A package, and script, to perform imaging transcriptomics on a neuroimaging scan.

Overview

Imaging Transcriptomics

DOI License: GPL v3 Maintainer Generic badge Documentation Status

Imaging-transcriptomics_overwiew

Imaging transcriptomics is a methodology that allows to identify patterns of correlation between gene expression and some property of brain structure or function as measured by neuroimaging (e.g., MRI, fMRI, PET).


The imaging-transcriptomics package allows performing imaging transcriptomics analysis on a neuroimaging scan (e.g., PET, MRI, fMRI...).

The software is implemented in Python3 (v.3.7), its source code is available on GitHub, it can be installed via Pypi and is released under the GPL v3 license.

NOTE Versions from v1.0.0 are or will be maintained. The original script linked by the BioRxiv preprint (v0.0) is still available on GitHub but no changes will be made to that code. If you have downloaded or used that script please update to the newer version by installing this new version.

Installation

NOTE We recommend to install the package in a dedicated environment of your choice (e.g., venv or anaconda). Once you have created your environment and you have activated it, you can follow the below guide to install the package and dependencies. This process will avoid clashes between conflicting packages that could happen during/after the installation.

To install the imaging-transcriptomics Python package, first you will need to install a packages that can't be installed directly from PyPi, but require to be downloaded from GitHub. The package to install is pypyls. To install this package you can follow the installation on the documentation for the package or simply run the command

pip install -e git+https://github.com/netneurolab/pypyls.git/#egg=pyls

to download the package, and its dependencies directly from GitHub by using pip.

Once this package is installed you can install the imaging-transcriptomics package by running

pip install imaging-transcriptomics

Usage

Once installed the software can be used in two ways:

  • as standalone script
  • as part of some python script

WARNING Before running the script make sure the Pyhton environment where you have installed the package is activated.

Standalone script


To run the standalone script from the terminal use the command:

imagingtranscriptomics options

The options available are:

  • -i (--input): Path to the imaging file to analise. The path should be given to the program as an absolute path (e.g., /Users/myusername/Documents/my_scan.nii, since a relative path could raise permission errors and crashes. The script only accepts imaging files in the NIfTI format (.nii, .nii.gz).
  • -v (--variance): Amount of variance that the PLS components must explain. This MUST be in the range 0-100.

    NOTE: if the variance given as input is in the range 0-1 the script will treat this as 30% the same way as if the number was in the range 10-100 (e.g., the script treats the inputs -v 30 and -v 0.3 in the exact same way and the resulting components will explain 30% of the variance).

  • -n (--ncomp): Number of components to be used in the PLS regression. The number MUST be in the range 1-15.
  • --corr: Run the analysis using Spearman correlation instead of PLS.

    NOTE: if you run with the --corr command no other input is required, apart from the input scan (-i).

  • -o (--output) (optional): Path where to save the results. If none is provided the results will be saved in the same directory as the input scan.

WARNING: The -i flag is MANDATORY to run the script, and so is one, and only one, of the -n or -v flags. These last two are mutually exclusive, meaning that ONLY one of the two has to be given as input.

Part of Python script


When used as part of a Python script the library can be imported as:

import imaging_transcriptomics as imt

The core class of the package is the ImagingTranscriptomics class which gives access to the methods used in the standalone script. To use the analysis in your scripts you can initialise the class and then simply call the ImagingTranscriptomics().run() method.

import numpy as np
import imaging_transcriptomics as imt
my_data = np.ones(41)  # MUST be of size 41 
                       # (corresponds to the regions in left hemisphere of the DK atlas)

analysis = imt.ImagingTranscriptomics(my_data, n_components=1)
analysis.run()
# If instead of running PLS you want to analysze the data with correlation you can run the analysis with:
analysis.run(method="corr")

Once completed the results will be part of the analysis object and can be accessed with analysis.gene_results.

The import of the imaging_transcriptomics package will import other helpful functions for input and reporting. For a complete explanation of this please refer to the official documentation of the package.

Documentation

The documentation of the script is available at imaging-transcriptomics.rtfd.io/.

Troubleshooting

For any problems with the software you can open an issue in GitHub or contact the maintainer) of the package.

Citing

If you publish work using imaging-transcriptomics as part of your analysis please cite:

Imaging transcriptomics: Convergent cellular, transcriptomic, and molecular neuroimaging signatures in the healthy adult human brain. Daniel Martins, Alessio Giacomel, Steven CR Williams, Federico Turkheimer, Ottavia Dipasquale, Mattia Veronese, PET templates working group. bioRxiv 2021.06.18.448872; doi: https://doi.org/10.1101/2021.06.18.448872

Imaging-transcriptomics: Second release update (v1.0.2).Alessio Giacomel, & Daniel Martins. (2021). Zenodo. https://doi.org/10.5281/zenodo.5726839

Comments
  • pip installation can not resolve enigmatoolbox dependencies

    pip installation can not resolve enigmatoolbox dependencies

    After pip install -e git+https://github.com/netneurolab/pypyls.git/#egg=pyls and pip install imaging-transcriptomics in a new conda environment with Python=3.8, an error was occurred when import imaging-transcriptomics package that it can't find the module named enigmatoolbox. I figured out that the enigmatoolbox package seems can not be resolve by pip installation automatically, so I have to install the enigmatoolbox package from Github manually, with the code bellow according to the document of enigmatoolbox:

    git clone https://github.com/MICA-MNI/ENIGMA.git
    cd ENIGMA
    python setup.py install
    
    opened by YCHuang0610 4
  • DK atlas regions

    DK atlas regions

    Dear alegiac95,

    thanks for providing the scripts! I have just gone through the paper and description of this GitHub repo and I want to adapt your software to my project. However, I use the typical implementation of the DK from Freesurfer with 34 cortical DK ROIs instead of the 41 ROIs that you have used and, if I'm not mistaken, 41 ROIs are required to implement the script as ist is. Is it possible to change the input to other cortical parcellations as well (i.e., DK-34)?

    Cheers, Melissa

    enhancement 
    opened by Melissa1909 3
  • Script not calling the correct python version

    Script not calling the correct python version

    The script in version v1.0.0 is invoking the #!/usr/bin/env python interpreter, which could generate some issue if you default python is python2 (e.g., in older MacOS versions).

    bug 
    opened by alegiac95 1
  • Version 1.1.0

    Version 1.1.0

    Updated the scripts with:

    • support for both full brain analysis and cortical regions only
    • GSEA analysis (both during the analysis and as a separate script)
    • pdf report of the analysis
    opened by alegiac95 0
  • clean code and fix test

    clean code and fix test

    This commit does an extensive code cleaning following the PEP8 standard. It also fixes a test that was most probably intended for previous unstable versions of the software.

    Still to do:

    • Remove logging
    opened by matteofrigo 0
  • Add mathematical background on PLS

    Add mathematical background on PLS

    A more detailed explanation on PLS model and regression is required in the docs.

    • [ ] Add a general mathematical formulation of PLS
    • [ ] Use of PLS in neuroimaging applications
    • [ ] Description of the SIMPLS algorithm used by pypls

    In addition provide some background on correlation, since it is now added to the methods available in the python package/script

    documentation 
    opened by alegiac95 0
Releases(v.1.1.8)
Official Code for ICML 2021 paper "Revisiting Point Cloud Shape Classification with a Simple and Effective Baseline"

Revisiting Point Cloud Shape Classification with a Simple and Effective Baseline Ankit Goyal, Hei Law, Bowei Liu, Alejandro Newell, Jia Deng Internati

Princeton Vision & Learning Lab 115 Jan 04, 2023
Evolving neural network parameters in JAX.

Evolving Neural Networks in JAX This repository holds code displaying techniques for applying evolutionary network training strategies in JAX. Each sc

Trevor Thackston 6 Feb 12, 2022
A data-driven maritime port simulator

PySeidon - A Data-Driven Maritime Port Simulator 🌊 Extendable and modular software for maritime port simulation. This software uses entity-component

6 Apr 10, 2022
Code to run experiments in SLOE: A Faster Method for Statistical Inference in High-Dimensional Logistic Regression.

Code to run experiments in SLOE: A Faster Method for Statistical Inference in High-Dimensional Logistic Regression. Not an official Google product. Me

Google Research 27 Dec 12, 2022
On Nonlinear Latent Transformations for GAN-based Image Editing - PyTorch implementation

On Nonlinear Latent Transformations for GAN-based Image Editing - PyTorch implementation On Nonlinear Latent Transformations for GAN-based Image Editi

Valentin Khrulkov 22 Oct 24, 2022
Implementation of gaze tracking and demo

Predicting Customer Demand by Using Gaze Detecting and Object Tracking This project is the integration of gaze detecting and object tracking. Predict

2 Oct 20, 2022
Codes for CVPR2021 paper "PWCLO-Net: Deep LiDAR Odometry in 3D Point Clouds Using Hierarchical Embedding Mask Optimization"

PWCLO-Net: Deep LiDAR Odometry in 3D Point Clouds Using Hierarchical Embedding Mask Optimization (CVPR 2021) This is the official implementation of PW

Intelligent Robotics and Machine Vision Lab 42 Dec 18, 2022
Pytorch implementation of AREL

Status: Archive (code is provided as-is, no updates expected) Agent-Temporal Attention for Reward Redistribution in Episodic Multi-Agent Reinforcement

8 Nov 25, 2022
Christmas face app for Decathlon xmas coding party!

Christmas Face Application Use this library to create the perfect picture for your christmas cards! Done by Hasib Zunair, Guillaume Brassard and Samue

Hasib Zunair 4 Dec 20, 2021
Modeling Temporal Concept Receptive Field Dynamically for Untrimmed Video Analysis

Modeling Temporal Concept Receptive Field Dynamically for Untrimmed Video Analysis This is a PyTorch implementation of the model described in our pape

qzhb 6 Jul 08, 2021
Code and Data for NeurIPS2021 Paper "A Dataset for Answering Time-Sensitive Questions"

Time-Sensitive-QA The repo contains the dataset and code for NeurIPS2021 (dataset track) paper Time-Sensitive Question Answering dataset. The dataset

wenhu chen 35 Nov 14, 2022
Fair Recommendation in Two-Sided Platforms

Fair Recommendation in Two-Sided Platforms

gourabgggg 1 Nov 10, 2021
Face and other object detection using OpenCV and ML Yolo

Object-and-Face-Detection-Using-Yolo- Opencv and YOLO object and face detection is implemented. You only look once (YOLO) is a state-of-the-art, real-

Happy N. Monday 3 Feb 15, 2022
Unofficial implementation of the Involution operation from CVPR 2021

involution_pytorch Unofficial PyTorch implementation of "Involution: Inverting the Inherence of Convolution for Visual Recognition" by Li et al. prese

Rishabh Anand 46 Dec 07, 2022
Continual World is a benchmark for continual reinforcement learning

Continual World Continual World is a benchmark for continual reinforcement learning. It contains realistic robotic tasks which come from MetaWorld. Th

41 Dec 24, 2022
Foreground-Action Consistency Network for Weakly Supervised Temporal Action Localization

FAC-Net Foreground-Action Consistency Network for Weakly Supervised Temporal Action Localization Linjiang Huang (CUHK), Liang Wang (CASIA), Hongsheng

21 Nov 22, 2022
Official implementation of "Implicit Neural Representations with Periodic Activation Functions"

Implicit Neural Representations with Periodic Activation Functions Project Page | Paper | Data Vincent Sitzmann*, Julien N. P. Martel*, Alexander W. B

Vincent Sitzmann 1.4k Jan 06, 2023
Data and extra materials for the food safety publications classifier

Data and extra materials for the food safety publications classifier The subdirectories contain detailed descriptions of their contents in the README.

1 Jan 20, 2022
EMNLP 2021 paper Models and Datasets for Cross-Lingual Summarisation.

This repository contains data and code for our EMNLP 2021 paper Models and Datasets for Cross-Lingual Summarisation. Please contact me at

9 Oct 28, 2022
SymPy-powered, Wolfram|Alpha-like answer engine totally in your browser, without backend computation

SymPy Beta SymPy Beta is a fork of SymPy Gamma. The purpose of this project is to run a SymPy-powered, Wolfram|Alpha-like answer engine totally in you

Liumeo 25 Dec 21, 2022