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218 lines (166 loc) · 6.68 KB
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% Multi_Master_plot:
% Master control script for multi-site plotting.
% Requirements:
% - van der Meer lab codebase
% - EC_Multisite functions (vandermeerlab/EC_Multisite on github)
%
% terminology:
%
% - session: recording day which included four phases
% - phase : recording phases of the naris protocol as "pre", "ipsi",
% "contra", "post"
%
%% make a log
global PARAMS
fprintf(PARAMS.log, date);
% PARAMS.inter_dir = '/Volumes/Fenrir/MS_temp/';
%% Extract the data from each recroding phase within each session and separate pot vs track sections
close all
for iSub = 1:length(PARAMS.Subjects)
load([PARAMS.inter_dir PARAMS.Subjects{iSub} '_Data.mat'])
load([PARAMS.inter_dir PARAMS.Subjects{iSub} '_Naris.mat'])
load([PARAMS.inter_dir PARAMS.Subjects{iSub} '_Events.mat'])
%% generate sample events for each session for each site.
sess_list = fieldnames(Events.(PARAMS.Subjects{iSub}));
for iSess = 1:length(sess_list)
fprintf(PARAMS.log,['\nPlotting Events ' PARAMS.Subjects{iSub} ' ' sess_list{iSess}]);
% once for low events
cfg_in = [];
cfg_in.type = 'low';
MS_event_fig(cfg_in, Events.(PARAMS.Subjects{iSub}).(strrep(sess_list{iSess}, '-', '_')), data.(strrep(sess_list{iSess}, '-', '_')));
%once for high events
cfg_in = [];
cfg_in.type = 'high';
MS_event_fig(cfg_in, Events.(PARAMS.Subjects{iSub}).(strrep(sess_list{iSess}, '-', '_')), data.(strrep(sess_list{iSess}, '-', '_')));
fprintf(PARAMS.log, '...complete');
end
%% generate a spectrogram across each session for each site.
sess_list = fieldnames(data);
for iSess = 1:length(sess_list)
fprintf(PARAMS.log,['\nPlotting Spec ' PARAMS.Subjects{iSub} ' ' sess_list{iSess}]);
MS_spec_fig([], data.(strrep(sess_list{iSess}, '-', '_')));
fprintf(PARAMS.log, '...complete');
end
%% generate a coher-o-gram for each session used in Fig 6 (very time consuming. Run if needed) Session R107-2018-08-04 was used in paper
sess_list = fieldnames(data);
for iSess = 1:length(sess_list)
fprintf(PARAMS.log,['\nPlotting Spec ' PARAMS.Subjects{iSub} ' ' sess_list{iSess}]);
MS_coherogram_fig([], data.(strrep(sess_list{iSess}, '-', '_')));
fprintf(PARAMS.log, '...complete');
end
%% generate a amplitude cross corr-o-gram for each session used in Fig 7 (very time consuming. Run if needed) Session R107-2018-08-04 was used in paper
sess_list = fieldnames(data);
for iSess = 1:length(sess_list)
fprintf(PARAMS.log,['\nPlotting Ampxcorr_o_gram ' PARAMS.Subjects{iSub} ' ' sess_list{iSess}]);
MS_plot_amp_xcorrogram([], data.(strrep(sess_list{iSess}, '-', '_')));
fprintf(PARAMS.log, '...complete');
end
%% plot the PSD for each session and each site
cfg_psd = [];
% cfg_psd.type = 'white';
MS_plot_psd(cfg_psd, Naris.(PARAMS.Subjects{iSub}))
end
%% %%%%%%% CROSS SESSION ANALYSES %%%%%%%%
%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
for iSub = 1:length(PARAMS.Subjects)
load([PARAMS.inter_dir PARAMS.Subjects{iSub} '_Naris_amp.mat'])
load([PARAMS.inter_dir PARAMS.Subjects{iSub} '_Events.mat'])
all_Naris.(PARAMS.Subjects{iSub}) = Naris.(PARAMS.Subjects{iSub});
all_Events.(PARAMS.Subjects{iSub}) = Events.(PARAMS.Subjects{iSub});
clearvars -except iSub PARAMS all_Naris all_Events
close all
end
%% generate the averages for each site across sessions
% plot the average psd across sessions
MS_plot_psd_avg([], all_Naris)
close all
% plot all the power ratio statistics
cfg_pow_ratio = [];
cfg_pow_ratio.method = 'median';
cfg_pow_ratio.stats_method = 'lme';
MS_plot_power_ratio(cfg_pow_ratio, all_Naris)
close all
% plot all the power ratio statistics
cfg_pow_ratio = [];
cfg_pow_ratio.method = 'median';
cfg_pow_ratio.stats_method = 'lme';
MS_plot_bandpower_ratio(cfg_pow_ratio, all_Naris)
close all
% plot all the gamma event statistics
cfg_count = [];
cfg_count.method = 'median';
cfg_count.stats_method = 'lme';
MS_plot_gamma_stats(cfg_count, all_Events)
close all
%% get the session wide coherence plots
% %% generate a Coherogram across each session for each site.
% fprintf(PARAMS.log,['\nPlotting Coh Sess ' PARAMS.Subjects{iSub}]);
mkdir(PARAMS.inter_dir, 'sess')
cfg_coh = [];
cfg_coh.measure = 'coh';
cfg_coh.plot_type = 'no_piri';
if iSub ==1
cfg_coh.legend = 'on';
end
MS_plot_session_phase(cfg_coh, all_Naris);
fprintf(PARAMS.log, '...complete');
close all
%% get the session wide amplitude plots
fprintf(PARAMS.log,['\nPlotting Amp Sess ' PARAMS.Subjects{iSub}]);
cfg_coh = [];
cfg_coh.measure = 'amp';
MS_plot_session_phase(cfg_coh, all_Naris);
fprintf(PARAMS.log, '...complete');
%% plot the phase measures for all events
close all
cfg_event = [];
cfg_event.Subjects = {'all'}; % for speed
cfg_event.measures = [10]; %measures: use the idx
% 1 'COH_cxx'
% 2 'COH_fxx'
% 3 'AMP_AC' (usefule)
% 4 'AMP_LAG'
% 5 'AMP_AC_max'
% 6 'AMP_LAG_max'
% 7 'Phase_lag_cxy'
% 8 'Phase_lag_F'
% 9 'Phase_lag_mean'
% 10 'PS_slope' (useful)
% 11 'PS_F'
% 12 'EVT_COUNT' (not used, better implementation elseware )
% cfg_event.Subjects = {'R102', 'R104', 'R107', 'R108', 'R112','R122','R123'}; % each subject by themselves. Used for subpanels on F3
Phase_events_out = MS_plot_event_phase(cfg_event);
%% generate a Coherogram across each session for each site.
% load([PARAMS.inter_dir PARAMS.Subjects{iSub} '_Naris_amp.mat'])
%
% sess_list = fieldnames(data);
% for iSess = 1:length(sess_list)
% fprintf(PARAMS.log,['\nPlotting Spec ' PARAMS.Subjects{iSub} ' ' sess_list{iSess}]);
% MS_coherogram_fig([], data.(strrep(sess_list{iSess}, '-', '_')));
% fprintf(PARAMS.log, '...complete');
% end
%% Distance LMEs Used for stats only.
% Naris power by distance.
cfg_dist_stats = [];
MS_get_naris_dist_OB_PC(cfg_dist_stats, all_Naris);
% session coherence
cfg_dist_stats = [];
MS_get_phase_distance_LMEs(cfg_dist_stats, all_Naris);
% ipsi-contra coherence/amp
cfg_dist_stats = [];
MS_get_naris_phase_distance(cfg_dist_stats, all_Naris);
%% Figure S2 all coherence for each site pair (no piri)
cfg_S2 = [];
cfg_S2.measure = 'coh';
MS_Figure_S2(cfg_S2, all_Naris);
close all
cfg_S2 = [];
cfg_S2.measure = 'amp';
MS_Figure_S2(cfg_S2, all_Naris);
%
% close all
% % just for debugging
% cfg_S2 = [];
% cfg_S2.measure = 'lag';
%
% MS_Figure_S2(cfg_S2, all_Naris);