Rosette Trajectory MRI Reconstruction with Vision Transformers

Introduction: An efficient pipeline for rosette trajectory magnetic resonance imaging reconstruction is proposed, combining the inverse Fourier transform with a vision transformer (ViT) network enhanced with a convolutional layer. This method addresses the challenges of reconstructing high-quality images from non-Cartesian data by leveraging the ViT’s ability to handle complex spatial dependencies without extensive preprocessing. Materials and Methods: The inverse fast Fourier transform provides a robust initial approximation, which is refined by the ViT network to produce high-fidelity images. Results and Discussion: This approach outperforms established deep learning techniques for normalized root mean squared error, peak signal-to-noise ratio, and entropy-based image quality scores; offers better runtime performance; and remains competitive with respect to other metrics.

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Publication Details

Journal
UNC Libraries
Published
2025-05-02
DOI
https://doi.org/10.17615/p2rw-wq17
Primary Topic
Advanced MRI Techniques and Applications
Type
article
Field-Weighted Citation Impact
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article

Rosette Trajectory MRI Reconstruction with Vision Transformers

Onur Özyurt, Uzay E. Emir, Ulaş Bağcı, Cengizhan Öztürk et al.
UNC Libraries
Advanced MRI Techniques and Applications
article

Rosette Trajectory MRI Reconstruction with Vision Transformers

Onur Özyurt, Uzay E. Emir, Ulaş Bağcı, Cengizhan Öztürk, Muhammed Fikret Yalcinbas
article en

Abstract

Introduction: An efficient pipeline for rosette trajectory magnetic resonance imaging reconstruction is proposed, combining the inverse Fourier transform with a vision transformer (ViT) network enhanced with a convolutional layer. This method addresses the challenges of reconstructing high-quality images from non-Cartesian data by leveraging the ViT’s ability to handle complex spatial dependencies without extensive preprocessing. Materials and Methods: The inverse fast Fourier transform provides a robust initial approximation, which is refined by the ViT network to produce high-fidelity images. Results and Discussion: This approach outperforms established deep learning techniques for normalized root mean squared error, peak signal-to-noise ratio, and entropy-based image quality scores; offers better runtime performance; and remains competitive with respect to other metrics.

UNC Libraries
University of North Carolina at Chapel Hill (US)
Openalex Percentile: Top 51%
Advanced MRI Techniques and Applications
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