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biac:analysis:physiological [2022/01/20 14:45]
cmp12
biac:analysis:physiological [2023/02/23 18:43] (current)
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 RetroTS will produce "slibase" regressors to be used with retroicor during afni preprocessing, or afni retroicor regression  RetroTS will produce "slibase" regressors to be used with retroicor during afni preprocessing, or afni retroicor regression 
  
-  
  
 +=== setup afni despike, retroicor and slicetime correction ===
  
- 
- 
- 
- 
- 
-====== CIGAL pdigm specific ====== 
-[[biac:analysis:physiological:cigal_pdigm| CIGAL pdigm specific physio correction methods]] 
- 
-Currently this assumes that you have recorded your physiological responses through Cigal.  Also, these types of corrections should be done **before** any type of slice-time correction or pre-processing. 
- 
-===== physio_run.py ===== 
-There is currently a tool for running AFNI-based correction of functional image data using physiological data.  In the future it may support FSL-based correction. 
  
 <code> <code>
-physio_run.py --help +python3 /usr/local/packages/afni/21.1.04/afni_proc.py 
-</code>+ -subj_id sub-00104_run-4_ricor_phys \ 
 + -blocks despike ricor tshift \ 
 + -dsets ../../../../BIDS/sub-00104/ses-01/func/sub-00104_ses-01_task-rest_run-4_bold.nii.gz \ 
 + -tcat_remove_first_trs 2 \ 
 + -tshift_opts_ts -tpattern @/mnt/munin/BIAC/SysService.01/Analysis/UHP/BIDS/sub-00104/ses-01/physio/series004_01_slicetiming.1D \ 
 + -ricor_regs_nfirst 2 \ 
 + -ricor_regs /mnt/munin/BIAC/SysService.01/Analysis/UHP/BIDS/sub-00104/ses-01/physio/series004_01.slibase.1D \ 
 + -verb 1
  
-<code> 
-Usage:  
-physio_run.py /path/to/run4.bxh /path/to/pdigm5_12345_4_2 OUTPUTPREFIX [ -f FORMAT ] 
- 
-Program to produce formatted physiological data: 
-    Data will be corrected and recreated from the pdigm file based on information from run data 
-    BXH and PDIGM required 
-    OUTPUTPREFIX is the prefix for the physio-corrected output 
-    FORMAT: what pipeline to use, only supports 'afni' for now (default) 
- 
-Options: 
-  -h, --help            show this help message and exit 
-  -f string, --format=string 
-                        output format ( afni ) 
 </code> </code>
  
-''physio_run.py'' runs ''physio_create.py'' under the hood to write physiological data in the format AFNI requires (see below for how to run ''physio_create.py'' yourself to create data usable by FSL), and then runs various AFNI tools to actually create the physio-corrected image data.+The above will produce an afni script to throw out 2 timepointsperform a despike, retroicor physio regression and slice time correction based on the RetroTS output and the physio TSV/json above.
  
-The outputs will be OUTPUTPREFIX.bxh, OUTPUTPREFIX.nii.gz, OUTPUTPREFIX_cardiac.txt and OUTPUTPREFIX_respiration.txt.  OUTPUTPREFIX.bxh can be used as the input for ''resting_pipeline.py''+Convert the afni corrected output back to nii.gz to be used for other pre-processing if not using AFNI for all steps
- +
-===== physio_create.py ===== +
- +
-The underlying tool used by ''physio_run.py'' to create the regressors is ''physio_create.py'' It takes an input image along with your cigal pdigm file to create various types of corrected text files to be used for physio corrections in a number of different packages. +
- +
-This tool uses various fields from the bxh and pdigm file to output "corrected" (physiological) data/regressors.  "Corrected" here means accounting for potential time-locking issues, different TR in the cigal recording verses the actual data acquisition, ddqs, etc. +
- +
-The python tool will call cigal functions directly to do the corrections, then output new text data in the format requested.+
  
 <code> <code>
-physio_create.py --help+bxh2analyze --niigz -s pb03.sub-00104_run-4_ricor_phys.r01.tshift+orig.HEAD sub-00104_run-4_physiocorrected
 </code> </code>
 + 
  
-<code> 
-physio_create.py --bxh /path/to/run4.bxh --pdigm /path/to/pdigm5_12345_4_2 -f fsl --outpath /here/ --hz 100 
  
-Program to produce formatted physiological data: 
-    Data will be corrected and recreated from the pdigm file based on information from run data 
-    BXH and PDIGM required 
-    OUTPATH defaults to PWD 
-    HZ sampling rate 
-    FORMAT: defaults to fsl 
-        - fsl = cardio,resp,TR pulse ( 3 column file )  
-        - npm = time,cardio,resp ( 3 column file ) 
-        - afni = cardiac.txt, respiration.txt, script.m 
- 
- 
-Options: 
-  -h, --help            show this help message and exit 
-  -b FILE, --bxh=FILE   bxh file for run 
-  -p FILE, --pdigm=FILE 
-                        pdigm file for run 
-  -f string, --format=string 
-                        output format ( fsl,npm,afni ) 
-  --hz                  sampling rate is hz ( 100 ) 
-  -o PATH, --outpath=PATH 
-                        location to store output files 
- 
-</code> 
- 
-===== AFNI details ===== 
- 
-This section details the steps that the tool ''physio_run.py'' (described above) does for you automatically. 
- 
-Create the AFNI formated physiological text data. 
-<code bash>physio_create.py -b Data/Func/20111025_12345/run004.bxh -p Data/Behav/12345/pdigm5_12345_4_2 -f afni --hz 100 </code> 
- 
-This would create my "cardiac.txt" and "respiration.txt", and a MATLAB script script.m that will create the regressors, and has the following contents: 
- 
-<code matlab> 
-addpath /usr/local/packages/MATLAB/afni/ 
-Opt.Respfile = '/path/to/respiration.txt' 
-Opt.Cardfile = '/path/to/cardiac.txt' 
-Opt.VolTR = 1.5 
-Opt.Nslices = 34 
-Opt.PhysFS = 100 
-Opt.SliceOrder = 'alt+z' 
-%please choose the correct order if not running interleaved: **'alt+z'**/'alt-z'/'seq+z'/'seq-z' 
- 
-RetroTS(Opt) 
-</code> 
- 
-The output of runnning the MATLAB script will be **"oba.slibase.1D"**, which is a text file containing regressors to remove from your data on a slice-by-slice basis. 
- 
-Convert your data to 4D nifti if you haven't already done so: 
-<code bash>bxh2analyze --niigz -s input.bxh run004</code> 
- 
-Create the afni script which you will use to actually run the 3dretroicor functionality: 
-<code bash>afni_proc.py -subj_id 12345 -dsets run004.nii.gz -blocks despike -do_block ricor -tcat_remove_first_trs 0 -ricor_regs *.slibase.1D -ricor_regs_nfirst 0 -ricor_regre 
-ss_method 'per-run'</code> 
- 
-The result of the above command would be a tcsh script, which would run the despiking and 3dretroicor correction only.  Run it: 
-<code bash>tcsh -xef proc.12345 |& tee output.proc.12345</code> 
- 
-There will be a resulting folder with all the afni data inside.  You can convert the afni HEAD/BRIK to a nifti file, then proceed to whatever you're doing afterwards: 
-<code bash> 
-#convert afni to nii, create bxh 
-bxh2analyze --niigz -s 12345.results/pb02.12345.r01.ricor+orig.BRIK physiocorrected 
-</code> 
- 
-Run the resting state pipeline: 
-<code bash>resting_pipeline.py -f physiocorrected.bxh -s 0,1,2,3,4,5,6,7 -p func --sliceorder odd</code> 
  
  
Line 184: Line 90:
  
  
 +====== CIGAL pdigm specific processing ======
 +[[biac:analysis:physiological:cigal_pdigm| CIGAL pdigm specific physio correction methods]]
  
biac/analysis/physiological.1642689906.txt.gz · Last modified: 2022/01/20 14:45 by cmp12