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This Python package gives the pipeline used to process the MRI data obtained in the Individual Brain Charting Project. More info on the data can be found at IBC public protocols and IBC webpage.

Latest collection of raw data is available on OpenNeuro, data accession no.002685.

Latest collection of unthresholded statistical maps can be found on NeuroVault, id collection=6618.

Install

Under the main working directory of this repository in your computer, run the following command in a command prompt:

pip install -e .<br />
```<br />
<br />
## Example usage<br />
<br />
One can import the entire package with `import ibc_public` or use specific parts of the package:<br />
<br />
```python<br />
from ibc_public import utils_data<br />
utils_data.make_surf_db(derivatives="/path/to/ibc/derivatives", mesh="fsaverage5")<br />
```<br />
<br />
## Details<br />
<br />
These script make it possible to preprocess the data<br />
*  run topup distortion correction<br />
*  run motion correction<br />
*  run coregistration of the fMRI scans to the individual T1 image<br />
*  run spatial normalization of the data<br />
*  run a general linear model to obtain brain activity maps for the main contrasts of the experiment.<br />
<br />
## Core scripts<br />
<br />
The core scripts are in the `scripts` folder<br />
<br />
- `pipeline.py` lunches the full analysis on fMRI data (pre-processing + GLM)<br />
- `glm_only.py` launches GLM analyses on the data<br />
- `surface_based_analyses` launches surface extraction and registration with Freesurfer; it also projects fMRI data to the surface<br />
- `surface_glm_analysis.py` runs glm analyses on the surface<br />
- `dmri_preprocessing` (WIP) is for diffusion daat. It relies on dipy.<br />
- `anatomical mapping` (WIP) yields T1w, T2w and MWF surrogates from anatomical acquisitions.<br />
- `script_retino.py` yields some post-processing for retinotopic acquisitions (derivation of retinotopic representations from fMRI maps)<br />
<br />
## Dependencies<br />
<br />
Dependencies are :<br />
*  FSL (topup)<br />
*  SPM12 for preprocessing<br />
*  Freesurfer for surface-based analysis<br />
*  Nipype to call SPM12 functions<br />
*  Pypreprocess to generate preprocessing reports<br />
*  Nilearn for various functions<br />
*  Nistats to run general Linear models.<br />
<br />
The scripts have been used with the following versions of software and environment:<br />
<br />
*  Python 3.5<br />
*  Ubuntu 16.04<br />
*  Nipype v0.14.0<br />
*  Pypreprocess v0.0.1.dev<br />
*  FSL v5.0.9<br />
*  SPM12 rev 7219<br />
*  Nilearn v0.4.0<br />
*  Nistats v0.0.1.a<br />
<br />
## Future work<br />
<br />
- More high-level analyses scripts<br />
- Scripts for additional datasets not yet available<br />
- scripts for surface-based analysis<br />
<br />
## Contributions<br />
<br />
Please feel free to report any issue and propose improvements on Github.

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