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

Oral

Registration, Atlases, and Motion

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Registration, Atlases, and Motion
Oral
Analysis Methods
Wednesday, 13 May 2026
Meeting Room 2.60
08:20 - 10:10
Moderators: Yiming Dong & Xiaodong Zhong
Session Number: 530-02
No CME/CE Credit
This session will highlight recent advances in image registration, with an emphasis on AI-based methods. Contributions will span atlas construction and motion-related applications, reflecting current trends and open challenges in the field.
Skill Level: Intermediate

08:20 Figure 530-02-001.  RealKeyMorph: A Resolution-Agnostic Keypoint-Based Image Registration Framework for MRI
Mina Chookhachizadeh Moghadam, Alan Wang, Omer Taub, Martin Prince, Mert Sabuncu
Weill Cornell Medicine, Cornell University, New York, United States of America
Impact: This research revolutionizes medical image registration by enabling resolution-agnostic alignment of MR volumes without resampling. RKM serves as a powerful preprocessing tool for multi-stack reconstruction and longitudinal analysis, enhancing MR-based diagnostics by eliminating interpolation noise and preserving anatomical fidelity.
08:31 Figure 530-02-002.  Test Time Adapted Generalized AI-based Medical Image Registration Method
Sneha Sree C, Dattesh Dayanand Shanbhag, SUDHANYA Chatterjee
GE HealthCare, Bengaluru, India
Impact: This study enables fast, generalizable image registration across modalities, improving clinical workflows and diagnostic accuracy. It empowers clinicians with reliable motion correction, inspires scalable AI solutions, and opens new research into cross-modality registration and adaptive learning strategies.
08:42 Figure 530-02-003.  Wavelet-Guided Deep Residual Network for Unsupervised Medical Image Registration
Zhengyong Huang, Ning Jiang, Yao Sui
Peking University, Beijing, China
Impact: We develop a methodology designed to enable the precision and robustness of medical image registration. This approach highlights the potential of frequency-aware deep learning for modeling various deformations and offers a new strategy for improving registration performance.
08:53 Figure 530-02-004.  Learning Non-Rigid Motion From MIMO RF Navigators
Rinni Bhansali, Thomas Olausson, Gustavo Perez, Philippa Krahn, Alessandro Sbrizzi, Michael Lustig
University of California, Berkeley, United States of America
Impact: We integrate MIMO BPT and PT signals into a low-rank motion model, establishing a direct link between these external tones and complex 3D motion states. This demonstrates their potential for tracking non-rigid motion with per-readout temporal resolution in MRI.
09:04 Figure 530-02-005.  Landmark Matching and B-spline Implicit Neural Representations for Diffusion-Weighted Imaging Distortion Correction
Yunxiang Li, Yen-peng Liao, Yan Dai, Jie Deng, You Zhang
University of Texas Southwestern Medical Center, Dallas, United States of America
Impact: By combining the regularization properties of B-spline parameterization with the cross-modal matching capabilities of foundation models, our method achieves more accurate correction of geometric distortions in DWI, with the potential to enhance precision in intra/post-radiotherapy assessment.
09:15 Figure 530-02-006.  Population-Representative Brain Templates and Morphometric Aging Signatures from Ultra-Low-Field (64 mT) MRI
Kh Tohidul Islam, Parisa Zakavi, Shenjun Zhong, Sanuwani Dayarathna, Himashi Peiris, Helen Kavnoudias, Yi Chao Foong, Anneke Van Der Walt, Juan Domínguez D., Karen Caeyenberghs, Gary Egan, Meng Law, Zhaolin Chen
Monash University, Clayton, Victoria, Clayton, Australia
Impact: This study establishes age-specific brain templates and quantitative morphometry at 64 mT, demonstrating that ultra-low-field MRI can sensitively capture aging-related brain changes. It enables reliable population studies and extends quantitative neuroimaging to resource-limited, point-of-care environments.
09:26 Figure 530-02-007.  A Novel Joint Synthesis and Registration Framework for Registering Diffusion MRI and T1-weighted Images
Xiaofan Wang, Junyi Wang, Yuqian Chen, Lauren O’Donnell, Fan Zhang
University of Electronic Science and Technology of China, Chengdu, China
Impact: The proposed framework enables effective fusion of dMRI and T1w information, allowing dMRI-derived features, such as tractography, to be spatially aligned within a standard anatomical space. This capability facilitates population-level analyses, brain atlas construction, and clinical planning.
09:37 Figure 530-02-008.  One Touch Patient Registration and Smart MR Scan Planning Using Deep Learning
SAGNIK GHOSH, SANKET MALI, HARIKRISHNA RAI
GE HealthCare (Bengaluru, India), Bengaluru, India
Impact: This 3D vision–based, contactless morphometric and BMI estimation framework with automatic 3D patient contour detection transforms MR/PET-MR workflows—empowering radiologists, technologists, and patients through SAR/SUV-aware intelligent scan planning, enabling personalized imaging, adaptive protocolling, and precision dosing while advancing safety and automation.
09:48 Figure 530-02-009.  Atlas-based Personalized Aorta Topological Heatmaps for Improved Characterization of Thoracic Aortic Disease
William Dong, Ethan Johnson, Bradley Allen, Haben Berhane, Charilaos Apostolidis, Michael Markl
Northwestern University, Chicago, United States of America
Impact: The personalized aortic topological heatmap approach has the potential to fully leverage the 3D information of MRA in risk assessment of thoracic aorta disease by incorporating geometric features not represented by standard aorta diameter measurements.
09:59 Figure 530-02-010.  Improving Cross-Field MRI Alignment with Nonlinear ANTs Registration for Reliable Connectivity Mapping
Jamini Bhagu, Gail Harmata, Adriana Rivera-Dompenciel, Michelle Voss, Jenny Richards, Sarah Smith, Spencer Smith, Aislinn Williams, Jerome Maller, John Wemmie, Vincent Magnotta
University of Iowa, Iowa City, United States of America
Impact: Improved alignment of 7T functional and 3T anatomical MRI using nonlinear registration enables more accurate mapping of brain connectivity. This refinement enhances reproducibility in multimodal studies and supports better investigation of neural circuits relevant to mood and neuropsychiatric disorders.

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