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

Digital Poster

Standardizing MRI Through Data Formats and Phantoms

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Standardizing MRI Through Data Formats and Phantoms
Digital Poster
Analysis Methods
Wednesday, 13 May 2026
Digital Posters Row H
13:40 - 14:35
Session Number: 567-03
No CME/CE Credit
This session will focus on software tools that support MRI standardization through data formats and phantoms

  Figure 567-03-001.  A plea for objective DICOM based MRI decoding
Pim Pullens
Ghent University, Ghent, Belgium
Impact: We demonstrate that one-to-one mapping of a standard, user independent, set of DICOM tags is impossible, while it is crucial for analysis of large datasets and clinical workflow.
  Figure 567-03-002.  An Online ISMRM-OSIPI Platform for Automated and Standardized Reporting of ASL MRI Acquisition Parameters
Ibrahim Abdelazim, Hanliang Xu, Patricia Clement, Weiying Dai, Maria Fernandez-Seara, Thomas Lindner, Henk Mutsaerts, Thomas Okell, Xingfeng Shao, Yuriko Suzuki, Manuel Taso, Luis Torres, Petra van Houdt, Jan Petr, David Thomas
Friedrich-Alexander Universität Erlangen-Nürnberg (FAU), Erlangen, Germany
Impact: This tool provides a DICOM and BIDS-enabled tool for automated ASL parameter reporting. It substantially reduces technical barriers, standardizes nomenclature, and ensures consistent reporting across studies. This enables study comparability, reproducibility, and large-scale multi-cohort analyses.
  Figure 567-03-003.  An open-source ecosystem for medical imaging research management
Fraser Callaghan
University Children's Hospital Zurich, Zurich, Switzerland
Impact: This integrated open-source ecosystem automates medical imaging research workflows from transfer to analysis, reducing manual effort and enabling reproducible science. The infrastructure is usable "out-of-the-box" while also being highly flexible and customisable to meet varying research needs.
  Figure 567-03-004.  Daily quality assurance for parallel transmit coils at 7T
Sydney Yu, Ajay Nemani, Ken Sakaie, Mark Lowe
Cleveland Clinic Imaging Institute, Cleveland, United States of America
Impact: We developed a daily QA procedure to monitor the stability of the multi-channel transmit of PTX systems utilizing only B1+ shimming data. No changes to standard protocols are required, allowing for convenient incorporation into existing daily QA protocols.
  Figure 567-03-005.  A Ready-to-use Online Quality Assurance (QA) Toolkit for Long-term MRI System Stability Monitoring
Jieying Zhang, Yishi Wang, Wenzhang Liu, Baogui Zhang, Qing Li, Tianyi Qian
Tsinghua University, Beijing, China
Impact: An online QA toolkit auto-generates tSNR, SFNR, drift, ghost-rate maps and ROI metrics after each scan, enabling immediate scanner stability checks, early fault detection, and standardized longitudinal monitoring across sessions.
  Figure 567-03-006.  Imaging Protocol Validation for Global Collaboration
Ashley Stewart, Steffen Bollmann, Franco Pestilli
The University of Queensland, Brisbane, Australia
Impact: dicompare enables researchers to ensure MRI protocol compliance across multi-site studies without compromising data privacy, reducing protocol violations that compromise reproducibility. This browser-based tool democratizes access to quality assurance, supporting implementation of complex imaging guidelines and landmark study protocols.
  Figure 567-03-007.  dsv2pulseq: Convert Siemens sequence simulation files to Pulseq
Marten Veldmann, Qingping Chen, Maxim Zaitsev, Tony Stoecker
German Center for Neurodegenerative Diseases (DZNE e.V.), Bonn, Germany
Impact: This work enables conversion of Siemens sequence simulation files to Pulseq while preserving exact timing. It facilitates sequence portability across MRI scanners, sharing of precise timing details in publications, and simulation with tools supporting the Pulseq format.
  Figure 567-03-008.  Accelerating Multi-Site MR Spectroscopy: Pulseq Acquisition Paired with Containerized Reconstruction
Junaid Rajput, Marc Jonuscheit, Ali Aghaeifar, Kelvin Chow, Dimo Ivanov, Desmond Tse, Vera Schrauwen-Hinderling, Ralph Strecker
EMEA Scientific Partnerships, Siemens Healthineers AG, Duesseldorf, Germany
Impact: An open-source spectroscopy workflow using the Pulseq sequence format combined with containerized inline reconstruction with the MRD format will accelerate standardization of multi-site MRS. It will enable non-expert operation, faster iteration of prototypes, and reproducible metabolite quantification in multi-site studies.
  Figure 567-03-009.  A Whole-Body Digital Phantom for MR Signal Simulation with High-Resolution Spinal Cord Structures
Sebastian Rios, Nilser Laines-Medina, Gabrielle Marion, Eva Alonso Ortiz
NeuroPoly Lab, Montreal, Canada
Impact: An anatomically realistic digital phantom with a spinal cord enables simulation of MR relaxation and B0 field maps. It provides ground-truth data to validate spinal cord imaging, optimize acquisition parameters, and guide B0 shim coil design for the cord.
  Figure 567-03-010.  Self-Supervised Hierarchy Flow-Based Approach for Creating Digital MRI Phantoms
Kseniya Belousova, Zilya Badrieva, Nikita Babich, Iuliia Pisareva, Ekaterina Brui, Walid Al-Haidri
ITMO University, Saint Petersburg, Russian Federation
Impact: Creating realistic digital MRI phantoms is essential for generating synthetic MR images using analytical and numerical models. Simplifying phantom creation enables generating large, diverse synthetic datasets that effectively train neural networks robust to variability inherent in MR images.
  Figure 567-03-011.  A new take on open-source pulse sequence development: graphical and modular development in mtrk
Anais Artiges, Amanpreet Singh Saimbhi, Eros Montin, Riccardo Lattanzi, Kai Tobias Block
Bernard and Irene Schwartz Center for Biomedical Imaging, Department of Radiology, New York University Grossman School of Medicine, New York, New York, United States of America
Impact: The new mtrk version offers greater flexibility and streamlined sequence design with enhanced creation and modification tools. Its deployment on CloudMR makes mtrk publicly accessible online and enables integration into fully automated simulation pipelines for rapid testing and optimization.
  Figure 567-03-012.  QWIST: A Modular MATLAB Pipeline for Reproducible MRI Processing
Markus Nilsson, Filip Szczepankiewicz, Carl-Fredrik Westin, Samo Lasic, Nicola Spotorno
Lund University, Lund, Sweden
Impact: QWIST supports data processing by defining workflows by connecting nodes. Each node declares input-output relationships and defines execution logic. The framework integrates major toolboxes and enforces structure, improves repeatability, reduces errors, and enables reproducible science in MRI.
  Figure 567-03-013.  Open-source Pulseq Sequences with United Imaging MRI Systems
Zheng Liu, Ahmed Aburas, Zhongmiao Wang, Cong Zhang, Jiayu Zhu, Xiaodong Zhou
Shanghai United Imaging Healthcare Co., Ltd, Shanghai, China
Impact: The interpreter allows researchers to design and run Pulseq sequences on all United Imaging MR systems, and the binary Pulseq file format offers significant advantages for developing ultra-high-resolution sequences. This will greatly promote multi-center research and foster industry-academic-clinical collaboration.
  Figure 567-03-014.  MRSeqStudio: A Free and Open-Source Web Application for MR Sequence Design and Simulation as a Service
Pablo Villacorta-Aylagas, Manuel Rodríguez-Cayetano, Carlos Castillo-Passi, Pablo Irarrazaval, Federico Simmross-Wattenberg, Carlos Alberola-López
Universidad de Valladolid, Valladolid, Spain
Impact: The developed application provides a complete online environment for pulse sequence prototyping. Cloud-based simulations, together with integrated visualization tools, enable fast sequence testing and make the tool accessible for both clinical users and MRI researchers.
  Figure 567-03-015.  Moving Virtual Lung Phantom in MR-zero for Motion-Robust NCE Lung MRI Sequence Optimization
Marcia Matos Karaorman, Marie Kandels, Lothar Schad, Frank Zoellner
Medical Faculty Mannheim, Heidelberg University, Mannheim, Germany
Impact: A virtual lung phantom framework enables rapid, hardware-independent optimisation of NCE lung MRI sequences under realistic motion conditions. The resulting sequences can be directly executed on any compatible scanner, facilitating smooth translation from simulation to physical experiments and in-vivo studies.
  Figure 567-03-016.  ndslice – An interactive n-dimensional array viewer
Henric Rydén, Johan Berglund, Sophie Schauman
Karolinska University Hospital, Stockholm, Sweden
Impact: ndslice allows inspection of high-dimensional data from multiple common MRI data sources and formats. It can be used within python scripts or run as a standalone command line tool.

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