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calcAveStats.m
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function [aveStats, varNames] = calcAveStats(data, param)
%% [aveStats, varNames] = calcAveStats(data, param)
%
% Function to calculate 1D aveStats table of averages of all statistics available in data structure
% Handle input arguments - if not entered
if (nargin < 2); param = struct; end
if (nargin < 1); data = struct; end
if ~isfield(param,'fileNum'); param.fileNum = 1; end
if ~isfield(param,'transposeOption'); param.transposeOption = 0; end % Transpose exported average stats from row to column format
if isempty(data)
error('Enter data structure to use function calcAveStats');
end
% Initialize Table and assign filename:
[~, fileName, ~] = parsePath(data.saveFile);
outTable = table({fileName}, 'VariableNames', {'File'});
%% LFP
% LFP SWR event data
if isfield(data, 'SWR')
varNames = {'nSWRs', 'SWR_frequency_Hz', 'SWR_duration_ms', 'SWR_IEI_s', 'SWR_amplitude_uV', 'SWR_area_uVs', 'SWR_power_uV2'};
outTable = [outTable table(length(data.SWR.evStart) - sum(isnan(data.SWR.evStart)), data.SWR.frequency, mean(data.SWR.duration,'omitnan'), mean(data.SWR.IEI,'omitnan'), 10^3 * mean(data.SWR.amp,'omitnan'), mean(data.SWR.area,'omitnan'), 10^6 * mean(data.SWR.power,'omitnan'), 'VariableNames', varNames)];
end
% LFP Sharp Wave
if isfield(data, 'SW')
% SW Event Stats:
varNames = {'nSWs', 'SW_frequency_Hz', 'SW_duration_ms', 'SW_IEI_s', 'SW_Event_power_uV2'};
outTable = [outTable table(length(data.SW.evStart) - sum(isnan(data.SW.evStart)), data.SW.frequency, mean(data.SW.duration,'omitnan'), mean(data.SW.IEI,'omitnan'), 10^6 * mean(data.SW.power,'omitnan'), 'VariableNames', varNames)];
% Total Stats:
if isfield(data.SW, 'tPower'); outTable = [outTable table(10^6 * data.SW.tPower, 'VariableNames', {'SW_Total_Power_uV2'})]; end
% SWR Stats:
if isfield(data.SW, 'SWR')
if isfield(data.SW.SWR, 'power'); outTable = [outTable table(10^6 * mean(data.SW.SWR.power,'omitnan'), 'VariableNames', {'SW_SWR_Power_uV2'})]; end
end
end
% LFP Theta
if isfield(data, 'theta')
% Total Stats:
if isfield(data.theta, 'tPower'); outTable = [outTable table(10^6 * data.theta.tPower, 'VariableNames', {'Theta_Tot_Power_uV2'})]; end
if isfield(data.theta, 'FFT')
if isfield(data.theta.FFT, 'pkFreq'); outTable = [outTable table(data.theta.FFT.pkFreq, 'VariableNames', {'Theta_FFT_pkFreq_Hz'})]; end
if isfield(data.theta.FFT, 'fitMean'); outTable = [outTable table(data.theta.FFT.fitMean, 'VariableNames', {'Theta_FFT_fitMean_Hz'})]; end
if isfield(data.theta.FFT, 'fitSD'); outTable = [outTable table(data.theta.FFT.fitSD, 'VariableNames', {'Theta_FFT_fitSD_Hz'})]; end
if isfield(data.theta.FFT, 'fitFWHM'); outTable = [outTable table(data.theta.FFT.fitFWHM, 'VariableNames', {'Theta_FFT_fitFWHM_Hz'})]; end
end
if isfield(data.theta, 'phase')
if isfield(data.theta.phase, 'nCycle'); outTable = [outTable table(data.theta.phase.nCycle, 'VariableNames', {'Theta_Tot_nCycle'})]; end
if isfield(data.theta.phase, 'phFreq'); outTable = [outTable table(data.theta.phase.phFreq, 'VariableNames', {'Theta_Tot_phFreq_Hz'})]; end
end
end
% LFP Beta
if isfield(data, 'beta')
% Total Stats:
if isfield(data.beta, 'tPower'); outTable = [outTable table(10^6 * data.beta.tPower, 'VariableNames', {'Beta_Tot_Power_uV2'})]; end
if isfield(data.beta, 'FFT')
if isfield(data.beta.FFT, 'pkFreq'); outTable = [outTable table(data.beta.FFT.pkFreq, 'VariableNames', {'Beta_FFT_pkFreq_Hz'})]; end
if isfield(data.beta.FFT, 'fitMean'); outTable = [outTable table(data.beta.FFT.fitMean, 'VariableNames', {'Beta_FFT_fitMean_Hz'})]; end
if isfield(data.beta.FFT, 'fitSD'); outTable = [outTable table(data.beta.FFT.fitSD, 'VariableNames', {'Beta_FFT_fitSD_Hz'})]; end
if isfield(data.beta.FFT, 'fitFWHM'); outTable = [outTable table(data.beta.FFT.fitFWHM, 'VariableNames', {'Beta_FFT_fitFWHM_Hz'})]; end
end
if isfield(data.beta, 'phase')
if isfield(data.beta.phase, 'nCycle'); outTable = [outTable table(data.beta.phase.nCycle, 'VariableNames', {'Beta_Tot_nCycle'})]; end
if isfield(data.beta.phase, 'phFreq'); outTable = [outTable table(data.beta.phase.phFreq, 'VariableNames', {'Beta_Tot_phFreq_Hz'})]; end
end
end
% LFP Gamma
if isfield(data, 'gamma')
% Total Stats:
if isfield(data.gamma, 'tPower'); outTable = [outTable table(10^6 * data.gamma.tPower, 'VariableNames', {'Gamma_Tot_Power_uV2'})]; end
if isfield(data.gamma, 'FFT')
if isfield(data.gamma.FFT, 'pkFreq'); outTable = [outTable table(data.gamma.FFT.pkFreq, 'VariableNames', {'Gamma_FFT_pkFreq_Hz'})]; end
if isfield(data.gamma.FFT, 'fitMean'); outTable = [outTable table(data.gamma.FFT.fitMean, 'VariableNames', {'Gamma_FFT_fitMean_Hz'})]; end
if isfield(data.gamma.FFT, 'fitSD'); outTable = [outTable table(data.gamma.FFT.fitSD, 'VariableNames', {'Gamma_FFT_fitSD_Hz'})]; end
if isfield(data.gamma.FFT, 'fitFWHM'); outTable = [outTable table(data.gamma.FFT.fitFWHM, 'VariableNames', {'Gamma_FFT_fitFWHM_Hz'})]; end
end
if isfield(data.gamma, 'phase')
if isfield(data.gamma.phase, 'nCycle'); outTable = [outTable table(data.gamma.phase.nCycle, 'VariableNames', {'Gamma_Tot_nCycle'})]; end
if isfield(data.gamma.phase, 'phFreq'); outTable = [outTable table(data.gamma.phase.phFreq, 'VariableNames', {'Gamma_Tot_phFreq_Hz'})]; end
end
if isfield(data.gamma, 'xFreq')
if isfield(data.gamma.xFreq, 'pacMI_Len'); outTable = [outTable table(data.gamma.xFreq.pacMI_Len, 'VariableNames', {'Gamma_pacMI_Len'})]; end
if isfield(data.gamma.xFreq, 'pacMI_Phase'); outTable = [outTable table(data.gamma.xFreq.pacMI_Phase, 'VariableNames', {'Gamma_pacMI_Phase'})]; end
if isfield(data.gamma.xFreq, 'pacMI_LenZ'); outTable = [outTable table(data.gamma.xFreq.pacMI_LenZ, 'VariableNames', {'Gamma_pacMI_LenZ'})]; end
if isfield(data.gamma.xFreq, 'pacMIShf_LenAve'); outTable = [outTable table(data.gamma.xFreq.pacMIShf_LenAve, 'VariableNames', {'Gamma_pacMIShf_LenAve'})]; end
if isfield(data.gamma.xFreq, 'pacMIShf_LenSTD'); outTable = [outTable table(data.gamma.xFreq.pacMIShf_LenSTD, 'VariableNames', {'Gamma_pacMIShf_LenSTD'})]; end
end
% SWR Stats:
if isfield(data.gamma, 'SWR')
if isfield(data.gamma.SWR, 'power'); outTable = [outTable table(10^6 * mean(data.gamma.SWR.power,'omitnan'), 'VariableNames', {'Gamma_SWR_Power_uV2'})]; end
if isfield(data.gamma.SWR, 'FFT')
if isfield(data.gamma.SWR.FFT, 'pkFreq'); outTable = [outTable table(mean(data.gamma.SWR.FFT.pkFreq,'omitnan'), 'VariableNames', {'Gamma_SWR_pkFreq_Hz'})]; end
end
if isfield(data.gamma.SWR, 'phase')
if isfield(data.gamma.SWR.phase, 'nCycle'); outTable = [outTable table(mean(data.gamma.SWR.phase.nCycle,'omitnan'), 'VariableNames', {'Gamma_SWR_nCycle'})]; end
if isfield(data.gamma.SWR.phase, 'phFreq'); outTable = [outTable table(mean(data.gamma.SWR.phase.phFreq,'omitnan'), 'VariableNames', {'Gamma_SWR_phFreq_Hz'})]; end
end
end
end
% LFP High Gamma
if isfield(data, 'hgamma')
% Total Stats:
if isfield(data.hgamma, 'tPower'); outTable = [outTable table(10^6 * data.hgamma.tPower, 'VariableNames', {'HGamma_Tot_Power_uV2'})]; end
if isfield(data.hgamma, 'FFT')
if isfield(data.hgamma.FFT, 'pkFreq'); outTable = [outTable table(data.hgamma.FFT.pkFreq, 'VariableNames', {'HGamma_FFT_pkFreq_Hz'})]; end
if isfield(data.hgamma.FFT, 'fitMean'); outTable = [outTable table(data.hgamma.FFT.fitMean, 'VariableNames', {'HGamma_FFT_fitMean_Hz'})]; end
if isfield(data.hgamma.FFT, 'fitSD'); outTable = [outTable table(data.hgamma.FFT.fitSD, 'VariableNames', {'HGamma_FFT_fitSD_Hz'})]; end
if isfield(data.hgamma.FFT, 'fitFWHM'); outTable = [outTable table(data.hgamma.FFT.fitFWHM, 'VariableNames', {'HGamma_FFT_fitFWHM_Hz'})]; end
end
if isfield(data.hgamma, 'phase')
if isfield(data.hgamma.phase, 'nCycle'); outTable = [outTable table(data.hgamma.phase.nCycle, 'VariableNames', {'HGamma_Tot_nCycle'})]; end
if isfield(data.hgamma.phase, 'phFreq'); outTable = [outTable table(data.hgamma.phase.phFreq, 'VariableNames', {'HGamma_Tot_phFreq_Hz'})]; end
end
if isfield(data.hgamma, 'xFreq')
if isfield(data.hgamma.xFreq, 'pacMI_Len'); outTable = [outTable table(data.hgamma.xFreq.pacMI_Len, 'VariableNames', {'HGamma_pacMI_Len'})]; end
if isfield(data.hgamma.xFreq, 'pacMI_Phase'); outTable = [outTable table(data.hgamma.xFreq.pacMI_Phase, 'VariableNames', {'HGamma_pacMI_Phase'})]; end
if isfield(data.hgamma.xFreq, 'pacMI_LenZ'); outTable = [outTable table(data.hgamma.xFreq.pacMI_LenZ, 'VariableNames', {'HGamma_pacMI_LenZ'})]; end
if isfield(data.hgamma.xFreq, 'pacMIShf_LenAve'); outTable = [outTable table(data.hgamma.xFreq.pacMIShf_LenAve, 'VariableNames', {'HGamma_pacMIShf_LenAve'})]; end
if isfield(data.hgamma.xFreq, 'pacMIShf_LenSTD'); outTable = [outTable table(data.hgamma.xFreq.pacMIShf_LenSTD, 'VariableNames', {'HGamma_pacMIShf_LenSTD'})]; end
end
% SWR Stats:
if isfield(data.hgamma, 'SWR')
if isfield(data.hgamma.SWR, 'power'); outTable = [outTable table(10^6 * mean(data.hgamma.SWR.power,'omitnan'), 'VariableNames', {'HGamma_SWR_Power_uV2'})]; end
if isfield(data.hgamma.SWR, 'FFT')
if isfield(data.hgamma.SWR.FFT, 'pkFreq'); outTable = [outTable table(mean(data.hgamma.SWR.FFT.pkFreq,'omitnan'), 'VariableNames', {'HGamma_SWR_pkFreq_Hz'})]; end
end
if isfield(data.hgamma.SWR, 'phase')
if isfield(data.hgamma.SWR.phase, 'nCycle'); outTable = [outTable table(mean(data.hgamma.SWR.phase.nCycle,'omitnan'), 'VariableNames', {'HGamma_SWR_nCycle'})]; end
if isfield(data.hgamma.SWR.phase, 'phFreq'); outTable = [outTable table(mean(data.hgamma.SWR.phase.phFreq,'omitnan'), 'VariableNames', {'HGamma_SWR_phFreq_Hz'})]; end
end
end
end
% LFP Ripple
if isfield(data, 'R')
% R Event Stats:
varNames = {'nRipples', 'Ripple_frequency_Hz', 'Ripple_duration_ms', 'Ripple_IEI_s', 'Ripple_Event_power_uV2'};
outTable = [outTable table(length(data.R.evStart) - sum(isnan(data.R.evStart)), data.R.frequency, mean(data.R.duration,'omitnan'), mean(data.R.IEI,'omitnan'), 10^6 * mean(data.R.power,'omitnan'), 'VariableNames', varNames)];
% Total Stats:
if isfield(data.R, 'tPower'); outTable = [outTable table(10^6 * data.R.tPower, 'VariableNames', {'Ripple_Tot_Power_uV2'})]; end
% SWR Stats:
if isfield(data.R, 'SWR')
if isfield(data.R.SWR, 'power'); outTable = [outTable table(10^6 * mean(data.R.SWR.power,'omitnan'), 'VariableNames', {'Ripple_SWR_Power_uV2'})]; end
if isfield(data.R.SWR, 'FFT')
if isfield(data.R.SWR.FFT, 'pkFreq'); outTable = [outTable table(mean(data.R.SWR.FFT.pkFreq,'omitnan'), 'VariableNames', {'Ripple_SWR_pkFreq_Hz'})]; end
end
if isfield(data.R.SWR, 'phase')
if isfield(data.R.SWR.phase, 'nCycle'); outTable = [outTable table(mean(data.R.SWR.phase.nCycle,'omitnan'), 'VariableNames', {'Ripple_SWR_nCycle'})]; end
if isfield(data.R.SWR.phase, 'phFreq'); outTable = [outTable table(mean(data.R.SWR.phase.phFreq,'omitnan'), 'VariableNames', {'Ripple_SWR_phFreq_Hz'})]; end
end
end
end
% LFP Fast Ripple
if isfield(data, 'fR')
% Total Stats:
if isfield(data.fR, 'tPower'); outTable = [outTable table(10^6 * data.fR.tPower, 'VariableNames', {'fastRipple_Tot_Power_uV2'})]; end
% SWR Stats:
if isfield(data.fR, 'SWR')
if isfield(data.fR.SWR, 'power'); outTable = [outTable table(10^6 * mean(data.fR.SWR.power,'omitnan'), 'VariableNames', {'fastRipple_SWR_Power_uV2'})]; end
if isfield(data.fR.SWR, 'FFT')
if isfield(data.fR.SWR.FFT, 'pkFreq'); outTable = [outTable table(mean(data.fR.SWR.FFT.pkFreq,'omitnan'), 'VariableNames', {'fastRipple_SWR_pkFreq_Hz'})]; end
end
if isfield(data.fR.SWR, 'phase')
if isfield(data.fR.SWR.phase, 'nCycle'); outTable = [outTable table(mean(data.fR.SWR.phase.nCycle,'omitnan'), 'VariableNames', {'fastRipple_SWR_nCycle'})]; end
if isfield(data.fR.SWR.phase, 'phFreq'); outTable = [outTable table(mean(data.fR.SWR.phase.phFreq,'omitnan'), 'VariableNames', {'fastRipple_SWR_phFreq_Hz'})]; end
end
end
end
%% Cell-Attached
if isfield(data, 'C')
% Spike Stats:
if isfield(data.C, 'spike')
% Total Stats:
if isfield(data.C.spike, 'nEvents'); outTable = [outTable table(data.C.spike.nEvents, 'VariableNames', {'nSpikes'})]; end
if isfield(data.C.spike, 'frequency'); outTable = [outTable table(data.C.spike.frequency, 'VariableNames', {'Spike_frequency_Hz'})]; end
% SWR Stats:
if isfield(data.C.spike, 'nEventsA'); outTable = [outTable table(data.C.spike.nEventsA, 'VariableNames', {'nSpikes_Align'})]; end
if isfield(data.C.spike, 'nEventsC'); outTable = [outTable table(data.C.spike.nEventsC, 'VariableNames', {'nSpikes_Coinc'})]; end
% Theta Stats:
if isfield(data.C.spike, 'theta')
if isfield(data.C.spike.theta, 'phaseAve')
varNames = {'Spike-Theta_Ave_rad', 'Spike-Theta_R', 'Spike-Theta_P', 'Spike-Theta_Z'};
outTable = [outTable table(data.C.spike.theta.phaseAve, data.C.spike.theta.phaseR, data.C.spike.theta.phaseP, data.C.spike.theta.phaseZ, 'VariableNames', varNames)];
end
end
% Beta Stats:
if isfield(data.C.spike, 'beta')
if isfield(data.C.spike.beta, 'phaseAve')
varNames = {'Spike-Beta_Ave_rad', 'Spike-Beta_R', 'Spike-Beta_P', 'Spike-Beta_Z'};
outTable = [outTable table(data.C.spike.beta.phaseAve, data.C.spike.beta.phaseR, data.C.spike.beta.phaseP, data.C.spike.beta.phaseZ, 'VariableNames', varNames)];
end
end
% Gamma Stats:
if isfield(data.C.spike, 'gamma')
if isfield(data.C.spike.gamma, 'phaseAve')
varNames = {'Spike-Gamma_Ave_rad', 'Spike-Gamma_R', 'Spike-Gamma_P', 'Spike-Gamma_Z'};
outTable = [outTable table(data.C.spike.gamma.phaseAve, data.C.spike.gamma.phaseR, data.C.spike.gamma.phaseP, data.C.spike.gamma.phaseZ, 'VariableNames', varNames)];
end
end
% High Gamma Stats:
if isfield(data.C.spike, 'hgamma')
if isfield(data.C.spike.hgamma, 'phaseAve')
varNames = {'Spike-highGamma_Ave_rad', 'Spike-highGamma_R', 'Spike-highGamma_P', 'Spike-highGamma_Z'};
outTable = [outTable table(data.C.spike.hgamma.phaseAve, data.C.spike.hgamma.phaseR, data.C.spike.hgamma.phaseP, data.C.spike.hgamma.phaseZ, 'VariableNames', varNames)];
end
end
% Ripple Stats:
if isfield(data.C.spike, 'R')
if isfield(data.C.spike.R, 'phaseAve')
varNames = {'Spike-Ripple_Ave_rad', 'Spike-Ripple_R', 'Spike-Ripple_P', 'Spike-Ripple_Z'};
outTable = [outTable table(data.C.spike.R.phaseAve, data.C.spike.R.phaseR, data.C.spike.R.phaseP, data.C.spike.R.phaseZ, 'VariableNames', varNames)];
end
end
% Fast Ripple Stats:
if isfield(data.C.spike, 'fR')
if isfield(data.C.spike.fR, 'phaseAve')
varNames = {'Spike-fastRipple_Ave_rad', 'Spike-fastRipple_R', 'Spike-fastRipple_P', 'Spike-fastRipple_Z'};
outTable = [outTable table(data.C.spike.fR.phaseAve, data.C.spike.fR.phaseR, data.C.spike.fR.phaseP, data.C.spike.fR.phaseZ, 'VariableNames', varNames)];
end
end
end
% Burst Stats:
if isfield(data.C, 'burst')
% SWR Stats:
if isfield(data.C.burst, 'nEventsA'); outTable = [outTable table(data.C.burst.nEventsA, 'VariableNames', {'nBursts_Align'})]; end
if isfield(data.C.burst, 'nEventsC'); outTable = [outTable table(data.C.burst.nEventsC, 'VariableNames', {'nBursts_Coinc'})]; end
if isfield(data.C.burst, 'nSpike'); outTable = [outTable table(mean(data.C.burst.nSpike,'omitnan'), 'VariableNames', {'nSpikesinBurst'})]; end
if isfield(data.C.burst, 'intraBI'); outTable = [outTable table(mean(data.C.burst.intraBI,'omitnan'), 'VariableNames', {'intraBurstInt_ms'})]; end
end
end
%% Calcium
if isfield(data, 'Ca')
varNames = {'nCells', 'nCellsActive', 'nEvents', 'frequency_Hz', 'aveIEI_s', 'aveAmplitude_dFoF', 'aveDuration_s', 'aveArea_dFoFs'};
outTable = [outTable table(sum(length(data.Ca.nEvents)), sum(~isnan(data.Ca.nEvents)), mean(data.Ca.nEvents,'omitnan'), mean(data.Ca.frequency,'omitnan'), mean(data.Ca.IEIAve,'omitnan'), mean(data.Ca.ampAve,'omitnan'), mean(data.Ca.durAve/1000,'omitnan'), mean(data.Ca.areaAve/1000,'omitnan'), 'VariableNames', varNames)];
end
% If single-file, format table for final export, otherwise wait to do in batch:
if (param.fileNum == 1)
varNames = outTable.Properties.VariableNames(2:end); % Exclude filename
% Convert data to cell array and replace NaN values with blanks:
tmpCell = table2cell(outTable(:, 2:end)); % Excluding filename
tmpCell(isnan(outTable(:, 2:end).Variables)) = {[]};
% Convert to array and transpose table:
if param.transposeOption
aveStats = cell2table(tmpCell');
aveStats.Properties.RowNames = varNames;
aveStats.Properties.VariableNames = {fileName};
aveStats.Properties.DimensionNames = {'Variable', 'File'};
else
aveStats = cell2table(tmpCell);
aveStats.Properties.RowNames = {fileName};
aveStats.Properties.VariableNames = varNames;
aveStats.Properties.DimensionNames = {'File', 'Variable'};
end
else
aveStats = outTable;
varNames = outTable.Properties.VariableNames;
end
end