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

Digital Poster

Cardiac Structure and Function

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Cardiac Structure and Function
Digital Poster
Cardiovascular
Thursday, 14 May 2026
Digital Posters Row B
09:25 - 10:20
Session Number: 661-02
No CME/CE Credit
Session on novel and emerging techniques focused on characterizing cardiac structure and function
Skill Level: Basic

  Figure 661-02-001.  Automatic atrial volumetric and strain analysis from CINE-CMR: Comparison of 2-chambers and 4-chambers view assessment
Guido Nannini, Davide Piccini, Andreas Seitz, Heiko Mahrholdt, Elena Locatelli, Indraneel Borgohain, Jens Wetzl, Christian Geppert, Teodora Chitiboi
Siemens Healthcare S.r.l., Milan, Italy
Impact: Reliable and reproducible strain analysis is essential for deriving measurements with strong prognostic relevance. Our automated algorithm for atrial volumetric and strain evaluation can potentially reduce inter-observer variations and enable the quantification of large subject cohort.
  Figure 661-02-002.  Feasibility of Strain-Encoded Cardiac MRI Using Camera-Based Cardiac Triggering
Jouke Smink, Steffen Weiss, Nael Osman, Jan Hendrik Wuelbern
Philips, Best, Netherlands
Impact: This work demonstrates the feasibility of fully contactless cardiac triggering for strain-encoded Cardiac MRI (SENC) using in-bore camera–derived rPPG signals, eliminating ECG electrodes and enabling faster, simpler, and more comfortable cardiac imaging suitable for high-throughput clinical environments.
  Figure 661-02-003.  Deep Learning based automatic whole – left ventricle strain from a single breath–hold scan
Carlota Gladys Rivera Faúndez, Tomas Banduc, Rafael De La Sotta, Francisco Sahli Costabal, Rene Botnar, Claudia Prieto
Millennium Institute for Intelligent Healthcare Engineering - iHEALTH, Santiago, Chile
Impact: The impact of this work lies in integrating reconstruction, segmentation, and deformation estimation into a single 12-second, 0.55 T acquisition, enabling automatic, consistent, and physiologically coherent strain maps while significantly reducing both scanning and post-processing time.
  Figure 661-02-004.  Feasibility of Cardiac Fast Strain Encoding Spiral MRI at 5 Tesla
Zhibo Zhu, Jeanna Darino, Feng Fang, Nael Osman, Jian Xu, Qi Liu
United Imaging Healthcare North America, Houston, United States of America
Impact: This study demonstrates the feasibility of high temporal resolution FSENC-MRI. Further optimization is possible accounting for field inhomogeneity.
  Figure 661-02-005.  Exploring the role of vascular factors and tissue properties in pulsatile brain deformation
Marius Burman Ingeberg, Elijah Van Houten, Jaco Zwanenburg
University Medical Center Utrecht, Utrecht, Netherlands
Impact: The investigation of underlying biological drivers (microvascular and microstructural brain properties) in cardiac-induced brain strain contributes to a deeper understanding of these metrics, helping to enhance their utility in clinical research in the field of microvascular and neurodegenerative conditions.
  Figure 661-02-006.  Subclinical Cardiac Involvement in Primary Sjögren’s Syndrome patients: a cardiac magnetic resonance study
Qiming Liu, Tao Ouyang, Chen Zhang, Qi Yang
Beijing Chaoyang Hospital, Capital Medical University, beijing, China
Impact: This study reveals that asymptomatic primary Sjögren's syndrome patients exhibit silent myocardial impairment, detectable via cardiac magnetic resonance. Elevated disease activity is associated with impaired left ventricular function and myocardial tissue changes.
  Figure 661-02-007.  Identification of Serum Metabolites and Pathways Associated to Infection, Calcification, and Valve Damage in HVD Patients
Pawan Kumar, Dr. Rajiv Narang, Dr. Palleti Rajashekar, Sujeet Mewar, Pradeep Kumar, Rama Jayasundar, Uma Sharma, S Arava
All India Institute of Medical Sciences, New Delhi, India
Impact: This study provides novel metabolic biomarkers and mechanistic insights into infection and calcification associated valve damage in HVD. These findings may support early diagnosis, risk stratification, and the development of targeted metabolic biomarker for heart valve disease treatment.

  Figure 661-02-008.  Bridging Imaging and Histopathology in Cardiac Benign Tumors: The Role of Quantitative MRI
Tingting Zheng, Minjie Lu
Fuwai Hospital, Chinese Academy of Medical Sciences and Peking Union Medical College, Beijing, China
Impact: This study demonstrates that CMR parametric mapping, particularly ECV quantification, provides significant value in differentiating benign cardiac tumors. The treatment of benign cardiac tumors varies by pathologic type and ECV can provide diagnostic assistance when conventional MRI diagnosis is unclear.
  Figure 661-02-009.  Effect of Metabolic Syndrome on left heart dysfunction: a cardiac magnetic resonance tissue tracking technique study
Ming Liu, Jianbo Lyu, SHUYANG GUO, Xiaofeng Qu
The Second Affiliated Hospital of Dalian Medical University, Dalian, China
Impact: Our findings on the effect of metabolic syndrome on left heart dysfunction and its differential expression across gender subgroups provide a basis for clinical management and early intervention.
  Figure 661-02-010.  Loratadine Reduces Iron Deposition and Adverse Remodeling in Reperfused Myocardial Infarction: a Longitudinal MRI Study
Leon Riehakainen, João Pedro Torres Neiva Rodrigues, Alan Kwan, Debiao Li, Ivan Cokic
Cedars-Sinai Medical Center, Los Angeles, United States of America
Impact: Prolonged treatment with over-the counter mast cell stabilizer loratadine is a powerful pharmacostrategy to attenuate iron deposition in infarcted myocardium and potentially prevent major adverse cardiac events.
  Figure 661-02-011.  Wave-Driven Simulator of Labeled Structural and Functional Cine MRI for Benchmarking of Strain-Mapping Networks
Mishkat Habib, Ahmed Abdelfadeel, Ahmed Gharib, Khaled Abd-Elmoniem
National Institute of Diabetes and Digestive and Kidney Diseases, Bethesda, United States of America
Impact: A physics‑inspired, anatomy‑aware cine CMR simulator generates structural (SSFP‑like) and functional (tagging‑style) data with pixel-wise labeled displacement and strain, enabling reproducible, fair benchmarking and robust DL algorithm development across broad, tunable myocardial deformation regimes—including abnormal and dyssynergic motion patterns.

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