Neuroimaging Discovery
We build methods that help researchers study brain structure, function, and dynamics across clinical and nonclinical populations.
open source software
TReNDS develops, applies, and shares advanced analytic approaches and neuroinformatics tools that turn brain imaging, omics, and large-scale data into discoveries for brain health and disease.
We build methods that help researchers study brain structure, function, and dynamics across clinical and nonclinical populations.
We connect multimodal brain imaging, omics, and machine learning to reveal patterns that single datasets cannot show alone.
We share software, data practices, and neuroinformatics tools through a collaborative center across GSU, Georgia Tech, and Emory.
We publish the results of our research as open-source software and research platforms. Below is a selection of tools from TReNDS for neuroimaging analysis, multimodal data fusion, simulation, machine learning, and brain connectivity research.
Neuroimaging Federated Learning Analysis for Multi-site Environments, a GUI-based standalone application
ViewComputes spatio-spectral temporal profiles for 4D imaging data.
ViewSimulation code and examples for average sliding window correlation in dynamic functional connectivity.
ViewVisualizes ICA components and ROI brain parcellations from NIfTI maps.
ViewBrowser-based brain image segmentation for working with imaging models and segmentation workflows directly on the web.
ViewA separate Python package for running Brainchop workflows from the command line.
ViewPyTorch framework for deep learning research and development.
ViewA framework for training and evaluating neural networks using Theano.
ViewGenerates flexible fMRI datasets under a model of spatiotemporal separability for testing analysis methods.
ViewFinds and displays temporal relationships among components to help study causal relations in the brain.
ViewSupports joint ICA, parallel ICA, and CCA with joint ICA for examining shared information across imaging, EEG, and genetic features.
ViewImplements multiple algorithms for independent component analysis and blind source separation of group and single-subject fMRI and EEG data.
ViewCompares spatial activation similarities among subjects and across study groups.
ViewImplements iterative refinement of the approximate posterior for directed belief networks.
ViewGenerates lateral difference maps from brain images for laterality-focused analysis.
ViewTools for multivariate analysis in neuroimaging research workflows.
ViewTorch implementation of the MeshNet architecture and trained weights for white and gray matter segmentation.
ViewBuilds dataloaders for MRI tensors and segmentation labels stored across MongoDB records.
ViewPyTorch implementation for Multidataset Independent Subspace Analysis.
ViewExtends Pylearn2 for neuroimaging and brain data applications, including datasets for incorporating 3D brain data into deep models.
ViewRuns many classifiers on a dataset and produces AUC reports for comparing model performance.
ViewEEG simulation scripts for generating and testing EEG analysis workflows.
ViewSimulates structural MRI data and includes an example simulation notebook.
ViewContains implementations of the square-root Cubature Kalman Filter and square-root Rauch-Tang-Striebel smoother.
ViewProvides improved 3D denoising of fMRI datasets using a wavelet-based hierarchical approach.
ViewCaches and serves synthetic data generator output through MongoDB-backed datasets.
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