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

Digital Poster

Generative Models for Image Synthesis

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Generative Models for Image Synthesis
Digital Poster
Analysis Methods
Wednesday, 13 May 2026
Digital Posters Row B
08:20 - 09:15
Session Number: 561-01
No CME/CE Credit
This session will focus on abstracts using generative tools for the task of image synthesis within and across modalities.

  Figure 561-01-001.  Rapid High-Fidelity Abdominal sCT Generation for MR-Only Radiotherapy on an MR-Linac with a 2.5D Hybrid VAE-GAN
Sukhraj Virdee, Anna Briskina, Amir Moslemi, Angus Lau, Brige Chugh
Sunnybrook Health Sciences Centre, University of Toronto, Toronto, Canada
Impact: This work validates a fast, high-fidelity synthetic CT generation method for MR-Linac systems, paving the way for efficient MR-only workflows that eliminate resource-intensive CT simulation, enabling accurate dose calculations and robust adaptive radiotherapy in the challenging abdominal region.
  Figure 561-01-002.  Automated FLAIR Synthesis from T1 and T2 Brain MRI at 3T
Yaozhong Huang, Patricia Johnson, Narges Razavian, Riccardo Lattanzi
New York University Grossman School of Medicine, New York, United States of America
Impact: Eliminating the FLAIR acquisition through synthesis from T1 and T2 sequences shortens brain MRI protocols by ~5 minutes (20% reduction). This decreases motion artifacts, particularly important for pediatric and cognitively impaired patients, while improving patient comfort and increasing scanner capacity
  Figure 561-01-003.  OurGAN: A Deep Learning Approach for Synthesizing High-Quality T2 FLAIR Images from T2 Mapping Data
Xueao Li, Wenqian Zhao, Che Wang, Yao Liu, Xiaonan Zhang, Chunyan Zhang, Yuchuan Zhuang, Andrey Tulupov, Jing Li, Liufei Yang, Tong Wang, Yongping Wu, Rongning Zhuang, Fengshou Zhang, Jianfeng Bao
Henan University of Science and Technology, Luoyang, China
Impact: In this study, we propose a deep learning–based approach for synthesizing T2FLAIR images directly from T2mapping, representing a pioneering attempt in this field. This method provides a feasible pathway to obtain diagnostically valuable FLAIR images while substantially reducing acquisition time.
  Figure 561-01-004.  3D Conditional VAE with ViT-UNETR for Multi-Sequence Brain MRI Generation
Tayyaba Arshad, Endre Grovik
Helse Møre and Romsdal Hospital Trust, Alesund, Norway
Impact: The proposed 3D conditional VAE offers a scalable approach for generating realistic multi-sequence MRIs, expanding data availability for AI research. It enables the creation of synthetic neuroimaging datasets to enhance model generalization and facilitate reproducible, data-driven brain analysis.
  Figure 561-01-005.  Accelerating Prostate Microstructure Mapping: A CycleGAN-Based Framework for HM-MRI Synthesis
Dianning He, Guantian Huang, Aritrick Chatterjee, Abel Campos, Wei Qian, Shouliang Qi, Gregory Karczmar, Aytekin Oto
School of Health Management, China Medical University, China
Impact: This study enables clinically feasible implementation of prostate microstructure imaging using Hybrid Multidimensional MRI by reducing scan time by over half while preserving diagnostic fidelity, facilitating routine deployment in prostate cancer assessment.
  Figure 561-01-006.  Deep learning-based synthetic CT from black-bone MRI with limited retrospective clinical data for MR-only treatment planning
Merlin Owens, N. Jane Taylor, Andrew King
School of Biomedical Engineering and Imaging Sciences, King's College London, London, United Kingdom
Impact: Synthetic CTs can reduce radiation dose to patients, time spent in hospital, and imaging workload. Demonstrating a clinically available black-bone MRI sequence as an input to sCT models, and performing comparative dose calculations, expands feasibility of MR-only treatment planning.
  Figure 561-01-007.  FiLM-cGAN based synthesis of individualized cerebral blood flow (CBF) maps from T1-weighted MRI
Wiebke Entelmann, Thomas Lindner, Matthias Günther
University Hospital Hamburg Eppendorf, Germany
Impact: 

This study demontrated the feasibility of generating sythetic cerebral blood flow (CBF) maps from structural T1-weighted MRI and metadata using a FiLM-cGAN architecture.
  Figure 561-01-008.  PSF-EPI-DWI to Multi-Contrast MRI Translation using Deep Learning
Yuhang He, Juanhua Zhang, Zhe Zhang, Yuan Lian, Yibei Yu, Wen Zhong, Xiaoguang Yang, Jing Jing, Zhuozhao Zheng, Hao Huang, Hua Guo
Tsinghua University, Beijing, China
Impact: This AI-powered method synthesizes high-fidelity T2w, T2-FLAIR and T1-FLAIR from a single PSF-EPI DWI scan. It paves the way for radical MRI acceleration, potentially cutting protocol times while preserving full diagnostic content.
  Figure 561-01-009.  Unsupervised Image Harmonization of Multi-Parametric Maps of the Brain
Ann Laube, Christian Stehning, Joachim Weber, Matthias Endres, Katharina Schönrath, Ira Rohrpasser-Napierkowski, Tobias Leutritz, Nikolaus Weiskopf, Jeanette Schulz-Menger, Kersten Villringer, Anja Hennemuth
Deutsches Herzzentrum der Charité (DHZC), Berlin, Germany
Impact: We present an unsupervised deep learning method that harmonizes quantitative multi-parametric mapping across clinical scanners without needing matched travelling-subject data, enabling more consistent measurement of brain microstructure and improving the reliability of multi-center neuroimaging studies.
  Figure 561-01-010.  Synthetic STIR Sequences Offer Same Edema Contrast as Standard-of-Care Acquisitions
Thomas Arnold, Long Wang, Ajit Shankaranarayanan, Lawrence Tanenbaum
Subtle Medical Inc, Menlo Park, United States of America
Impact: This work demonstrates that deep-learning-based synthesized STIR sequences provide equivalent edema contrast to standard, slow acquisitions. This allows for significantly accelerated spine MRI protocols and can increase patient throughput without compromising the detection of critical spinal pathology like edema.
  Figure 561-01-011.  Integrating DeepOxyMap and Residual GAN–Based Mapping for Differentiating Ischemic,Non-Ischemic, and Amyloid Cardiomyopathies
faezeh Lotfikazemi, Matthias Fridreich, mitchel benovoy, moezedinjavad rafiee, leila haririsanati, michael chetrit
McGill University Health Centre, Montreal, Canada
Impact: Our DeepOxyMap + R-GAN framework generates contrast-free T1 maps from OS-CMR, enabling accurate differentiation of amyloid, ischemic, and non-ischemic cardiomyopathies—overcoming limitations of motion, scan time, and contrast injection with fast, one-minute fibrosis mapping.
  Figure 561-01-012.  Lung Template-Based Quantitative Assessment of Pulmonary Ventilation Function
Yuan Fang, Haidong Li, Hongchuang Li, Ming Zhang, Ming Luo, Xiuchao Zhao, Lei Shi, Yeqing Han, Xin Zhou
State Key Laboratory of Magnetic Resonance Spectroscopy and Imaging, National Center for Magnetic Resonance in Wuhan, Wuhan Institute of Physics and Mathematics, Innovation Academy for Precision Measurement Science and Technology, Chinese Academy of Sciences, Wuhan, China
Impact: This study developed and established a healthy lung template, enabling sensitive, segmental-level ventilation quantification without thoracic CT. This standardized tool facilitates detection of early, localized dysfunction and guides personalized treatment planning.
  Figure 561-01-013.  An Optimized Synthetic MRI Framework for Enhanced Tumor-to-Background Contrast
Mavidu Iddagoda, Kathleen Earhart, Evan Noch, Salvador Pena, Janaka Wansapura
University of Colombo, Colombo, Sri Lanka
Impact: The proposed framework facilitates enhanced tumor detection by significantly increasing the contrast between tumor and surrounding tissue. Furthermore, the synthetic MRI methodology is designed to be generalisable, demonstrating flexibility for application across diverse anatomical regions and tissue types
  Figure 561-01-014.  Accurate physics-guided synthesis and harmonisation of T1-Weighted gray–white matter ratio
Hongyan Liu, Somtochukwu Ibeme, Nikos Priovoulos, William Clarke, Aaron Hess, Karla Miller
University of Oxford, Oxford, United Kingdom
Impact: This physics-guided synthesis framework enables accurate prediction and harmonisation of sequence-dependent Gray-white matter ratio variability, improving cross-protocol comparability of T₁-weighted MRI biomarkers. It provides a quantitative and physically interpretable tool for protocol optimisation and data harmonisation.
  Figure 561-01-015.  Super-resolution synthetic MRI using deep learning reconstruction for accurate diagnosis of lumbar intervertebral disc degene
Fei-fei Zeng, Yunfei Zha, Weiyin Vivian Liu, Yang Fan
Renmin Hospital of Wuhan University, Wuhan, China
Impact: DLR SyMRI significantly reduces scan time while providing morphological image quality comparable to conventional MRI and more precise quantitative T2 value. It offers an efficient, one-stop solution for the precise identification and quantitative assessment of early-stage lumbar disc degeneration.
  Figure 561-01-016.  Neuro GPT | A tool for scientific discovery
Niall Bourke, Hajer Karoui, Kenneth Ae-Ngibise, Firehiwot Abate, Kwaku Asante, Florence AWEYO, Victor Akelo, Muriel Bruchhage, Chiara Casella, Vanessa Cavallera, Kirsten Donald, Tarun Dua, Laurel Gabard-Durnam, Bethany Freeman, Emmanuela Gakidou, Zahra Hoodbhoy, Margaret Kasaro, Sidra Kaleem, AMNA KHAN, Patricia Kitsao-Wekulo, Beena Koshy, Anne Lee, Aksel Leknes, Natasha Lepore, Marius Linguraru, Russell Macleod, Yaw Mensah, Jonathan O'Muircheartaigh, Hans-Georg Müller, Victoria Namazzi, Margaret Nampijja, Gloria Nandudu, Victoria Nankabirwa, Krysten North, Solomon Nyame, Dickens Onyango, Samuel Oppong, Salman Osmani, Harun Owuour, Sadia Parkar, Marc Seal, Emily Smith, Jamie Steinmetz, Austin Tapp, Jeffrey Tanedo, Maclean Vokhiwa, Ayo Zahra, Steven Williams, Sean Deoni, Joshua Proctor
King's College London, London, United Kingdom
Impact: Sites in a global network have collected paediatric ultra-low field MR images, generating derived volume estimates. This new AI-assisted tool will facilitate answering of locally relevant clinical questions on factors affecting neurodevelopment, such as maternal anaemia, HIV exposure, malnutrition etc.

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