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

Oral

Ultra-High Field Hardware and Systems

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Ultra-High Field Hardware and Systems
Oral
Physics & Engineering
Tuesday, 12 May 2026
Ballroom West
13:40 - 15:30
Moderators: Chris Rodgers & Charlotte Sappo & Daniel Cocking
Session Number: 405-03
No CME/CE Credit
Advances in hardware, software, and systems at ultra-high field enable answering new scientific and clinical questions
Skill Level: Intermediate

13:40 Figure 405-03-001.  A flexible 56-channel receive array for body imaging at 7T
Russell Lagore, Tobey Haluptzok, Elnaz Mahmoudi Mahmoudalilou, Ethan Polcyn, Steen Moeller, Gregor Adriany, Gregory Metzger
University of Minnesota, Minneapolis, United States of America
Impact: A flexible 56-ch receiver array that conforms to the human body was developed for 7 tesla imaging. Paired with an independently implemented 8 channel transceiver, improved SNR, parallel imaging and coverage were obtained.
13:51 Figure 405-03-002.  32-element Transceiver Dual-Tuned 31P-1H Loop/Dipole Array for Human Brain Spectroscopy at 9.4T
Georgiy Solomakha, Felix Glang, Sebastian Mueller, Praveen Valsala, Stephan Orzada, Tanja Platt, Andreas Korzowski, Mark Ladd, Klaus Scheffler, Rolf Pohmann, Nikolai Avdievich
Max Planck Institute for Biological Cybernetics, Tübingen, Germany
Impact: We demonstrate the feasibility of constructing and decoupling a 32-element double-tuned UHF tight-fit TxRx human head array coil. The proposed array design could be also used at higher field, i.e. 10.5T, 11.7T, and 14T.
14:02 Figure 405-03-003.  7T vs 11.7T: Design of an 8-Channel Transmit 32-channel Receive 11.7T Head Coil and Evaluation of SNR Gains
Son Chu, Jeslin Issac, Caroline LeSter, Alexis Amadon, Nicolas Boulant, Shajan Gunamony
University of Glasgow, Glasgow, Scotland, United Kingdom
Impact: Optimised RF coils are essential to extract the promised SNR gains at extremely high magnetic field strengths. In this work, we present an 8-channel transmit 32-channel receive 11.7T head coil, which achieves a 3.5-fold central SNR gain compared to 7T.
14:13 Figure 405-03-004.  16-channel 2H High Impedance Coil Array integrated with 16-channel 1H dual-row transceiver Array for Deuterium Metabolic Imag
Bei Zhang, Anke Henning
Impact: The 7T 2H/1H array we designed advances multinuclear imaging by providing robust, good SNR performance for deuterium and proton studies. Its innovative design simplifies system integration and broadens access to metabolic imaging techniques previously inaccessible at ultra-high magnetic fields.
14:24 Figure 405-03-005.  Simultaneous EEG-fMRI at 7 T: Optimisation of EEG artifact detection loops to minimise Radio Frequency Field interference
Rebecca Meagher, Tracy Warbrick, Cilia Jaeger, Ozlem Ipek, David Carmichael
School of Biomedical Engineering and Imaging Sciences, King's College London, London, United Kingdom
Impact: This study establishes design principles for safe, high-quality EEG-fMRI at 7 T by identifying materials and geometries that prevent RF resonance, paving the way for broader adoption of simultaneous EEG-fMRI at ultra-high fields.
14:35 Figure 405-03-006.  Parallel-transmit soft-PINS: a novel approach using intelligent ultra-short slab-selective subpulse design
Xin Shao, Kamil Ugurbil, Xiaoping Wu
Center for Magnetic Resonance Research, Minneapolis, United States of America
Impact: Enabling uniform multiband excitation with power independent of number of slices (PINS), the proposed parallel transmit (pTx) pulse design method is believed to hold a promise for many ultrahigh field MRI applications, particularly those relying on simultaneous multi-slice (SMS) imaging.
14:46 Figure 405-03-007.  First human subject images with a sealed, low-cryogen, high-performance head-only 7T MRI scanner (Compact 7T)
AMPC Selected
Thomas Foo, Nastaren Abad, Mark Vermilyea, Gene Conte, Chris Van Epps, Justin Ricci, Minfeng Xu, Anbo Wu, Vijay Soni, Yihe Hua, Wolfgang Stautner, Eric Fiveland, Keith Park, Eric Budesheim, John III Huston, Christopher Hess, Yunhong Shu, Dan Vigneron, Duan Xu, Desmond Yeo, Seung-Kyun Lee
GE HealthCare Technology and Innovation Center, Niskayuna, United States of America
Impact: The low-cryogen, lightweight Compact 7T system makes it easier to install and operate a 7T MRI. Furthermore, With SRmax = 820 T/m/s, 4x that of whole-body 7T, spatial distortion and signal loss in EPI typical at 7T are markedly reduced.
14:57 Figure 405-03-008.  Whole-Brain T2-weighted SPACE at 7T – comparing the FOCUS and GRAPE universal pulses parallel transmit approaches
Dimo Ivanov, Eberhard Pracht, Desmond Tse, Daniel Löwen, Jürgen Herrler, Ali Aghaeifar, Tony Stoecker
Max Planck Institute for Empirical Aesthetics, Frankfurt am Main, Germany
Impact: For 3D fast spin-echo (SPACE) acquisitions at 7 Tesla, precomputed universal pulses based on the GRAPE algorithm can match the performance of fast online-customized FOCUS pulses, simplifying (clinical) neuro protocols that demand fast, homogeneous whole-brain T2-weighted imaging.
15:08 Figure 405-03-009.  Calibration-free pTx-enabled 2D TSE at 7T: a scalable 2-spokes approach with assessment of the slice profile effect
Anna Reitmann, Joseph Brégeat, Franck Mauconduit, Jürgen Herrler, Alexandre Vignaud, Aurélien Massire, Vincent Gras
CEA NeuroSpin, Paris-Saclay University, CNRS, Gif-Sur-Yvette, France
Impact: This work enables calibration-free and more reliable T₂-weighted TSE imaging at 7T by reducing off-resonance sensitivity through scalable nonsymmetrical spokes RF pulses. These advances improve image quality and consistency, facilitating broader clinical and research use of ultra–high-field MRI systems.
15:19 Figure 405-03-010.  Reducing 3D T2* Gradient-Recalled Echo sequence artefacts at 11.7T using pTx, CLEAR-SWI and locally-scrambled ordering
Alexandre Vignaud, Franck Mauconduit, Amir Seginer, Rita Schmidt, Simon Robinson, Korbinian Eckstein, Blanche Bapst, Vincent Gras, Nicolas Boulant
CEA NeuroSpin, Paris-Saclay University, CNRS, Gif-Sur-Yvette, France
Impact: Improve the neuroradiological reading of T2*-weighted images by removing most artefacts observed at UHF

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