Cape Town - 2026 ISMRM-ISMRT Annual Meeting and Exhibition • 09-14 May 2026

Digital Poster

Artificial Intelligence-Based Image Reconstruction in the Body

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Artificial Intelligence-Based Image Reconstruction in the Body
Digital Poster
Body
Thursday, 14 May 2026
Digital Posters Row C
14:35 - 15:30
Session Number: 662-04
No CME/CE Credit
This session includes presentations that utilize Artificial Intelligence in body MRI.

  Figure 662-04-001.  Delineating Dynamic Hyperpolarized Metabolic Signatures in Patient-derived Prostate Cancer Xenografts Using AI
Erzsébet Merényi, Pratip Bhattacharya, Patrick Pilié, José Enriquez, Prasanta Dutta, Ziting Tang, Cesar Cardenas
Rice University, Houston, United States of America
Impact: Our AI approach can enable deep understanding and refinement of prostate cancer subtypes in response to therapy, from non-invasive HP-MR signatures. This has the potential to facilitate increased prediction accuracy and significant advancement of personalized medicine in a diverse population.
  Figure 662-04-002.  First clinical translation of volumetric deep-learning super-resolution in 3D T2 breast MRI: faster acquisition,better images
Narine Mesropyan, Oliver Weber, Christoph Katemann, Johannes Peeters, Can Yueksel, Alexander Isaak, Julian Luetkens
University Hospital Bonn, Bonn, Germany
Impact: A true 3D deep-learning super-resolution framework enables substantial scan-time reduction for 3D breast T2 MRI while improving image quality and maintaining BI-RADS consistency, facilitating clinical translation for either higher throughput or enhanced diagnostic image quality.
  Figure 662-04-003.  Deep Learning-Reconstructed Thin-Slice VIBE Enhances Biliary Delineation and Lesion Detection in Hepatobiliary Phase MRI
Haoran Dai, Jili Chen, Xuhao Song, Kai Liu, Caixia Fu, Mengsu Zeng
Zhongshan Hospital, Shanghai, China
Impact: This inline DL-reconstruction protocol resolves the spatial resolution-SNR trade-off, providing histology-grade lesion margin sharpness and surgical-grade biliary maps. It offers a immediate clinical upgrade for precision liver MRI without prolonging scan time.
  Figure 662-04-004.  Self-Supervised Reconstruction and Denoising for High-Resolution Distortion-Free Prostate DWI
Jingjia Chen, Haoyang Pei, Kun Zhou, Qiuting Wen, Mahesh Keerthivasan, Angela Tong, Hersh Chandarana, Li Feng
New York University Grossman School of Medicine, New York, United States of America
Impact: This work addresses the SNR limitations in distortion-free TGSE-PROPELLER-DWI by introducing a self-supervised learning-based reconstruction method. Improved image quality, enhanced resolution, and reduced scan times make it highly promising for advancing prostate imaging applications.
  Figure 662-04-005.  Public-Trained, Clinic-Ready: Robust Diffusion-Prior Breast MRl Reconstruction Across Mulitple Sequences
Zihao Wang, Shoujin Huang, Jiacai Cai, Lingyan Zhang, Hongyan Du, Yuqian Wang, Min Wang, Shaojun Liu, Mengye Lyu
Shenzhen Technology University, Shenzhen, China
Impact: Noise-adaptive diffusion reconstruction generalizes from public data to clinical breast MRI, enabling higher accelerations with better PSNR/SSIM, while preserving DCE TICs. These results may shorten exams, reduce motion, and motivate prospective studies.
  Figure 662-04-006.  A unified fully automated 4D MRI for radiotherapy using pseudo-golden-angle radial k-space and deep-learning reconstruction
Subin Erattakulangara, Victor Murray, Victoria Yu, Ricardo Otazo, Can Wu
Memorial Sloan Kettering Cancer Center, New York, United States of America
Impact: Accurate motion assessment is essential for precise radiotherapy of abdominal tumors. Our unified fully automated pipeline enables fast 4D MRI-based motion assessment of abdominal tumors and organs using standard clinical sequences, facilitating clinical translation of the technique for radiotherapy applications.
  Figure 662-04-007.  Accelerated Abdominal MRI at 0.05 Tesla via Golden-angle Radial Sampling and Deep Learning Reconstruction
Junhao Zhang, Yujiao Zhao, Vick Lau, Xiang Li, Jiahao Hu, Shi Su, Ye Ding, Alex T. L. Leong, Ed X Wu
The University of Hong Kong, Hong Kong, China
Impact: It is the first time that the proposed method could accelerate 3D T2W abdominal MRI at 0.05 Tesla for about 4 minutes per scan.
  Figure 662-04-008.  Prospective Comparison of Conventional and Deep Learning-Reconstructed Thin-Slice 3D T1-weighted imaging of the Breast
Nan Zhang, Xuhao Song, Caixia Fu, Marcel Dominik Nickel, Mengsu Zeng
Zhongshan Hospital, Shanghai, China
Impact: thin-slice VIBEDL sequence achieved better image quality, noise reduction, image sharpness, artifacts mitigation, and diagnostic confidence, as well as lesion conspicuity and detection compared to the conventional VIBE sequence.
  Figure 662-04-009.  Super-Resolution Deep Learning Reconstruction Improves Assessment of Myometrial Invasion in Endometrial Cancer
Takumi Tanigaki, Atsushi Nakamoto, Hideyuki Fukui, Takashi Ota, Toru Honda, Kengo Kiso, Eriko Yoshidome, Masatoshi Hori, noriyuki tomiyama
The University of Osaka Graduate School of Medicine, Suita, Japan
Impact: SR-DLR enables simultaneous improvement in signal-to-noise ratio and spatial resolution for endometrial cancer imaging, potentially improving staging accuracy and treatment planning while maintaining clinically feasible scan times, representing a significant advance in gynecologic oncology imaging.
  Figure 662-04-010.  Synergizing PROPELLER and deep learning reconstruction to optimize 1.5T lumbar spine T2w-STIR imaging
Qingbin Meng, Shan Luo, Qian Zhang, Guangxu Han, Min Li, Fang Shen
Shaanxi Provincial Rehabilitation Hospital for Disabled Veterans, Weinan, China
Impact: PDLR-T2w-STIR improves image quality and reduces scan time in 1.5T lumbar MRI, offering a promising solution to motion artifacts and workflow inefficiencies without compromising diagnostic performance.
  Figure 662-04-011.  Deep Learning–Based Accelerated Diffusion-Weighted Imaging for Liver Lesion Evaluation: Improved Image Quality and Diagnostic
Wenjie Xu, Fuquan Wei, Guoqun Mao, Yijiang Huang, Nan Chen, Yunzhu Wu, Thomas Benkert
Tongde Hospital of Zhejiang Province, Hangzhou, China
Impact: DL-based DWI enables faster, clearer liver imaging, improving lesion detection and supporting more confident clinical diagnosis.
  Figure 662-04-012.  Complexed Signal Average for Prostatic DWI: Improving Diagnostic Performance of Malignant from Benign Prostatic Areas on DWIs
Takahiro Ueda, Natsuka Yazawa, Kaori Yamamoto, Yuichiro Sano, Masato Ikedo, Masanori Ozaki, Masahiko Nomura, Takeshi Yoshikawa, Daisuke Takenaka, Masahiro Endo, Yoshiyuki Ozawa, Yoshiharu Ohno
Fujita Health University School of Medicine, Toyoake, Japan
Impact: Complexed signal average (CSA)mainly improves image quality and differentiation capability of malignant from benign prostatic areas on DWI with standard and ultra-high b values.
  Figure 662-04-013.  Evaluation of a Deep Learning Based Accelerated 3D Acquisition Strategy for T2-Weighted MRI of the Prostate
Eugene Milshteyn, Trevor Kolupar, Arnaud Guidon, Ty Cashen, Ajeetkumar Gaddipati, Nabih Nakrour, Mukesh Harisinghani, Rory Cochran
GE HealthCare, San Ramon, United States of America
Impact: Deep learning accelerated 3D T2-weighted prostate imaging can provide a new avenue for fast, high resolution prostate mpMRI and improve lesion localization and diagnostic confidence.
  Figure 662-04-014.  Robust High-Resolution Multi-Organ Diffusion MRI Using Synthetic-Data-Tuned Prompt Learning
Chen Qian, Haoyu Zhang, Junnan Ma, Ke Jiang, Mingyang Han, xianwang jiang, Lv Li, Yingsa Li, Qin Xu, Hai Zhong, Xiaobo Qu
Fujian Provincial Key Laboratory of Plasma and Magnetic Resonance, Xiamen University, Xiamen, China
Impact: The approach eliminates navigator signals and realistic data supervision, providing an interpretable, robust solution for high-resolution multi-organ multi-shot DWI. Its scanner-agnostic performance signifies transformative potential for precision oncology
  Figure 662-04-015.  Self-Supervised Deep Learning Model for Estimating Microstructural Parameters in Breast Cancer
Juanhua Zhang, Lei Wu, Yuan Lian, Fan Liu, Peijiang Ma, Kaihan Yang, Haihua Bao, Diwei Shi, Hua Guo
Tsinghua University, Beijing, China
Impact: This self-supervised deep learning model surpasses NLLS fitting in estimating IMPULSED microstructural parameters, enabling higher accuracy and shorter computation time.
  Figure 662-04-016.  Breast DWI using ​complex signal averaging and super resolution DLR - impact on quality with breast phantom
MASAKO KATAOKA, Maya Honda, Koji Fujimoto, Kanae Miyake, Sachi Okuchi, Mami Iima, Hajime Morizumi, Rimika Imai, Yuichiro Sano, Yuji Nakamoto
Kyoto University Hospital, Kyoto, Japan
Impact: The phantom study simulating breast DWI indicates that "Complex signal averaging (CSA)" with super-resolution DLR can reduce noise, improve image quality while allow reliable ADC quantification. Sufficient evidence to apply CSA and DLR to clinical breast DWI is demonstrated.

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