parameter.mpi_pathlen.values(1);
laser_linewidths = wh.parameter.laser_linewidth.values(1);
pn_key = wh.parameter.pn_key.values;
vbias_rel = wh.parameter.vbias_rel.values;
rop = wh.parameter.rop.values(1);
clipfactor = wh.parameter.clipfactor.values;
rrcalpha = wh.parameter.rrcalpha.values(1);
% Create the initial plot
figure(4);
cols = linspecer(numel(vbias_rel));
cnt = 0;
for vb = vbias_rel
cnt = cnt+1;
bers(:) = wh.getStoValue('ber',M,datarate,sirs,mpi_len,laser_linewidths,pn_key,vb,rop,clipfactor, rrcalpha);
ers(:) = wh.getStoValue('er',M,datarate,sirs,mpi_len,laser_linewidths,pn_key,vb,rop,clipfactor, rrcalpha);
dn = ['M: ',num2str(M),'; Rate: ',num2str(datarate),'; SIR ',num2str(sirs), 'dB; lw: ',num2str(laser_linewidths.*1e-6),' MHz'];
hold on; % Retain the plot so new points can be added without complete redraw
% scatter(clipfactor,bers,"LineWidth",1,"Marker",".","DisplayName",string(dn),"MarkerEdgeColor",cols(cnt,:),'HandleVisibility','off');
plot(clipfactor,bers,"LineWidth",1,"Marker","x",'LineStyle','--',"DisplayName",['Vbias factor: ',num2str(vb)],"Color",cols(cnt,:));
yline(3.8e-3,'DisplayName','HD-FEC','HandleVisibility','off');
set(gca,'yscale','log');
grid on;
ylim([1e-5,5e-1])
xlabel('Clip Factor');
ylabel('Bit Error Rate (BER)');
title(['Bit Error Rate vs. Clip Factor: ',dn]);
legend
end
% figure(10101)
% y = vbias_rel;
% x = clipfactor;
% [X,Y] = meshgrid(x,y);
% Z = bers;
% contourf(X,Y,Z,30,'LineStyle','none');
end

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