% Script to load in the volume statistics generated by Samseg during the % segmentation process. %% list cases to exclude % no mathcing, no matching, deformed image % removecases = {'18-2102','18-2127','18-1343','18-2260','19-0019','19-0138'}; removecases = {'18-2102',... % missing volumes '18-2127',...% missing volumes '18-2260',...% hemorrhage '19-0019',...% missing volumes & hemorrhage '18-1705',...% poor segmentation ventricles '18-1754',...% poor segmentation ventricles '18-1343',...% poor segmentation deformation '19-0138',...% poor segmentation cortex '19-0100'... % very large ventricles (biasing) }; removaltype = [1,1,1,1,2,2,3,3,4]; removalnotes = {'missing volumes',... 'missing volumes',... 'hemorrhage',... 'missing volumes & hemorrhage',... 'poor segmentation ventricles',... 'poor segmentation ventricles',... 'poor segmentation deformation',... 'poor segmentation cortex',... 'very large ventricles (biasing)' }; %% setup directories PHOTO_RECON_HOME=getenv('PHOTO_RECON_HOME'); % segmentation directories MRIsDir = fullfile(PHOTO_RECON_HOME,'FLAIR_Scan_Data','SAMSEG'); hardDir = fullfile(PHOTO_RECON_HOME,'Results_hard','SAMSEG'); softDir = fullfile(PHOTO_RECON_HOME,'Results','SAMSEG'); % volume directories MRI_volfolder = fullfile(PHOTO_RECON_HOME,'FLAIR_Scan_Data'); Hrd_rcnfolder = fullfile(PHOTO_RECON_HOME,'Results_hard'); % figure directory figDir = fullfile(PHOTO_RECON_HOME,'figures'); %% locate files dlist_mristats = dir(fullfile(MRIsDir,'*/samseg.stats')); dlist_hrdstats = dir(fullfile(hardDir,'*/samseg.stats')); dlist_sftstats = dir(fullfile(softDir,'*/samseg.stats')); %% read in MRI stats segVolumeInfo = struct(); segVolumeInfo(length(dlist_mristats)+length(dlist_hrdstats)... +length(dlist_sftstats)) = struct(); for il=1:length(dlist_mristats) [~,segID,~]=fileparts(dlist_mristats(il).folder); seprtd = regexp(segID(3:end),'_','split'); caseID = [seprtd{1},'-',seprtd{2}]; intable = readtable(fullfile(dlist_mristats(il).folder,dlist_mristats(il).name),'FileType','text'); segVolumeInfo(il).caseID = caseID; segVolumeInfo(il).segtype = 'MRI'; %% check if case might need removing removeindex = ismember(removecases,caseID); if any(removeindex) segVolumeInfo(il).removaltype=removaltype(removeindex); segVolumeInfo(il).removalnotes=removalnotes{removeindex}; else segVolumeInfo(il).removaltype=0; segVolumeInfo(il).removalnotes=''; end %% read in volumes for jl=1:size(intable,1) varname = intable{jl,1}; varname = regexp(varname,'# Measure ','split'); varname = [varname{1}{1},varname{1}{2}]; varname = matlab.lang.makeValidName(varname); segVolumeInfo(il).(varname) = intable.Var2(jl); end end %% read in hard stats for il=1:length(dlist_hrdstats) structind = il+length(dlist_mristats); [~,segID,~]=fileparts(dlist_hrdstats(il).folder); seprtd = regexp(segID,'.hard','split'); caseID = seprtd{1}; intable = readtable(fullfile(dlist_hrdstats(il).folder,dlist_hrdstats(il).name),'FileType','text'); segVolumeInfo(structind).caseID = caseID; segVolumeInfo(structind).segtype = 'Hard'; %% check if case might need removing removeindex = ismember(removecases,caseID); if any(removeindex) segVolumeInfo(structind).removaltype=removaltype(removeindex); segVolumeInfo(structind).removalnotes=removalnotes{removeindex}; else segVolumeInfo(structind).removaltype=0; segVolumeInfo(structind).removalnotes=''; end %% read in volumes for jl=1:size(intable,1) varname = intable{jl,1}; varname = regexp(varname,'# Measure ','split'); varname = [varname{1}{1},varname{1}{2}]; varname = matlab.lang.makeValidName(varname); segVolumeInfo(structind).(varname) = intable.Var2(jl); end end %% read in soft stats for il=1:length(dlist_hrdstats) structind = il+length(dlist_mristats)+length(dlist_hrdstats); [~,segID,~]=fileparts(dlist_sftstats(il).folder); seprtd = regexp(segID,'_soft','split'); caseID = seprtd{1}; intable = readtable(fullfile(dlist_sftstats(il).folder,dlist_sftstats(il).name),'FileType','text'); segVolumeInfo(structind).caseID = caseID; segVolumeInfo(structind).segtype = 'Soft'; %% check if case might need removing removeindex = ismember(removecases,caseID); if any(removeindex) segVolumeInfo(structind).removaltype=removaltype(removeindex); segVolumeInfo(structind).removalnotes=removalnotes{removeindex}; else segVolumeInfo(structind).removaltype=0; segVolumeInfo(structind).removalnotes=''; end %% read in volumes for jl=1:size(intable,1) varname = intable{jl,1}; varname = regexp(varname,'# Measure ','split'); varname = [varname{1}{1},varname{1}{2}]; varname = matlab.lang.makeValidName(varname); segVolumeInfo(structind).(varname) = intable.Var2(jl); end end %% write out table T = struct2table(segVolumeInfo); writetable(T,fullfile(figDir,'UWphoto_fullSegmentationStats.xlsx')) %% remove bad apples strfields = fieldnames(segVolumeInfo); removeindex = ismember({segVolumeInfo.caseID},removecases); % processtruct = instructure(~removeindex); %% load in spreadsheets infoTable=readtable(fullfile(figDir,'NP data for reconstruction cohort.xlsx')); crosswalk=readtable(fullfile(figDir,'crosswalk.xlsx')); %% match up case IDs caseID = cell(size(infoTable,1),1); for il=1:size(infoTable,1) caseID{il} = crosswalk.npNumber1(crosswalk.tissueCode==infoTable.TissueCode(il)); end matchedInfo = [cell2table(caseID),infoTable]; %% get left right averages % segVolumeInfo = processtruct; flag_fieldsToAverage_left = startsWith(strfields,'Left_'); fieldsToAverage_left=strfields(flag_fieldsToAverage_left); fieldendings = regexp(strfields(flag_fieldsToAverage_left),'Left_','split'); for il=1:length(fieldendings) fieldendings{il}=fieldendings{il}{2}; end for il = 1:length(fieldsToAverage_left) fieldToAverage_right = strfields{startsWith(strfields,'Right_') &... endsWith(strfields,fieldendings(il))}; for jl = 1:length(segVolumeInfo) leftVal = segVolumeInfo(jl).(fieldsToAverage_left{il}); rightVal = segVolumeInfo(jl).(fieldToAverage_right); segVolumeInfo(jl).(['Average_',fieldendings{il}]) = mean([leftVal,rightVal]); end end %% get volume adjustment factor % During reconstruction using a hard mask some affine deformation is % applied to the MRI mask at the same time as the individual slices. This % is to account for gross changes in the brain between scanning and % dissection. % % This means volumes from the MRI segmentations should be adjusted to % correlate properly with the photo segmentations. The correction factor is % % adjustment = prod(MRI.volres)/prod(photo.volres) % % giving the ratio between MR and photo voxel volume. The adjusted photo % volumes are then % % vol_corrected = adjustment * volume_photo for il=1:length(segVolumeInfo) if strcmp(segVolumeInfo(il).segtype,'Hard') MR_ID_parts = regexp(segVolumeInfo(il).caseID,'-','split'); MR_ID = ['NP',MR_ID_parts{1},'_',MR_ID_parts{2}]; dlist_mri = dir(fullfile(MRI_volfolder,[MR_ID,'.rotated.mgz'])); mri_vol = MRIread(fullfile(dlist_mri.folder,dlist_mri.name)); dlist_hrd = dir(fullfile(Hrd_rcnfolder,segVolumeInfo(il).caseID,... '*warped_ref*')); hrd_vol = MRIread(fullfile(dlist_hrd.folder,dlist_hrd.name)); tempadjustfactor = prod(mri_vol.volres)/prod(hrd_vol.volres); segVolumeInfo(il).volumeAdjustmentFactor = tempadjustfactor; else segVolumeInfo(il).volumeAdjustmentFactor = 1; end end %% save stuff save(fullfile(figDir,'AdjustedCaseStats.mat'),'segVolumeInfo',... 'matchedInfo','removecases')