Why the study?
The study was conducted to assess the technical feasibility and impact on image quality and acquisition time of a deep learning-accelerated fat-saturated T2-weighted turbo spin echo sequence in extremity musculoskeletal imaging.
Does deep learning-accelerated T2w TSE improve image quality and reduce acquisition time compared to standard T2w TIRM in patients undergoing MRI of the extremities?
Does deep learning-accelerated T2w TSE improve image quality and reduce acquisition time compared to standard T2w TIRM in patients undergoing MRI of the extremities?
Deep learning-accelerated T2-weighted MRI of the extremities significantly improves image quality while reducing acquisition time by over 50% compared to standard imaging.
May streamline extremity MRI workflows; leaves open routine adoption pending larger validation studies.
Background: The aim of this study was to assess the technical feasibility and the impact on image quality and acquisition time of a deep learning-accelerated fat-saturated T2-weighted turbo spin echo sequence in musculoskeletal imaging of the extremities. Methods: Twenty-three patients who underwent MRI of the extremities were prospectively included. Standard T2w turbo inversion recovery magnitude (TIRMStd) imaging was compared to a deep learning-accelerated T2w TSE (TSEDL) sequence. Image analysis of 23 patients with a mean age of 60 years (range 30−86) was performed regarding image quality, noise, sharpness, contrast, artifacts, lesion detectability and diagnostic confidence. Pathological findings were documented measuring the maximum diameter. Results: The analysis showed a significant improvement for the T2 TSEDL with regard to image quality, noise, contrast, sharpness, lesion detectability, and diagnostic confidence, as compared to T2 TIRMStd (each p < 0.001). There were no differences in the number of detected lesions. The time of acquisition (TA) could be reduced by 52−59%. Interrater agreement was almost perfect (κ = 0.886). Conclusion: Accelerated T2 TSEDL was technically feasible and superior to conventionally applied T2 TIRMStd. Concurrently, TA could be reduced by 52−59%. Therefore, deep learning-accelerated MR imaging is a promising and applicable method in musculoskeletal imaging.
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Wessling et al. (2022) studied this question.
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