Accelerating the Whole-Brain Multi-Parametric Imaging Through Joint Deep Learning Reconstruction and Physical Model Integration

The three-dimensional (3D) multi-parametric MR imaging technique MULTIPLEX quantifies T1/T2*/PD/QSM maps within a single scan. However, the whole brain MULTIPLEX imaging suffers from a long scan time due to its dual-TR, dual-flip angle, and multi-echo signal acquisition strategy, limiting the achievable spatial resolution. Although the traditional compressed sensing (CS) method can handle under-sampled data, it suffers from prolonged reconstruction time and cannot guarantee quantitative accuracy. This work develops a multi -contrast joint deep learning model integrated with the MR physical model, named Joint DeepMTP, significantly enhancing the accuracy of reconstruction and quantification. Our proposed method achieves comparable reconstruction and quantification performance to the reference at 9- fold CAIPI acceleration for 3D high-resolution MULTIPLEX imaging with a reconstruction time of 3 minutes.

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Publication Details

Published
2025-04-14
DOI
https://doi.org/10.1109/isbi60581.2025.10981305
Primary Topic
Medical Imaging Techniques and Applications
Type
article
Field-Weighted Citation Impact
0.00

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Accelerating the Whole-Brain Multi-Parametric Imaging Through Joint Deep Learning Reconstruction and Physical Model Integration

Yongquan Ye, Dong Liang, Sen Jia, Jing Cheng et al.
Medical Imaging Techniques and Applications
article

Accelerating the Whole-Brain Multi-Parametric Imaging Through Joint Deep Learning Reconstruction and Physical Model Integration

Yongquan Ye, Dong Liang, Sen Jia, Jing Cheng, Ye Li, Jian Xu, Jiaying Zhao
article en

Abstract

The three-dimensional (3D) multi-parametric MR imaging technique MULTIPLEX quantifies T1/T2*/PD/QSM maps within a single scan. However, the whole brain MULTIPLEX imaging suffers from a long scan time due to its dual-TR, dual-flip angle, and multi-echo signal acquisition strategy, limiting the achievable spatial resolution. Although the traditional compressed sensing (CS) method can handle under-sampled data, it suffers from prolonged reconstruction time and cannot guarantee quantitative accuracy. This work develops a multi -contrast joint deep learning model integrated with the MR physical model, named Joint DeepMTP, significantly enhancing the accuracy of reconstruction and quantification. Our proposed method achieves comparable reconstruction and quantification performance to the reference at 9- fold CAIPI acceleration for 3D high-resolution MULTIPLEX imaging with a reconstruction time of 3 minutes.

University of America (US), Shenzhen Institutes of Advanced Technology (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 85%
Medical Imaging Techniques and Applications
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