Generation of Synthetic Computed Tomography from Magnetic Resonance Images: A Literature Review

Gayathri Roy, Nimisha Mohan, S. R, Vaishnavi C Shubin, Ashutosh Mishra
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Abstract

Magnetic Resonance Imaging (MRI) is used in radiotherapy to designate target volumes and organs that are at risk because it offers greater contrast in soft tissues than Computed Tomography (CT) imaging does. The tissue electron density needed for dosage calculation, however, is not provided in MRI data. The most frequently studied anatomical localizations are the brain and pelvis, followed by the neck and head, abdomen, breast, and liver. A variety of methods for producing synthetic CT (sCT) using MRI scans have been designed to estimate radiation exposure. This study reviews different deep-learning methods used to generate synthetic CT images from MRI images.
从磁共振图像生成合成计算机断层扫描:文献综述
磁共振成像(MRI)在放射治疗中用于指定有危险的靶体积和器官,因为它比计算机断层扫描(CT)成像提供更大的软组织对比。然而,在MRI数据中没有提供剂量计算所需的组织电子密度。最常研究的解剖定位是脑和骨盆,其次是颈部和头部、腹部、乳房和肝脏。利用MRI扫描产生合成CT (sCT)的各种方法已被设计用于估计辐射暴露。本研究回顾了用于从MRI图像生成合成CT图像的不同深度学习方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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