<i>TORTOISEV4</i> : Reimagining the NIH diffusion MRI processing pipeline

Diffusion MRI (dMRI) data suffer from a number of artifacts, including, but not limited to, low SNR, Gibbs ringing, bulk subject motion, within volume motion, eddy-current distortions, susceptibility-induced EPI distortions, and ghost artifacts. Appropriate pre-processing of diffusion-weighted images prior to model fitting is vital for accurate quantitative analysis. Over the years, the nature of dMRI data has evolved (smaller voxel sizes, significantly larger number of volumes and b-values, wider variety of acquisition paradigms, etc.) as have the required processing tools. Additionally, very large multi-site dMRI studies, on potentially uncooperative subjects (young children, geriatric populations, patients with movement disorders, etc.), have increased the necessity for dMRI processing pipelines that are fast, robustly capable of handling a variety of artifacts/distortions, and that have summary reporting capabilities to pinpoint problematic data. <i>TORTOISE</i> (Tolerably Obsessive Registration and Tensor Optimization Indolent Software Ensemble) (www.tortoisedti.org) has been redesigned, made adaptable and significantly enriched to meet these needs.

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Publication Details

Journal
Imaging Neuroscience
Published
2025-01-01
DOI
https://doi.org/10.1162/imag.a.948
Citations
4
Primary Topic
Advanced MRI Techniques and Applications
Type
article
Field-Weighted Citation Impact
5.44

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article

TORTOISEV4 : Reimagining the NIH diffusion MRI processing pipeline

Paul A. Taylor, Amritha Nayak, M. Okan İrfanoğlu, Alexandre Thai et al.
4 citations
Imaging Neuroscience
Advanced MRI Techniques and Applications
5.44
article

TORTOISEV4 : Reimagining the NIH diffusion MRI processing pipeline

Paul A. Taylor, Amritha Nayak, M. Okan İrfanoğlu, Alexandre Thai, Carlo Pierpaoli
article en
4 citations

Abstract

Diffusion MRI (dMRI) data suffer from a number of artifacts, including, but not limited to, low SNR, Gibbs ringing, bulk subject motion, within volume motion, eddy-current distortions, susceptibility-induced EPI distortions, and ghost artifacts. Appropriate pre-processing of diffusion-weighted images prior to model fitting is vital for accurate quantitative analysis. Over the years, the nature of dMRI data has evolved (smaller voxel sizes, significantly larger number of volumes and b-values, wider variety of acquisition paradigms, etc.) as have the required processing tools. Additionally, very large multi-site dMRI studies, on potentially uncooperative subjects (young children, geriatric populations, patients with movement disorders, etc.), have increased the necessity for dMRI processing pipelines that are fast, robustly capable of handling a variety of artifacts/distortions, and that have summary reporting capabilities to pinpoint problematic data. <i>TORTOISE</i> (Tolerably Obsessive Registration and Tensor Optimization Indolent Software Ensemble) (www.tortoisedti.org) has been redesigned, made adaptable and significantly enriched to meet these needs.

Imaging NeuroscienceVol. 3
National Institutes of Health (US), University of America (US), National Institute of Biomedical Imaging and Bioengineering (US), Catholic University of America (US)
U.S. Department of Defense, Henry M. Jackson Foundation, National Institutes of Health, Uniformed Services University of the Health Sciences
Openalex Percentile: Top 4%
Advanced MRI Techniques and Applications
5.44
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<i>TORTOISEV4</i> : Reimagining the NIH diffusion MRI processing pipeline — Paul A. Taylor, Amritha Nayak, et al. · Imaging Neuroscience (2025) | TGRS Research Map | TGRS