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

Digital Poster

Quantitative Pelvic, Thorax, and Abdomen

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Quantitative Pelvic, Thorax, and Abdomen
Digital Poster
Acquisition & Reconstruction
Tuesday, 12 May 2026
Digital Posters Row H
09:15 - 10:10
Session Number: 467-02
No CME/CE Credit
Anything quantitative in the chest, pelvis and abdomen - with a lovely cluster on the heart and a lot of work showing inter-vendor changes in relaxometry!

  Figure 467-02-001.  Joint black- and bright-blood late gadolinium enhancement for the assessment of left ventricular thrombus
Aurelien Bustin, Théo Richard, Victor de Villedon de Naide, Edouard Gerbaud, Thaïs Génisson, Kalvin Narceau, Ewan Barel, Pierre Jaïs, Matthias Stuber, Hubert Cochet
IHU LIRYC, Heart Rhythm Disease Institute, Bordeaux, France
Impact: The proposed dual black- and bright-blood imaging detects left ventricular thrombus, along with myocardial scar and papillary muscle infarction, which has the potential to considerably reduce overall CMR protocol, while facilitating image analysis due to its co-registered approach.
  Figure 467-02-002.  Motion Corrected Time-resolved MR Fingerprinting for Free Breathing Abdominal Imaging
Di Cui, Zhen Wang, Peder Larson, Duan Xu, Xiaoxi Liu
University Of California, San Francisco (UCSF), United States of America
Impact: This work enables accurate, rapid, and fully free-breathing multiparametric abdominal MRI (T1, T2, T2*, proton density), advancing motion-robust quantitative imaging toward broader clinical applicability.
  Figure 467-02-003.  Papillary muscle T2 mapping in acute myocardial infarction
Théo Richard, Victor de Villedon de Naide, Edouard Gerbaud, Sane Viola, Thaïs Génisson, Kalvin Narceau, Ewan Barel, Pierre Jaïs, Matthias Stuber, Hubert Cochet, Aurelien Bustin
IHU LIRYC, Heart Rhythm Disease Institute, Bordeaux, France
Impact: The presence of edema within injured papillary muscles during the acute phase of myocardial infarction may help predict downstream clinical outcomes such as mitral regurgitation.
  Figure 467-02-004.  Myocardial T1rho Mapping at 1.5 T: Normal Values and Initial Patient Experience
Pontus Pandurevic, Jenny Castaings, Jannike Nickander, Alexander Fyrdahl
Karolinska Institutet, Solna, Sweden
Impact: Myocardial Trho mapping shows promise for detection of myocardial fibrosis and amyloid deposition without contrast-agents, which could expand access to patients with renal dysfunction or gadolinium contraindications. This pilot study reports preliminary protocols and reference values for future clinical translation.
  Figure 467-02-005.  Diffusion MRI-Based Virtual Elastography for Chronic Kidney Disease Assessment: initial study
Yanping Lin, Liujun Liu, Yunyi Liu, Qingyun Wang, Xiaoyan Su, Yunyu Gao, Zhaoyong Li
DongGuan Tungwah Hospital, Dongguan Key Laboratory of Radiology and Molecular Imaging, Dongguan, China
Impact: Aimed to evaluate the application value of diffusion-weighted imaging (DWI)-based virtual magnetic resonance elastography (vMRE) in chronic kidney disease (CKD), ultimately proposing a novel quantitative MRI framework for renal pathology characterization.
  Figure 467-02-006.  T1 Mapping–Based Multi-Parametric MRI for Subtyping and Differentiation Grading of Non–Small Cell Lung Cancer
Guangzheng Li, Jie Shi
The First Affiliated Hospital of Soochow University, Suzhou, China
Impact: T1 mapping–based multi-parametric MRI provides a reproducible and non-invasive tool for NSCLC subtyping and grading, with strong potential as a clinically useful imaging biomarker.
  Figure 467-02-007.  Correcting B1-Induced Errors in RADTSE T2 Mapping: Validation and a Novel Simultaneous Acquisition (RADTSE-DAM)
Brian Toner, Ute Goerke, Eze Ahanonu, Kevin Johnson, Fei Han, Vibhas Deshpande, Holden Wu, Ali Bilgin, Maria Altbach
University of Arizona, Tucson, United States of America
Impact: B1 heterogeneity corrupts RADTSE T2 maps, and we demonstrate that constraining the fit with a B1 map corrects T2 bias and variance caused by B1-induced artifacts. We also introduce RADTSE-DAM, a novel sequence for simultaneous B1 and T2 mapping.
  Figure 467-02-008.  Multiparametric exchange protons of CEST and Z-spectrum analysis proton (ZAP) in the human pancreas
Yoshiki Kuwatsuru, Vadim Malis, Mitsue MIYAZAKI
Juntendo University, Tokyo, Japan
Impact: This study introduces simultaneous CEST and ZAP MRI as a non-contrast method for assessing molecular changes and age-related alterations of the pancreas, offering a promising tool for early detection and metabolic characterization of pancreatic disease.
  Figure 467-02-009.  Dynamic 19F Gas MRI Using 3D Rosette UTE sequence (PETALUTE)
Truc Nguyen, Khoi Huynh, Pew-Thian Yap, uzay emir, Yueh Lee
University of North Carolina at Chapel Hill, Chapel Hill, United States of America
Impact: This work validates the PETALUTE sequence for dynamic 19F gas imaging. This enables flexible, ultra-short echo time (UTE) data acquisition, supporting future free-breathing, high-resolution regional lung ventilation assessment.
  Figure 467-02-010.  High resolution lipid composition map in high grade breast tumour using chemical shift-encoded imaging on 9.4T preclinical MR
Sai Man Cheung, Kwok-Shing Chan, Kangwa Nkonde, Yazan Ayoub, Nicholas Senn, Bernard Siow, Jiabao He
Newcastle University, Newcastle upon Tyne, United Kingdom
Impact: CSEI is sensitive to lipid dysregulation in the peri-tumoural region of breast cancer, and the submillimetre resolution might support the investigation of cellular actions at the interface between breast cancer and the surrounding adipose tissue, facilitating drug development.
  Figure 467-02-011.  Validation of Uncertainty Quantification in AI-Derived Liver PDFF Measurements Using MRI
Bhavesh Lalwani, Juan Meneses, Sergio Uribe
Monash University, Melbourne, Australia
Impact: A physics-informed deep learning method for joint liver PDFF and uncertainty quantification has been thoroughly validated across in vivo and in silico MRI. There is significant agreement between PDFF uncertainty and high R2*, large off-resonance field, and low SNR values.
  Figure 467-02-012.  Inter- and Intra-scanner precision of T1 mapping of the myocardium at 1.5T.
Houchun Hu, Chen Lin, Amy Lockwood, Ryan Coleman, Melissa Rogers, Shengzhen Tao, Xiangzhi Zhou, Isabel Cortopassi, Suhny Abbara
Mayo Clinic, Jacksonville, Florida, United States of America
Impact: T1 mapping of the myocardium across two 1.5T scanners achieved a reproducibility coefficient of 67 msec and a repeatability coefficient range of 33 to 51 msec in ten healthy adult volunteers (mean age: 52 years, SD: 8 years).
  Figure 467-02-013.  Feasibility of automated roadmapping and holographic visualization for MR-guided endovascular liver procedures
G.W.D. Wennemars, Joppe Sallevelt, Evangelia Ilia, C.G. Overduin, Jurgen Futterer, Wyger Brink
Radboud University Medical Center, Nijmegen, Netherlands
Impact: The proposed workflow improves visualization, accuracy and efficiency of MR-guided liver endovascular procedures in the liver using recently developed techniques, potentially stimulating adoption and development of MR-guided liver endovascular procedures.

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