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plotting.asv
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%% 1.1 micro-benchmark cdf phase drift removal at 70,80 db
close all;
objects = ["smallcardboard", "spindrift", "smallpaperbag", "traderjoebag", "smalllayschip", "layschip"];
titles = ["(a) small cardboard", "(b) large cardboard", "(c) small paper bag", ...
"(d) large paper bag", "(e) small bag of chips", "(f) large bag of chips"];
scenario = 'radar0.5m_source0.5m';
speakers = ["mccs0", "fadg0"];
soundfiles = ["sa1", "sa1"];
dbs = [80];
% LLR = -1*ones(length(objects), length(speakers)*length(dbs));
% WSS = -1*ones(length(objects), length(speakers)*length(dbs));
% STOI1 = -1*ones(length(objects), length(speakers)*length(dbs));
% STOI2 = -1*ones(length(objects), length(speakers)*length(dbs));
% STOI = -1*ones(length(objects), length(speakers)*length(dbs));
% NISTSNR = -1*ones(length(objects), length(speakers)*length(dbs));
% SEGSNR = -1*ones(length(objects), length(speakers)*length(dbs));
psd_dc = -1*ones(2, length(objects)*length(speakers)*length(dbs));
seq = 0;
for ii=1:6
for jj=1:length(speakers)
for kk=1:length(dbs)
seq = seq + 1;
% [yclean, fs_clean] = audioread(sprintf('audios/%s/%s_%ddb.wav',speakers(jj), soundfiles(jj),dbs(kk)));
folder = sprintf('B:/experiment_data2/%s/%s/profile3/radarcube', objects(ii),scenario);
name = sprintf('%s/%s_%s_%ddb.mat',folder, speakers(jj), soundfiles(jj), dbs(kk));
load(name);
[fftout, I] = rangeFFT(datacube.adcdata(:,1,1), datacube.params);
close(gcf);
clear rangecube;
rangecube = fft(datacube.adcdata, datacube.params.opRangeFFTSize, 1);
y_drift = angle(reshape(rangecube(I,:,:), [], 1)); % TODO: piecewise phase correction
Fs_drift = 1/datacube.params.chirpCycleTime;
folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_noeq', objects(ii),scenario);
name = sprintf('%s/%s_%s_%ddb.wav',folder, speakers(jj), soundfiles(jj), dbs(kk));
[y_nodrift, Fs_nodrift] = audioread(name);
% figure; plot(y)
nsc = fix(0.1*Fs_drift); nov = fix(nsc*0.8); nff = max(4096,2^nextpow2(nsc));
[s,f,t, ps_drift]= spectrogram(y_drift./max(abs(y_drift)),hamming(nsc),nov,nff, Fs_drift, 'yaxis','MinThreshold',-150);
ps_drift = max(10*log10(ps_drift(1:fix(50/(Fs_drift/nff)), :)), [], 1);
nsc = fix(0.1*Fs_nodrift); nov = fix(nsc*0.8); nff = max(4096,2^nextpow2(nsc));
[s,f,t, ps_nodrift] = spectrogram(y_nodrift./max(abs(y_nodrift)),hamming(nsc),nov,nff, Fs_nodrift, 'yaxis','MinThreshold',-150);
ps_nodrift = max(10*log10(ps_nodrift(1:fix(50/(Fs_nodrift/nff)), :)), [], 1);
% see how highpass filtering performs
% bpFilt = designfilt('bandpassiir','FilterOrder',20, ...
% 'HalfPowerFrequency1',100,'HalfPowerFrequency2',2000, 'DesignMethod','butter', ...
% 'SampleRate',Fs_drift);
% y_highpass = filter(bpFilt, y_drift);
% y_highpass = y_highpass(1001:end);
% nsc = fix(0.1*Fs_drift); nov = fix(nsc*0.8); nff = max(4096,2^nextpow2(nsc));
% figure(1);
% spectrogram(y_drift./max(abs(y_drift)),hamming(nsc),nov,nff, Fs_drift, 'yaxis','MinThreshold',-150); ylim([0 2]);
% figure(2);
% spectrogram(y_highpass./max(abs(y_highpass)),hamming(nsc),nov,nff, Fs_drift, 'yaxis','MinThreshold',-150); ylim([0 2]);
% figure(3);
% spectrogram(y_nodrift./max(abs(y_nodrift)),hamming(nsc),nov,nff, Fs_drift, 'yaxis','MinThreshold',-150); ylim([0 2]);
%
% figure(4); subplot(3,1,1); plot(y_drift); subplot(3,1,2); plot(y_highpass);
% subplot(3,1,3); plot(y_nodrift);
figure(123); subplot(4,6,seq); plot(ps_drift); hold on; plot(ps_nodrift);
psd_dc(1, seq) = mean(ps_drift(1:200));
psd_dc(2, seq) = mean(ps_nodrift(1:200));
end
end
end
fontsize = 13;
fig = figure('DefaultAxesFontSize', fontsize, 'Position', [100 100 200*3 200*2]);
% spacing = [0.1,0.1]; %y spacing, x spacing
% height_margin = 0.1,0.1];
% width_margin = [0.1,0.1];
% ax_move_right = 0.00;
% ax1 = subtightplot(1,2, 1, spacing, height_margin, width_margin);
% cdfplot(STOI1(good_idx)); hold on;
% cdfplot(STOI2(good_idx)); hold on;
[h1, stats1]= cdfplot(psd_dc(1, :)); hold on;
[h2, stats2]= cdfplot(psd_dc(2, :)); hold on;
set(h1 ,'LineWidth',2 , 'LineStyle', '-.');
set(h2 ,'LineWidth',2);
xlabel("Power spectral density (dB/Hz)");
ylabel("CDF");
legend(["wo/ phase drift removed", "w/ phase drift removed"], "Location", "south", "FontSize", fontsize);
% xlim([0 0.2]);
title("");
exportgraphics(fig,sprintf('figures/phase_drift_removal.png'),'Resolution',300)
fprintf(sprintf('psd median: %.3f, psd median: %.3f \n', ...
stats1.median, stats2.median));
%% 1.2 micro-benchmark cdf STOI gain at 80 db
close all;
objects = ["smallcardboard", "spindrift", "smallpaperbag", "traderjoebag", "smalllayschip", "layschip"];
titles = ["(a) small cardboard", "(b) large cardboard", "(c) small paper bag", ...
"(d) large paper bag", "(e) small bag of chips", "(f) large bag of chips"];
scenario = 'radar0.5m_source0.5m';
speakers = ["mccs0", "fadg0"]; %,"beatles", "adele"];
soundfiles = ["sa1", "sa1", "let_it_be",...
"someone_like_you_verse"];
dbs = [80];
LLR = -1*ones(length(objects), length(speakers)*length(dbs));
WSS = -1*ones(length(objects), length(speakers)*length(dbs));
STOI1 = -1*ones(length(objects), length(speakers)*length(dbs));
STOI2 = -1*ones(length(objects), length(speakers)*length(dbs));
STOI = -1*ones(length(objects), length(speakers)*length(dbs));
NISTSNR = -1*ones(length(objects), length(speakers)*length(dbs));
SEGSNR = -1*ones(length(objects), length(speakers)*length(dbs));
for ii=1:6
for jj=1:length(speakers)
for kk=1:length(dbs)
[yclean, fs_clean] = audioread(sprintf('audios/%s/%s_%ddb.wav',speakers(jj), soundfiles(jj),dbs(kk)));
% folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_eq', objects(ii),scenario);
% name = sprintf('%s/%s_%s_%ddb.wav',folder, speakers(jj), soundfiles(jj), dbs(kk));
% [y_eq, Fs] = audioread(name);
folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_noeq', objects(ii),scenario);
name = sprintf('%s/%s_%s_%ddb.wav',folder, speakers(jj), soundfiles(jj), dbs(kk));
[y_noeq, Fs] = audioread(name);
y_eq = noiseReduction_YW(y_noeq, Fs);
bpFilt = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',Fs);
bpFilt1 = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',fs_clean);
y_eq = filter(bpFilt, y_eq);
% y_noeq = filter(bpFilt, y_noeq);
yclean = filter(bpFilt1, yclean);
[llr1, wss1, stoi_val1, nist_snr1,segsnr1]=get_measures(yclean, fs_clean, y_noeq, Fs, 0);
[llr2, wss2, stoi_val2, nist_snr2,segsnr2]=get_measures(yclean, fs_clean, y_eq, Fs, 0);
LLR(ii, (jj-1)*length(dbs)+kk) = (llr1-llr2)/llr1;
WSS(ii, (jj-1)*length(dbs)+kk) = (wss1-wss2)/wss1;
STOI1(ii, (jj-1)*length(dbs)+kk) = stoi_val1;
STOI2(ii, (jj-1)*length(dbs)+kk) = stoi_val2;
STOI(ii, (jj-1)*length(dbs)+kk) = stoi_val2 - stoi_val1;
NISTSNR(ii, (jj-1)*length(dbs)+kk) = (nist_snr2-nist_snr1)/nist_snr1;
% SEGSNR(ii, jj) = segsnr;
% fprintf(sprintf('%s LLR: %.2f WSS: %.2f STOI: %.2f\n', titles(ii),llr,wss,stoi_val ));
% figure(123); subplot(length(dbs), length(speakers), (kk-1)*length(speakers)+jj);
% nsc = fix(0.1*Fs);
% nov = fix(nsc/2);
% nff = max(4096,2^nextpow2(nsc));
% spectrogram(y,hamming(nsc),nov,nff, Fs, 'yaxis','MinThreshold',-150); colorbar('off');
% ylim([0 1]);
% title(sprintf('%s %s', titles(ii), speakers(jj) ))
end
end
end
%
fontsize = 13;
fig = figure('DefaultAxesFontSize', fontsize, 'Position', [100 100 200*3 200*2]);
% spacing = [0.1,0.1]; %y spacing, x spacing
% height_margin = [0.1,0.1];
% width_margin = [0.1,0.1];
% ax_move_right = 0.00;
% ax1 = subtightplot(1,2, 1, spacing, height_margin, width_margin);
% good_idx = find(STOI(:)>-0.1);
% STOI1 = STOI1(:);
% STOI2 = STOI2(:);
% cdfplot(STOI1(good_idx)); hold on;
% cdfplot(STOI2(good_idx)); hold on;
[h1, stats1]= cdfplot(STOI1(:)); hold on;
[h2, stats2]= cdfplot(STOI2(:)); hold on;
set(h1 ,'LineWidth',2 , 'LineStyle', '-.');
set(h2 ,'LineWidth',2);
xlabel(" Intelligibility (STOI)");
ylabel("CDF");
legend(["wo/ noise reduction", "w/ noise reduction"], "Location", "southeast", "FontSize", fontsize);
% xlim([0 0.2]);
title("");
exportgraphics(fig,sprintf('figures/stoi_gain_denoising.png'),'Resolution',300)
fprintf(sprintf('vibration_mag median: %.3f, phase drift median: %.3f \n', ...
stats1.median, stats2.median));
% fontsize = 13;
% figure('DefaultAxesFontSize', fontsize);
% model_series = mean(NISTSNR, 2);%[10 40 50 60; 20 50 60 70; 30 60 80 90];
% model_error = std(NISTSNR,0,2)/2;%[1 4 8 6; 2 5 9 12; 3 6 10 13];
%
% x = 1:length(model_series);
% b = bar(x, model_series);
% hold on
% er = errorbar(model_series,model_error);
% er.Color = [0 0 0];
% er.LineStyle = 'none';
% er.MarkerSize = 10;
% er.LineWidth = 1.0;
% hold off
% ylabel('NIST SNR Gain (dB)');
% set(gca,'xticklabel',titles);
% xtickangle(25);
% % print('figures/nistsnr_gain', '-dpng', '-r300');
% ax = gca;
% exportgraphics(ax,'figures/nistsnr_gain.png','Resolution',300)
% b = bar(model_series, 'grouped');
% hold on
% % Find the number of groups and the number of bars in each group
% [ngroups, nbars] = size(model_series);
% % Calculate the width for each bar group
% groupwidth = min(0.8, nbars/(nbars + 1.5));
% % Set the position of each error bar in the centre of the main bar
% % Based on barweb.m by Bolu Ajiboye from MATLAB File Exchange
% for i = 1:nbars
% % Calculate center of each bar
% x = (1:ngroups) - groupwidth/2 + (2*i-1) * groupwidth / (2*nbars);
% errorbar(x, model_series(:,i), model_error(:,i), 'k', 'linestyle', 'none');
% end
% hold off
%% 2. speech spectrograms, plot mccs0/fadg0/me sa1/sa2 80db spectrograms
close all;
objects = ["smallcardboard", "spindrift", "smallpaperbag", "traderjoebag", "smalllayschip", "layschip"];
% titles = ["small cardboard", "large cardboard", "small paper bag", ...
% "large paper bag", "small bag of chips", "large bag of chips"];
titles = ["(a) sa1 clean", "(b) sa1 recovered", "(c) sa2 clean", "(d) sa2 recovered", ...
"(e) sa1 clean", "(f) sa1 recovered", "(g) sa2 clean", "(h) sa2 recovered",...
"(i) sa1 clean", "(j) sa1 recovered", "(k) sa2 clean", "(l) sa2 recovered"];
scenario = 'radar0.5m_source0.5m';
speakers = ["mccs0", "mccs0", "fadg0", "fadg0", "me", "me", "beatles", "adele"];
soundfiles = ["sa1_80db.wav", "sa2_80db.wav", "sa1_80db.wav","sa2_80db.wav",...
"sa1_80db.wav", "sa2_80db.wav", "let_it_be_80db.wav", "someone_like_you_verse_80db.wav"];
% save as one figure
fontsize = 14;
fig = figure('DefaultAxesFontSize', fontsize, 'Position', [100 100 200*6 200*3]);
for ii=6 % layschip
for jj=1:length(speakers)-2
[yclean, fs_clean] = audioread(sprintf('audios/%s/%s',speakers(jj), soundfiles(jj)));
folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_eq', objects(ii),scenario);
name = sprintf('%s/%s_%s',folder, speakers(jj), soundfiles(jj));
[y, Fs] = audioread(name);
x = yclean(:);
[x2, y2] = alignsignals(x,y);
zeros_prepended = length(x2) - length(x);
x2= x2( zeros_prepended + [1: min(length(y)-zeros_prepended,length(x))] );
y2= y2( zeros_prepended + [1: min(length(y)-zeros_prepended,length(x))] );
yclean = x2;
y = y2;
spacing = [0.1,0.003]; %y spacing, x spacing
height_margin = [0.1,0.1];
width_margin = [0.1,0.1];
ax_move_right = 0.00;
spectrogram_min = -90;
% plot clean signal
ax1 = subtightplot(3,4, (jj-1)*2+1, spacing, height_margin, width_margin);
nsc = fix(0.1*fs_clean);
nov = fix(nsc*0.8);
nff = max(4096,2^nextpow2(nsc));
spectrogram(yclean./max(abs(yclean)),hamming(nsc),nov,nff, fs_clean, 'yaxis','MinThreshold',spectrogram_min);
ylim([0 1]);
xlabel('');
ylabel('');
set(colorbar,'visible','off')
c1 = narrow_colorbar;
c1.FontSize = fontsize -1;
c1.Position(1) = c1.Position(1) - 0.005;
c1.YLim = [spectrogram_min -20];
title(titles((jj-1)*2+1));
% plot recovered signal
ax2 = subtightplot(3,4, (jj-1)*2+2, spacing, height_margin, width_margin);
nsc = fix(0.1*Fs);
nov = fix(nsc*0.8);
nff = max(4096,2^nextpow2(nsc));
spectrogram(y./max(abs(y)),hamming(nsc),nov,nff, Fs, 'yaxis','MinThreshold',spectrogram_min);
ylim([0 1]);
xlabel('');
ylabel('');
set(colorbar,'visible','off')
c2 = narrow_colorbar;
c2.FontSize = fontsize -1;
c2.Position(1) = c2.Position(1) - 0.005;
c2.YLim = [spectrogram_min -20];
title(titles((jj-1)*2+2));
if mod(jj,2)==1
ax1.YLabel.String = 'Frequency (kHz)';
else
ylabel(c2,'dB/Hz');
end
if jj>=5
ax1.XLabel.String = 'Time (secs)';
ax2.XLabel.String = 'Time (secs)';
end
end
end
% ax = gca;
exportgraphics(fig,sprintf('figures/speech_spectrograms.png'),'Resolution',300)
% % save as one figure, v2
% fontsize = 14;
% fig = figure('DefaultAxesFontSize', fontsize, 'Position', [100 100 200*6 200*3]);
% for ii=6 % layschip
% for jj=1:length(speakers)
% for kk=1:2
% if kk==1 % clean signal
% [y, Fs] = audioread(sprintf('audios/%s/%s',speakers(jj), soundfiles(jj)));
% if jj==1
% y = y(1:fix(8*Fs));
% end
% else % recovered siganl
% folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_eq', objects(ii),scenario);
% name = sprintf('%s/%s_%s',folder, speakers(jj), soundfiles(jj));
% [y, Fs] = audioread(name);
% if jj==1
% y = y(fix(0.9*Fs):fix(8.9*Fs));
% elseif jj==2
% y = y(fix(0.7*Fs):fix(8.7*Fs));
% end
% end
%
% plot_seq = (jj-1)*2+kk;
% spacing = [0.1,0.003]; %y spacing, x spacing
% height_margin = [0.3,0.1];
% width_margin = [0.1,0.1];
% ax_move_right = 0.00;
% spectrogram_min = -90;
%
% ax2 = subtightplot(1,4, plot_seq, spacing, height_margin, width_margin);
% nsc = fix(0.1*Fs);
% nov = fix(nsc*0.8);
% nff = max(4096,2^nextpow2(nsc));
% spectrogram(y./max(abs(y)),hamming(nsc),nov,nff, Fs, 'yaxis','MinThreshold',spectrogram_min);
% ylim([0 1.1]);
% set(colorbar,'visible','off')
% c2 = narrow_colorbar;
% c2.FontSize = fontsize-1;
% c2.Position(1) = c2.Position(1) - 0.005;
% c2.YLim = [spectrogram_min -20];
% title(titles(plot_seq));
% ylabel("");
% % xlabel("");
%
% if mod(plot_seq,4)==0
% ylabel(c2,'dB/Hz');
% end
% if mod(plot_seq,4)==1
% ylabel('Frequency (kHz)');
% end
% end
% end
% end
% exportgraphics(fig,sprintf('figures/music_spectrograms.png'),'Resolution',300)
%% 3. music spectrograms, plot let_it_be/someone_like_you 80db spectrograms
close all;
objects = ["smallcardboard", "spindrift", "smallpaperbag", "traderjoebag", "smalllayschip", "layschip"];
% titles = ["small cardboard", "large cardboard", "small paper bag", ...
% "large paper bag", "small bag of chips", "large bag of chips"];
titles = ["(m) music1 clean", "(n) music1 recovered", "(o) music2 clean", "(p) music2 recovered"];
scenario = 'radar0.5m_source0.5m';
speakers = ["beatles", "adele"];
soundfiles = ["let_it_be_80db.wav", "someone_like_you_verse_80db.wav"];
% save as one figure, v2
fontsize = 14;
fig = figure('DefaultAxesFontSize', fontsize, 'Position', [100 100 200*6 200*1]);
for ii=6 % layschip
for jj=1:length(speakers)
for kk=1:2
if kk==1 % clean signal
[y, Fs] = audioread(sprintf('audios/%s/%s',speakers(jj), soundfiles(jj)));
if jj==1
y = y(1:fix(8*Fs));
end
else % recovered siganl
folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_eq', objects(ii),scenario);
name = sprintf('%s/%s_%s',folder, speakers(jj), soundfiles(jj));
[y, Fs] = audioread(name);
if jj==1
y = y(fix(0.9*Fs):fix(8.9*Fs));
elseif jj==2
y = y(fix(0.7*Fs):fix(8.7*Fs));
end
end
plot_seq = (jj-1)*2+kk;
spacing = [0.1,0.003]; %y spacing, x spacing
height_margin = [0.3,0.1];
width_margin = [0.1,0.1];
ax_move_right = 0.00;
spectrogram_min = -90;
ax2 = subtightplot(1,4, plot_seq, spacing, height_margin, width_margin);
nsc = fix(0.1*Fs);
nov = fix(nsc*0.8);
nff = max(4096,2^nextpow2(nsc));
spectrogram(y./max(abs(y)),hamming(nsc),nov,nff, Fs, 'yaxis','MinThreshold',spectrogram_min);
ylim([0 1.1]);
set(colorbar,'visible','off')
c2 = narrow_colorbar;
c2.FontSize = fontsize-1;
c2.Position(1) = c2.Position(1) - 0.005;
c2.YLim = [spectrogram_min -20];
title(titles(plot_seq));
ylabel("");
% xlabel("");
if mod(plot_seq,4)==0
ylabel(c2,'dB/Hz');
end
if mod(plot_seq,4)==1
ylabel('Frequency (kHz)');
end
end
end
end
exportgraphics(fig,sprintf('figures/music_spectrograms.png'),'Resolution',300)
% % save as separate figures
% for ii=6 % layschip
% for jj=1:length(speakers)
% for kk=1:2
% if kk==1 % clean signal
% [y, Fs] = audioread(sprintf('audios/%s/%s',speakers(jj), soundfiles(jj)));
% if jj==1
% y = y(1:fix(8*Fs));
% end
% else % recovered siganl
% folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_eq', objects(ii),scenario);
% name = sprintf('%s/%s_%s',folder, speakers(jj), soundfiles(jj));
% [y, Fs] = audioread(name);
% if jj==1
% y = y(fix(0.9*Fs):fix(8.9*Fs));
% elseif jj==2
% y = y(fix(0.7*Fs):fix(8.7*Fs));
% end
% end
%
% fontsize = 20;
% fig = figure('DefaultAxesFontSize', fontsize, 'Position', [100 100 200*3 200*2]);
% plot_seq = (jj-1)*2+kk;
% % spacing = [0.1,0.003]; %y spacing, x spacing
% % height_margin = [0.3,0.1];
% % width_margin = [0.1,0.1];
% % ax_move_right = 0.00;
% spectrogram_min = -90;
% % plot recovered signal
% % ax2 = subtightplot(1,4, (jj-1)*2+2, spacing, height_margin, width_margin);
% nsc = fix(0.1*Fs);
% nov = fix(nsc*0.8);
% nff = max(4096,2^nextpow2(nsc));
% spectrogram(y./max(abs(y)),hamming(nsc),nov,nff, Fs, 'yaxis','MinThreshold',spectrogram_min);
% ylim([0 1.1]);
% set(colorbar,'visible','off')
% c2 = narrow_colorbar;
% c2.FontSize = fontsize;
% c2.Position(1) = c2.Position(1) - 0.02;
% c2.YLim = [spectrogram_min -20];
% title(titles(plot_seq));
% ylabel("");
% % xlabel("");
%
% if mod(plot_seq,4)==0
% ylabel(c2,'dB/Hz');
% end
% if mod(plot_seq,4)==1
% ylabel('Frequency (kHz)');
% end
% exportgraphics(fig,sprintf('figures/music_spectrograms_%s.png', char(96+plot_seq)),...
% 'Resolution',300)
% end
% end
% end
% % save as one figure
% fontsize = 14;
% fig = figure('DefaultAxesFontSize', fontsize, 'Position', [100 100 200*6 200*1]);
% for ii=6 % layschip
% for jj=1:length(speakers)
% [yclean, fs_clean] = audioread(sprintf('audios/%s/%s',speakers(jj), soundfiles(jj)));
% folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_eq', objects(ii),scenario);
% name = sprintf('%s/%s_%s',folder, speakers(jj), soundfiles(jj));
% [y, Fs] = audioread(name);
%
% % x = yclean(:);
% % [x2, y2] = alignsignals(x,y);
% % zeros_prepended = length(x2) - length(x);
% % x2= x2( zeros_prepended + [1: min(length(y)-zeros_prepended,length(x))] );
% % y2= y2( zeros_prepended + [1: min(length(y)-zeros_prepended,length(x))] );
% % yclean = x2;
% % y = y2;
% if jj==1
% yclean = yclean(1:fix(8*fs_clean));
% y = y(fix(0.9*Fs):fix(8.9*Fs));
% elseif jj==2
% y = y(fix(0.7*Fs):fix(8.7*Fs));
% end
%
% spacing = [0.1,0.003]; %y spacing, x spacing
% height_margin = [0.3,0.1];
% width_margin = [0.1,0.1];
% ax_move_right = 0.00;
% spectrogram_min = -90;
% % plot clean signal
% ax1 = subtightplot(1,4, (jj-1)*2+1, spacing, height_margin, width_margin);
% nsc = fix(0.1*fs_clean);
% nov = fix(nsc*0.8);
% nff = max(4096,2^nextpow2(nsc));
% spectrogram(yclean./max(abs(yclean)),hamming(nsc),nov,nff, fs_clean, 'yaxis','MinThreshold',spectrogram_min);
% ylim([0 1.1]);
% set(colorbar,'visible','off')
% c1 = narrow_colorbar;
% c1.FontSize = fontsize-3;
% c1.Position(1) = c1.Position(1) - 0.005;
% c1.YLim = [spectrogram_min -20];
% title(titles((jj-1)*2+1));
%
% % plot recovered signal
% ax2 = subtightplot(1,4, (jj-1)*2+2, spacing, height_margin, width_margin);
% nsc = fix(0.1*Fs);
% nov = fix(nsc*0.8);
% nff = max(4096,2^nextpow2(nsc));
% spectrogram(y./max(abs(y)),hamming(nsc),nov,nff, Fs, 'yaxis','MinThreshold',spectrogram_min);
% ylim([0 1.1]);
% set(colorbar,'visible','off')
% c2 = narrow_colorbar;
% c2.FontSize = fontsize-3;
% c2.Position(1) = c2.Position(1) - 0.005;
% c2.YLim = [spectrogram_min -20];
% title(titles((jj-1)*2+2));
%
% if mod(jj,2)==0
% ax1.YLabel.String = '';
% ax2.YLabel.String = '';
% ylabel(c2,'dB/Hz');
% % c2.FontSize = fontsize-3;
% else
% ax2.YLabel.String = '';
% end
%
% % if jj>=5
% % ax1.XLabel.String = 'Time (secs)';
% % ax2.XLabel.String = 'Time (secs)';
% % else
% % ax1.XLabel.String = '';
% % ax2.XLabel.String = '';
% % end
% end
% end
% % ax = gca;
% exportgraphics(fig,sprintf('figures/music_spectrograms.png'),'Resolution',300)
%% 4. speech/music table, 80 db, bag of chips, sa1/sa2/songs calculate LLR/WSS/STOI
close all;
objects = ["smallcardboard", "spindrift", "smallpaperbag", "traderjoebag", "smalllayschip", "layschip"];
titles = ["small cardboard", "large cardboard", "small paper bag", ...
"large paper bag", "small bag of chips", "large bag of chips"];
scenario = 'radar0.5m_source0.5m';
speakers = ["fadg0", "fadg0", "mccs0", "mccs0", "mabw0", "mabw0"];%, ...
% "me", "me", "beatles", "adele"];
soundfiles = ["sa1_90db.wav", "sa2_90db.wav", "sa1_90db.wav","sa2_90db.wav",...
"sa1_90db.wav", "sa2_90db.wav", "sa1_80db.wav", "sa2_80db.wav",...
"let_it_be_80db.wav", "someone_like_you_verse_80db.wav"];
LLR = -1*ones(length(speakers), 1);
WSS = -1*ones(length(speakers), 1);
STOI = -1*ones(length(speakers), 1);
% NISTSNR = -1*ones(length(objects), length(speakers), length(dbs));
% SEGSNR = -1*ones(length(objects), length(speakers), length(dbs));
for ii=6
for jj=1:length(speakers)
[yclean, fs_clean] = audioread(sprintf('audios/%s/%s',speakers(jj), soundfiles(jj)));
folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_noeq', objects(ii),scenario);
name = sprintf('%s/%s_%s',folder, speakers(jj), soundfiles(jj));
[y, Fs] = audioread(name);
% figure; plot(y)
y = noiseReduction_YW(y, Fs);
bpFilt = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',Fs);
bpFilt1 = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',fs_clean);
y = filter(bpFilt, y);
yclean = filter(bpFilt1, yclean);
[llr, wss, stoi_val, nist_snr,segsnr]=get_measures(yclean, fs_clean, y, Fs, 0);
LLR(jj) = llr;
WSS(jj) = wss;
STOI(jj) = stoi_val;
% NISTSNR(jj) = nist_snr;
% SEGSNR(jj) = segsnr;
% fprintf(sprintf('%s LLR: %.2f WSS: %.2f STOI: %.2f\n', titles(ii),llr,wss,stoi_val ));
% figure(123); subplot(length(dbs), length(speakers), (kk-1)*length(speakers)+jj);
% nsc = fix(0.1*Fs);
% nov = fix(nsc/2);
% nff = max(4096,2^nextpow2(nsc));
% spectrogram(y,hamming(nsc),nov,nff, Fs, 'yaxis','MinThreshold',-150); colorbar('off');
% ylim([0 1]);
% title(sprintf('%s %s', titles(ii), speakers(jj) ))
end
end
[LLR WSS STOI]
%% 5. impact of sound level across 6 objects
close all;
objects = ["smallcardboard", "spindrift", "smallpaperbag", "traderjoebag", "smalllayschip", "layschip"];
titles = ["small cardboard", "large cardboard", "small paper bag", ...
"large paper bag", "small bag of chips", "large bag of chips"];
scenario = 'radar0.5m_source0.5m';
speakers = ["mccs0", "fadg0"]; %,"beatles", "adele"];
soundfiles = ["sa1", "sa1", "let_it_be",...
"someone_like_you_verse"];
dbs = [60 70 80];
LLR = -1*ones(length(objects), length(speakers), length(dbs));
WSS = -1*ones(length(objects), length(speakers), length(dbs));
STOI = -1*ones(length(objects), length(speakers), length(dbs));
% NISTSNR = -1*ones(length(objects), length(speakers), length(dbs));
% SEGSNR = -1*ones(length(objects), length(speakers), length(dbs));
for ii=1:6
for jj=1:length(speakers)
for kk=1:length(dbs)
[yclean, fs_clean] = audioread(sprintf('audios/%s/%s_%ddb.wav',speakers(jj), soundfiles(jj),dbs(kk)));
folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_noeq', objects(ii),scenario);
name = sprintf('%s/%s_%s_%ddb.wav',folder, speakers(jj), soundfiles(jj), dbs(kk));
[y, Fs] = audioread(name);
y = noiseReduction_YW(y, Fs);
bpFilt = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',Fs);
bpFilt1 = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',fs_clean);
y = filter(bpFilt, y);
yclean = filter(bpFilt1, yclean);
% sound(y./max(abs(y)),Fs);
[llr, wss, stoi_val, nist_snr,segsnr]=get_measures(yclean, fs_clean, y, Fs, 0);
LLR(ii,jj,kk) = llr;
WSS(ii,jj,kk) = wss;
STOI(ii,jj,kk) = stoi_val;
% NISTSNR(ii,jj,kk) = nist_snr;
% SEGSNR(ii,jj,kk) = segsnr;
% fprintf(sprintf('%s LLR: %.2f WSS: %.2f STOI: %.2f\n', titles(ii),llr,wss,stoi_val ));
% figure(123); subplot(length(dbs), length(speakers), (kk-1)*length(speakers)+jj);
% nsc = fix(0.1*Fs);
% nov = fix(nsc/2);
% nff = max(4096,2^nextpow2(nsc));
% spectrogram(y,hamming(nsc),nov,nff, Fs, 'yaxis','MinThreshold',-150); colorbar('off');
% ylim([0 1]);
% title(sprintf('%s %s', titles(ii), speakers(jj) ))
end
end
end
% 4. impact of volume across 6 objects
fontsize = 13;
fig = figure('DefaultAxesFontSize', fontsize, 'Position', [100 100 200*3 200*2]);
h = plot(dbs, squeeze(mean(STOI,2)), "LineWidth", 1.5, "MarkerSize", 8);
xticks(dbs);
set(h,{'Marker'},{'+';'s';'o';'x';'^';'p'});
grid on;
ylim([0.1 0.85]);
legend(titles, "Location", "northwest", "FontSize", fontsize);
ylabel('Intelligibility (STOI) ');
xlabel("Sound pressure level (dB)");
exportgraphics(fig,'figures/impact_volume.png','Resolution',300);
%% 6. impact of sizes (60-80db)
close all;
objects = ["smallcardboard", "spindrift", "smallpaperbag", "traderjoebag", "smalllayschip", "layschip"];
titles = ["small cardboard", "large cardboard", "small paper bag", ...
"large paper bag", "small bag of chips", "large bag of chips"];
scenario = 'radar0.5m_source0.5m';
speakers = ["mccs0", "fadg0"]; %,"beatles", "adele"];
soundfiles = ["sa1", "sa1", "let_it_be",...
"someone_like_you_verse"];
dbs = [80];
LLR = -1*ones(length(objects), length(speakers), length(dbs));
WSS = -1*ones(length(objects), length(speakers), length(dbs));
STOI = -1*ones(length(objects), length(speakers), length(dbs));
% NISTSNR = -1*ones(length(objects), length(speakers), length(dbs));
% SEGSNR = -1*ones(length(objects), length(speakers), length(dbs));
for ii=1:6
for jj=1:length(speakers)
for kk=1:length(dbs)
[yclean, fs_clean] = audioread(sprintf('audios/%s/%s_%ddb.wav',speakers(jj), soundfiles(jj),dbs(kk)));
folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_noeq', objects(ii),scenario);
name = sprintf('%s/%s_%s_%ddb.wav',folder, speakers(jj), soundfiles(jj), dbs(kk));
[y, Fs] = audioread(name);
y = noiseReduction_YW(y, Fs);
bpFilt = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',Fs);
bpFilt1 = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',fs_clean);
y = filter(bpFilt, y);
yclean = filter(bpFilt1, yclean);
[llr, wss, stoi_val, nist_snr,segsnr]=get_measures(yclean, fs_clean, y, Fs, 0);
LLR(ii,jj,kk) = llr;
WSS(ii,jj,kk) = wss;
STOI(ii,jj,kk) = stoi_val;
% NISTSNR(ii,jj,kk) = nist_snr;
% SEGSNR(ii,jj,kk) = segsnr;
% fprintf(sprintf('%s LLR: %.2f WSS: %.2f STOI: %.2f\n', titles(ii),llr,wss,stoi_val ));
% figure(123); subplot(length(dbs), length(speakers), (kk-1)*length(speakers)+jj);
% nsc = fix(0.1*Fs);
% nov = fix(nsc/2);
% nff = max(4096,2^nextpow2(nsc));
% spectrogram(y,hamming(nsc),nov,nff, Fs, 'yaxis','MinThreshold',-150); colorbar('off');
% ylim([0 1]);
% title(sprintf('%s %s', titles(ii), speakers(jj) ))
end
end
end
% STOI(:,:,3)
a = reshape(STOI, length(objects), length(speakers)*length(dbs));
% a = a(:, 3:6);
% mean(a,2)
fontsize = 13;
fig = figure('DefaultAxesFontSize', fontsize, 'Position', [100 100 200*3 200*2]);
model_series = reshape(mean(a, 2), 2, 3).';%[10 40 50 60; 20 50 60 70; 30 60 80 90];
model_error = reshape(std(a, 0, 2), 2, 3).'/2;%[1 4 8 6; 2 5 9 12; 3 6 10 13];
% x = 1:length(model_series);
b = bar(model_series, 'grouped');
hold on
% Find the number of groups and the number of bars in each group
[ngroups, nbars] = size(model_series);
% Calculate the width for each bar group
groupwidth = min(0.8, nbars/(nbars + 1.5));
% Set the position of each error bar in the centre of the main bar
% Based on barweb.m by Bolu Ajiboye from MATLAB File Exchange
for i = 1:nbars
% Calculate center of each bar
x = (1:ngroups) - groupwidth/2 + (2*i-1) * groupwidth / (2*nbars);
er = errorbar(x, model_series(:,i), model_error(:,i), 'k*', 'linestyle', 'none');
er.MarkerSize = 10;
er.LineWidth = 1.0;
end
hold off
grid on;
ylabel('Intelligibility (STOI) ');
set(gca,'xticklabel', ["Cardboard", "Paper bag", "Bag of chips"]);
% xlabel("Sound Pressure Level (dB SPL)");
legend(["Small", "Large"], "Location", "northwest", "FontSize", fontsize);
% set(gca,'xticklabel',titles);
% xtickangle(25);
% print('figures/nistsnr_gain', '-dpng', '-r300');
% ax = gca;
exportgraphics(fig,'figures/impact_size.png','Resolution',300);
%% 7. impact of background noise level, bag of chips at 80 dB
close all;
objects = ["smallcardboard", "spindrift", "smallpaperbag", "traderjoebag", "smalllayschip", "layschip"];
titles = ["small cardboard", "large cardboard", "small paper bag", ...
"large paper bag", "small bag of chips", "large bag of chips"];
scenario = 'radar0.5m_source0.5m';
speakers = ["mccs0", "mccs0", "fadg0", "fadg0"]; %,"beatles", "adele"];
soundfiles = ["sa1", "sa2","sa1", "sa2"];
noise_suffix = ["acon", "typing", "typing_samedesk"];
% dbs = [80];
% LLR = -1*ones(length(objects), length(speakers), length(dbs));
% WSS = -1*ones(length(objects), length(speakers), length(dbs));
STOI = -1*ones(length(noise_suffix)+1, length(speakers));
% NISTSNR = -1*ones(length(objects), length(speakers), length(dbs));
% SEGSNR = -1*ones(length(objects), length(speakers), length(dbs));
for ii=6
for kk=1:length(noise_suffix)
for jj=1:length(speakers)
[yclean, fs_clean] = audioread(sprintf('audios/%s/%s_80db.wav',speakers(jj), soundfiles(jj)));
folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_eq', objects(ii),scenario);
name = sprintf('%s/%s_%s_80db.wav',folder, speakers(jj), soundfiles(jj));
[y, Fs] = audioread(name);
name = sprintf('%s/%s_%s_80db_%s.wav',folder, speakers(jj), soundfiles(jj), noise_suffix(kk));
[y_noisy, Fs] = audioread(name);
bpFilt = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',Fs);
bpFilt1 = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',fs_clean);
y = filter(bpFilt, y);
y_noisy = filter(bpFilt, y_noisy);
yclean = filter(bpFilt1, yclean);
[llr, wss, stoi_val, nist_snr,segsnr]=get_measures(yclean, fs_clean, y, Fs, 0);
STOI(1, jj) = stoi_val;
[llr, wss, stoi_val, nist_snr,segsnr]=get_measures(yclean, fs_clean, y_noisy, Fs, 0);
STOI(1+kk, jj) = stoi_val;
% NISTSNR(ii,jj,kk) = nist_snr;
% SEGSNR(ii,jj,kk) = segsnr;
% fprintf(sprintf('%s LLR: %.2f WSS: %.2f STOI: %.2f\n', titles(ii),llr,wss,stoi_val ));
% figure(123); subplot(length(dbs), length(speakers), (kk-1)*length(speakers)+jj);
% nsc = fix(0.1*Fs);
% nov = fix(nsc/2);
% nff = max(4096,2^nextpow2(nsc));
% spectrogram(y,hamming(nsc),nov,nff, Fs, 'yaxis','MinThreshold',-150); colorbar('off');
% ylim([0 1]);
% title(sprintf('%s %s', titles(ii), speakers(jj) ))
end
end
end
% [mean(STOI1) mean(STOI2)]
% [std(STOI1) std(STOI2)]
% % STOI(:,:,3)
fontsize = 13;
fig = figure('DefaultAxesFontSize', fontsize, 'Position', [100 100 200*3 200*2]);
model_series = mean(STOI, 2);%[10 40 50 60; 20 50 60 70; 30 60 80 90];
model_error = std(STOI, 0, 2)/2;%[1 4 8 6; 2 5 9 12; 3 6 10 13];
% x = 1:length(model_series);
b = bar(model_series);
hold on
% Find the number of groups and the number of bars in each group
[ngroups, nbars] = size(model_series);
% Calculate the width for each bar group
groupwidth = min(0.8, nbars/(nbars + 1.5));
% Set the position of each error bar in the centre of the main bar
% Based on barweb.m by Bolu Ajiboye from MATLAB File Exchange
for i = 1:nbars
% Calculate center of each bar
x = (1:ngroups) - groupwidth/2 + (2*i-1) * groupwidth / (2*nbars);
er = errorbar(x, model_series(:,i), model_error(:,i), 'k*', 'linestyle', 'none');
er.MarkerSize = 10;
er.LineWidth = 1.0;
end
hold off
ylabel('Intelligibility (STOI) ');
set(gca,'xticklabel', ["Quiet", "Window AC", "TYPE I", "TYPE II"]);
% xlabel("Sound Pressure Level (dB SPL)");
% legend(["wo/ noise source", "w/ noise source"], "Location", "northwest");
% set(gca,'xticklabel',titles);
xtickangle(0);
grid on;
% ylim([0 0.9]);
% print('figures/nistsnr_gain', '-dpng', '-r300');
% ax = gca;
exportgraphics(fig,'figures/impact_background_noise.png','Resolution',300);
%% 8. impact of radar distance, bag of chips at 80 dB
close all;
objects = ["smallcardboard", "spindrift", "smallpaperbag", "traderjoebag", "smalllayschip", "layschip"];
titles = ["small cardboard", "large cardboard", "small paper bag", ...
"large paper bag", "small bag of chips", "large bag of chips"];
scenario = ["radar0.5m_source0.5m", "radar1.0m_source0.5m", "radar1.5m_source0.5m"];
speakers = ["mccs0", "mccs0", "fadg0", "fadg0"]; %,"beatles", "adele"];
soundfiles = ["sa1", "sa2","sa1", "sa2"];
% dbs = [80];
% LLR = -1*ones(length(objects), length(speakers), length(dbs));
% WSS = -1*ones(length(objects), length(speakers), length(dbs));
STOI = -1*ones(3, length(scenario), length(speakers));
% STOI2 = -1*ones(length(speakers), 1);
% NISTSNR = -1*ones(length(objects), length(speakers), length(dbs));
% SEGSNR = -1*ones(length(objects), length(speakers), length(dbs));
for ii=2:2:6
for kk=1:length(scenario)
for jj=1:length(speakers)
[yclean, fs_clean] = audioread(sprintf('audios/%s/%s_80db.wav',speakers(jj), soundfiles(jj)));
folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_noeq', objects(ii),scenario(kk));
name = sprintf('%s/%s_%s_80db.wav',folder, speakers(jj), soundfiles(jj));
[y, Fs] = audioread(name);
y = noiseReduction_YW(y, Fs);
bpFilt = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',Fs);
bpFilt1 = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',fs_clean);
y = filter(bpFilt, y);
yclean = filter(bpFilt1, yclean);
[llr, wss, stoi_val, nist_snr,segsnr]=get_measures(yclean, fs_clean, y, Fs, 0);
STOI(ii/2,kk,jj) = stoi_val;
% NISTSNR(ii,jj,kk) = nist_snr;
% SEGSNR(ii,jj,kk) = segsnr;
% fprintf(sprintf('%s LLR: %.2f WSS: %.2f STOI: %.2f\n', titles(ii),llr,wss,stoi_val ));
% figure(123); subplot(length(dbs), length(speakers), (kk-1)*length(speakers)+jj);
% nsc = fix(0.1*Fs);
% nov = fix(nsc/2);
% nff = max(4096,2^nextpow2(nsc));
% spectrogram(y,hamming(nsc),nov,nff, Fs, 'yaxis','MinThreshold',-150); colorbar('off');
% ylim([0 1]);
% title(sprintf('%s %s', titles(ii), speakers(jj) ))
end
end
end
[mean(STOI,3)]
[std(STOI,0,3) ]
%%
fontsize = 13;
fig = figure('DefaultAxesFontSize', fontsize, 'Position', [100 100 200*3 200*2]);
model_series = mean(STOI, 3);%[10 40 50 60; 20 50 60 70; 30 60 80 90];
model_error = std(STOI,0,3)/2;%[1 4 8 6; 2 5 9 12; 3 6 10 13];
x = 1:size(model_series,2);
markers = ['+';'s';'o';'*';'^';'p'];
for ii=1:3
er = errorbar(x, model_series(ii,:),model_error(ii,:));
% er.Color = [0 0 0];
er.LineStyle = '-';
er.Marker = markers(ii+1);
er.MarkerSize = 8;
er.LineWidth = 1.5;
hold on;
end
grid on;
xlabel('Radar distance (meter)');
ylabel('Intelligibility (STOI)');
xticks(x);
set(gca,'xticklabel',[0.5 1.0 1.5]);
% xtickangle(25);
legend(titles(2:2:6), "Location", "southwest", "FontSize", fontsize);
exportgraphics(fig,'figures/impact_radar_distance.png','Resolution',300)
%% 9. impact of sampling rate, bag of chips at 80 dB
close all;
objects = ["smallcardboard", "spindrift", "smallpaperbag", "traderjoebag", "smalllayschip", "layschip"];
titles = ["small cardboard", "large cardboard", "small paper bag", ...
"large paper bag", "small bag of chips", "large bag of chips"];
scenario = ["radar0.5m_source0.5m"];
speakers = ["mccs0", "mccs0", "fadg0", "fadg0"]; %,"beatles", "adele"];
soundfiles = ["sa1", "sa2","sa1", "sa2"];
% downsample = [1,2,3,4,5];
downsample = [1,0.75,0.5,0.25];
% dbs = [80];
% LLR = -1*ones(length(objects), length(speakers), length(dbs));
% WSS = -1*ones(length(objects), length(speakers), length(dbs));
STOI = -1*ones(3, length(downsample), length(speakers));
% STOI2 = -1*ones(length(speakers), 1);
% NISTSNR = -1*ones(length(objects), length(speakers), length(dbs));
% SEGSNR = -1*ones(length(objects), length(speakers), length(dbs));
for ii=2:2:6
for kk=1:length(downsample)
for jj=1:length(speakers)
[yclean, fs_clean] = audioread(sprintf('audios/%s/%s_80db.wav',speakers(jj), soundfiles(jj)));
folder = sprintf('B:/experiment_data2/%s/%s/profile3/wav_noeq', objects(ii),scenario);
name = sprintf('%s/%s_%s_80db.wav',folder, speakers(jj), soundfiles(jj));
[y, Fs] = audioread(name);
% yclean = resample(yclean, 10000, floor(fs_clean));
% y = y(1:downsample(kk):end);
% new_Fs = Fs/downsample(kk);
% y = noiseReduction_YW(y, new_Fs);
% y = resample(y, 10000, floor(new_Fs));
%
% bpFilt = designfilt('bandpassiir','FilterOrder',20, ...
% 'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
% 'SampleRate',10000);
% % bpFilt = designfilt('bandpassfir','FilterOrder',20, ...
% % 'CutoffFrequency1',100,'CutoffFrequency2',1000, ...
% % 'SampleRate',new_Fs+1);
% % fvtool(bpFilt)
% y = filter(bpFilt, y);
% yclean = filter(bpFilt, yclean);
% STOI(kk,jj) = stoi(yclean,y, 10000);
% continue;
% % yclean = [yclean; zeros(2e4,1)];
% % y = [y; zeros(2e4,1)];
% yclean = decimate(yclean, downsample(kk));
% new_fs_clean = fs_clean/downsample(kk);
%
% % y = decimate(y, downsample(kk));
% % yclean = yclean(1:downsample(kk):end);
% y = y(1:downsample(kk):end);
% new_Fs = Fs/downsample(kk);
% y = noiseReduction_YW(y, new_Fs);
new_Fs = Fs*downsample(kk)/16;
new_fs_clean = fs_clean*downsample(kk);
% yclean = resample(yclean, downsample(kk), 16);
% y = resample(yclean, downsample(kk), 16);
%
bpFilt = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',new_Fs);
bpFilt1 = designfilt('bandpassiir','FilterOrder',20, ...
'HalfPowerFrequency1',100,'HalfPowerFrequency2',1000, 'DesignMethod','butter', ...
'SampleRate',new_fs_clean);
% bpFilt = designfilt('bandpassfir','FilterOrder',20, ...