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

Digital Poster

New and Novel Acquisition and Reconstruction

Back to the Program-at-a-Glance

New and Novel Acquisition and Reconstruction
Digital Poster
Acquisition & Reconstruction
Wednesday, 13 May 2026
Digital Posters Row B
16:55 - 17:50
Session Number: 561-06
No CME/CE Credit
New and Novel Acquisition and Reconstruction - brain, and body

  Figure 561-06-001.  A novel reconstruction for optimal TQ/SQ 23Na Signal estimation with simultaneous relaxation time determination
Dominik Zehender, Valentin Jost, Lothar Schad, Samuel Grant, Frank Zoellner
Medical Faculty Mannheim, Heidelberg University, Mannheim, Germany
Impact: The novel fixed TQTPPI reconstruction mitigates the drawback of the previous reconstruction by enabling the determination of T*2s and T*2f together with TQ/SQ ratio, thus gaining double the information from a single sequence run. This will enable dynamic TQ measurements.
  Figure 561-06-002.  An Actively Tunable Metasurface for Image Enhancement at 7T
Paul Jacobs, Gabor Mizsei, Wyger Brink, neil wilson, Anshuman Swain, John Detre, Mark Elliott, Ravinder Reddy
University of Pennsylvania, Philadelphia, United States of America
Impact: This study present a voltage-tunable metasurface enable active B1 augmentation with redesign. By overcoming fixed-frequency constraints, this design enables a platform for adaptive, multi-nuclear, and field-flexible imaging hardware, enhancing versatility and performance in next-generation scanners for clinical and research applications.
  Figure 561-06-003.  Free-Breathing Liver DCE-MRI for microwave ablation using MOCCO with adaptive respiratory gating: an in-silico study
Jayant Sakhardande, Julia Velikina, Alexey Samsonov, Eric Schrauben, Desmond Yeo, Shane Wells, Francisco Donato Jr, James Holmes
University of Iowa, Iowa City, United States of America
Impact: This framework shows promise to enable immediate post-ablation treatment verification during ablation procedures, potentially allowing retreatment of incomplete ablations before patients leave the procedure room.
  Figure 561-06-004.  Optimised Cartesian Sampling Patterns for Accelerated 3D Magnetic Resonance Fingerprinting
Isaac Watson, Yasaman Soofian, Derek Jones, Jurgen Schneider
University of Leeds, Leeds, United Kingdom
Impact: Optimised Cartesian undersampling patterns can achieve high acceleration of 3D MRF while maintaining quantitative accuracy. Complementary and blue-noise-based designs enhance temporal incoherence, reduce bias, and enable robust, high-resolution parametric mapping.
  Figure 561-06-005.  Scanner integrated slice-specific B0 shimming using maximal signal intensity in GRE EPI with Blackbox Optimization
Alexandre D'Astous, Arnaud Bréhéret, Kelvin Chow, Eva Alonso Ortiz, Julien Cohen-Adad
Polytechnique Montréal, Montréal, Canada
Impact: We show a novel scanner integrated optimization pipeline to more optimally cover the set of possible shim currents than slice specific shimming based on signal intensity. The automated approach opens up new ways to calculate shim currents in EPI acquisitions.
  Figure 561-06-006.  Combination of deep learning auto-navigation and reconstruction for accelerated free-breathing ZTE lung MRI
Enlin Qian, Melanie Schellenberg, Victor Murray, Anthony Mekhanik, Oguz Akin, José de Arcos, Florian Wiesinger, Ricardo Otazo
Memorial Sloan Kettering Cancer Center, New York, United States of America
Impact: The combination of RANGR auto-navigation and Movienet reconstruction reduces the scan time of zero echo time (ZTE) lung imaging to 3 minutes and reconstructs CT-like expiration and inspiration images at high 1.2mm isotropic resolution without radiation.
  Figure 561-06-007.  Comparison of cine based CMR measurements obtained using Compressed Sensing with those made using GRAPPA TRUFI
Charles Benton, Dong-Yun Kim, Stacian Awojoodi, Gaby Weissman, Marcus Carlsson, Eric Morgan
NHLBI, NIH, Bethesda, Maryland, United States of America
Impact: Compressed sensing imaging can reduce cardiac MRI acquisition time while producing images that yield similar ventricular measurements as bSSFP images. Myocardial strain measurements, however, differed between the two techniques. Careful attention to acquisition type is needed when monitoring strain values.
  Figure 561-06-008.  Assessing gravitational effects on facial morphology: comparison of upright and supine 3D imaging with MRI-based facial data
Anela Cengani, Catherine Namayega, Xoli Thusini, Tinashe Mutsvangwa, Jiu Chen, Joseph Jacobson, Sandra Jacobson, Ernesta Meintjes, Jia Fan
University of Cape Town, Cape Town, South Africa
Impact: Our results demonstrate that supine MRI-based reconstructions accurately preserve upright facial geometry, with negligible gravitational distortion. They support the use of MRI-based facial data for phenotypic analysis in clinical and research contexts, especially when optical imaging is unavailable.
  Figure 561-06-009.  A variable flip angle optimization scheme for imaging of the peripheral nerves
Alexandra van Dongen, Olivier Scheidegger, Jessica Bastiaansen, Ericky Caldas de Almeida Araujo
Inselspital, Bern University Hospital, University of Bern, Switzerland
Impact: The VFA-TSE optimization approach reduces SAR, minimizes blurring and enhances peripheral nerve signal even at long echo train lengths, while preserving the ability to differentiate between healthy and pathological nerve tissue and enabling direct control over flow sensitivity.
  Figure 561-06-010.  On the optimal scan resolution for a fixed scan duration
Roman Fleysher, Lazar Fleysher, Nicole Zinger, Michael Lipton
Columbia University Irving Medical Center, New York, United States of America
Impact: Employing our optimal resolution shortens scan duration to 57% of the conventional 1mm isotropic 3-minute T1W scan without loss of quality. The process can be applied to optimize scans for other applications and incorporated in to the scanner user interface.
  Figure 561-06-011.  Readout Undersampling in Motion-Resolved MR-Eye: Quantitative Effects on Image Quality
Jaime Barranco, Yiwei Jia, Jean-Baptiste LEDOUX, Cédric Campos Carvalho, Elena Najdenovska, Laura Elena Raileanu, Benedetta Franceschiello
HES-SO University of Applied Sciences and Arts Western Switzerland, Sion, Switzerland
Impact: This study establishes quantitative limits for readout reduction in motion-resolved eye MRI (MR-Eye), showing that image fidelity is preserved up to 50% undersampling. These findings inform protocol optimization to shorten scans while maintaining reliable ocular and brain structure quality.
  Figure 561-06-012.  Highly Accelerated Single- and Dual-Breathhold 3D Cine Imaging with Whole Heart Coverage
Karl Kunze, Anmol Kaushal, Oscar Goldman, Amedeo Chiribiri, Radhouene Neji
Siemens Healthcare Limited, Camberley, United Kingdom
Impact: 

This study shows the potential of an ultra-fast 3D cine CMR framework with isotropic resolution and whole-heart coverage using only one or two breathholds with inter-breathhold motion compensation, as evaluated against a standard 2D cine method.
  Figure 561-06-013.  Model-Based Deep Learning for Accelerated Spiral CEST MRI using a Spatio-temporal U-Net
Johannes Hammacher, Stefan Martin, Patrick Schuenke, Christoph Kolbitsch, Andreas Kofler
Physikalisch-Technische Bundesanstalt (PTB), Braunschweig and Berlin, Berlin, Germany
Impact: The proposed Model-based-deep-learning framework with a Xt–Yt Unet demonstrates that spatiotemporal priors can enhance undersampled CEST MRI reconstruction, enabling higher acceleration and improved spectral fidelity. This approach opens new opportunities for quantitative CEST imaging under clinically practical acquisition times.

Back to the Program-at-a-Glance

© 2026 International Society for Magnetic Resonance in Medicine