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1 38:c2204b18f4a2 rmeddis
%skript to test several stimuli with MAP1_14
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% Tim Juergens, September 2011
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%addpath('C:\Documents and Settings\tjurgens\My Documents\Dropbox\matlab');
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addpath('C:\MAP\userPrograms');
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parameterfile='Normal';
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%Read the wavfiles
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[da,sfreq] = wavread('..\wavFileStore\new-da-44khz.wav'); %artificial stimulus
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ba = wavread('..\wavFileStore\new-ba-44khz.wav'); %artificial stimulus
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%set level of speech stimuli (RMS 1 equals 94 dB)
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da_69dB = da./sqrt(mean(da.^2)).*10^(-(94-69)/20);
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da_49dB = da./sqrt(mean(da.^2)).*10^(-(94-49)/20);
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ba_69dB = ba./sqrt(mean(ba.^2)).*10^(-(94-69)/20);
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%20*log10(sqrt(mean(ba_69dB.^2))/20e-6) %reference pressure: 20uPa
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cd ..
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cd MAP
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%MAP and store AN output of HSR fibers in variables
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MAP1_14(da_69dB,sfreq,-1,parameterfile,'probability');
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global ANprobRateOutput
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AN_da_69dB = ANprobRateOutput(1:size(ANprobRateOutput,1)/2,:);
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 MAP1_14(da_49dB,sfreq,-1,parameterfile,'probability');
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 global ANprobRateOutput
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 AN_da_49dB = ANprobRateOutput(1:size(ANprobRateOutput,1)/2,:);
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%
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 MAP1_14(ba_69dB,sfreq,-1,parameterfile,'probability');
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 global ANprobRateOutput
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 global savedBFlist
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 AN_ba_69dB = ANprobRateOutput(1:size(ANprobRateOutput,1)/2,:);
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%Do the IPIH analysis
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 [iih_da_69dB,IPIhisttime_da_69dB,IPIhistweight_da_69dB] = track_formants_from_IPI_guy(AN_da_69dB,sfreq);
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 %[iih_da_69dB,IPIhisttime_da_69dB,IPIhistweight_da_69dB] = IPIHextract(AN_da_69dB,sfreq);
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 poolIPI_across_channels(IPIhisttime_da_69dB,IPIhistweight_da_69dB);
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 map_iih_onto_log(iih_da_69dB,30,sfreq);
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  [iih_da_49dB,IPIhisttime_da_49dB,IPIhistweight_da_49dB] = track_formants_from_IPI_guy(AN_da_49dB,sfreq);
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%  poolIPI_across_channels(IPIhisttime_da_49dB,IPIhistweight_da_49dB);
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%
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  [iih_ba_69dB,IPIhisttime_ba_69dB,IPIhistweight_ba_69dB] = track_formants_from_IPI_guy(AN_ba_69dB,sfreq);
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%  [tmp,ctr]=poolIPI_across_channels(IPIhisttime_ba_69dB,IPIhistweight_ba_69dB);
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%
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 %%%%%% OLLO stimuli %%%%%%%%%%%%%%%%%
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%  OLLOwavfiles = {'dahd','bahb','dehd','behb','died','bieb','dohd','bohb','duhd','buhb','atta','ascha','assa'};
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%  OLLO_level = 69; %level of OLLO files in dB SPL
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%  paramChanges = [];%{'DRNLParams.rateToAttenuationFactorProb = 0;'};
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%
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% for iCounter = 1:length(OLLOwavfiles)
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%
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%     %read the stimuli
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%     eval(['[' OLLOwavfiles{iCounter} ',sfreq_OLLO] = wavread([''..\wavFileStore\S02M_L' ...
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%         sprintf('%3.3i',sloga2iloga(OLLOwavfiles{iCounter})) '_V6_M1_N2_CS0.wav'']);'])
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%
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%     %delete preceding and subsequent silence and resample to 44100 Hz
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%     %sampling frequency
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%     eval([OLLOwavfiles{iCounter} ' = cutsignal(' OLLOwavfiles{iCounter} ',sfreq_OLLO,''d_d'');']);
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%     eval([OLLOwavfiles{iCounter} ' = resample(' OLLOwavfiles{iCounter} ',sfreq,sfreq_OLLO);']);
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%
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%     %set level
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%     partfilename = [OLLOwavfiles{iCounter} num2str(OLLO_level) 'dB'];
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%     eval([partfilename ' = ' OLLOwavfiles{iCounter} ...
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%         './sqrt(mean(' OLLOwavfiles{iCounter} '.^2)).*10^(-(94-' num2str(OLLO_level) ')/20);']);
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%
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%     %use MAP
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%     eval(['MAP1_14(' partfilename ',sfreq,-1,parameterfile,''probability'', paramChanges );']);
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%     global ANprobRateOutput
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%     eval(['AN_' partfilename ' = ANprobRateOutput(1:size(ANprobRateOutput,1)/2,:);']);
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%
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%     %Do the IPIH analysis
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%     eval(['[iih_' partfilename ',IPIhisttime_' partfilename ',IPIhistweight_' ...
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%         partfilename '] = track_formants_from_IPI_guy(AN_' partfilename ',sfreq);']);
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%     eval(['poolIPI_across_channels(IPIhisttime_' partfilename ',IPIhistweight_' partfilename ');']);
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%     title(partfilename);
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%     %set(gca,'Title',partfilename);
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%     xlabel('Interval (ms)')
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%     ylabel('Stimulus time (ms)');
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%
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%     eval(['map_iih_onto_log(iih_' partfilename ',30,sfreq);']);
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%     title(partfilename);
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% end
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%%%%%%%%%%%%% OLLO stimuli from different speakers
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%  OLLOwavfiles = {'S01F_L111_V6_M1_N2_CS0.wav','S02M_L111_V6_M1_N2_CS0.wav'};
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%  OLLO_level = 69; %level of OLLO files in dB SPL
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% for iCounter = 1:length(OLLOwavfiles)
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%
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%     partfilename = [OLLOwavfiles{iCounter}(1:end-4) num2str(OLLO_level) 'dB'];
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%     %read the stimuli
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%     eval(['[' partfilename ',sfreq_OLLO] = wavread([''..\wavFileStore\' OLLOwavfiles{iCounter} ''']);'])
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%
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%     %delete preceding and subsequent silence and resample to 44100 Hz
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%     %sampling frequency
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%     eval([partfilename ' = cutsignal(' partfilename ',sfreq_OLLO,''d_d'');']);
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%     eval([partfilename ' = resample(' partfilename ',sfreq,sfreq_OLLO);']);
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%
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%     %set level
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%
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%     eval([partfilename ' = ' partfilename ...
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%         './sqrt(mean(' partfilename '.^2)).*10^(-(94-' num2str(OLLO_level) ')/20);']);
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%
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%     %use MAP
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%     eval(['MAP1_14(' partfilename ',sfreq,-1,parameterfile,''probability'');']);
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%     global ANprobRateOutput
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%     eval(['AN_' partfilename ' = ANprobRateOutput(1:size(ANprobRateOutput,1)/2,:);']);
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%
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%     %Do the IPIH analysis
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%     eval(['[iih_' partfilename ',IPIhisttime_' partfilename ',IPIhistweight_' ...
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%         partfilename '] = track_formants_from_IPI_guy(AN_' partfilename ',sfreq);']);
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%     eval(['poolIPI_across_channels(IPIhisttime_' partfilename ',IPIhistweight_' partfilename ');']);
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%     title(partfilename);
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%     %set(gca,'Title',partfilename);
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%     xlabel('Interval (ms)')
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%     ylabel('Stimulus time (ms)');
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%
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%     eval(['map_iih_onto_log(iih_' partfilename ',30,sfreq);']);
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%     title(partfilename);
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% end
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%%%%%% da stimuli with different pitches %%%%%%%%%%%%%%%%%
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  dawavfiles = { '200ms_da_080Hz.wav','200ms_da_100Hz.wav','200ms_da_120Hz.wav','200ms_da_140Hz.wav', ...
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      '200ms_da_160Hz.wav','200ms_da_180Hz.wav','200ms_da_200Hz.wav','200ms_da_220Hz.wav', ...
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      '200ms_da_240Hz.wav', ...
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      'noise.wav', ...
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      'da_whispered.wav', ...
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      };
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 da_level = 69; %level of OLLO files in dB SPL
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for iCounter = 1:length(dawavfiles)
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    %read the stimuli
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    partfilename = ['da' dawavfiles{iCounter}(1:end-4)];
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    eval([ partfilename ' = wavread(''..\wavFileStore\' dawavfiles{iCounter} ''');'])
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    %set level
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    eval([partfilename ' = ' partfilename ...
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        './sqrt(mean(' partfilename '.^2)).*10^(-(94-' num2str(da_level) ')/20);']);
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    %use MAP
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    eval(['MAP1_14(' partfilename ',sfreq,-1,parameterfile,''probability'');']);
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    global ANprobRateOutput
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    eval(['AN_' partfilename ' = ANprobRateOutput(1:size(ANprobRateOutput,1)/2,:);']);
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    %Do the IPIH analysis
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    eval(['[iih_' partfilename ',IPIhisttime_' partfilename ',IPIhistweight_' ...
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            partfilename '] = IPIHextract(AN_' partfilename ',sfreq);']);%partfilename '] = track_formants_from_IPI_guy(AN_' partfilename ',sfreq);']);%
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    eval(['poolIPI_across_channels(IPIhisttime_' partfilename ',IPIhistweight_' partfilename ');']);
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    title(partfilename);
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    %set(gca,'Title',partfilename);
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    xlabel('Interval (ms)')
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    ylabel('Stimulus time (ms)');
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    eval(['map_iih_onto_log(iih_' partfilename ',30,sfreq);']);
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    title(partfilename);
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end
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%
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%