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

Traditional Poster

Analysis: Neuro

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Analysis: Neuro
Traditional Poster
Analysis Methods
Tuesday, 12 May 2026
Traditional Posters | Exhibition Hall
16:00 - 16:55
Session Number: 470-08
No CME/CE Credit
This session will highlight recent advances in the analysis of neuro MRI, with a focus on quantitative and AI-based methods. Contributions will span methodological developments and neuroimaging applications, reflecting current challenges and opportunities in the field.

  Figure 470-08-132.  Gender-Dependent Structural Brain Changes in Adults: A Multi-Metric Structural MRI Analysis
Wasana Ediri Arachchi, Randula Ekanayake, Sandeepani Umayangani, Sampath Vithanage, Vasanthika Thuduvage
General Sir John Kotelawala Defence University, Ratmalana, Sri Lanka
Impact: By characterizing gender-dependent brain differences using multiple structural metrics within the same group of adults, this study provides a unified framework for comparison and highlights the complex, distinct, and multi-dimensional organization of male and female brains beyond single-metric structural analysis.
  Figure 470-08-133.  Unsupervised k-means clustering reliably identifies BOLD Activations in Fast fMRI Data
Tim Schmidt, Zoltan Nagy
ETH Zurich and University of Zurich, Zurich, Switzerland
Impact: It is possible to detect BOLD responses in an unsupervised manner in fMRI data with high temporal resolution. The k-means classification with 5 clusters was very easy to implement and provided reliable results in spatially specific locations.
  Figure 470-08-134.  Toward the evaluation of Aβ plaque load in human brain with MRI at 3T
Yutong Mao, Xiao Liu, Jianli Wang, Rommy Elyan, Prasanna Karunanayaka, Deepak Kalra, Paul Eslinger, Katie Geesey, Sangam Kanekar, William Jens, Senal Peiris, Anupa Ekanayake, Qing Yang
Penn State university, Hershey, United States of America
Impact: This research develops an MRI method to image the beta-amyloid plaque load in the human brain in vivo, which allows us to detect and evaluate AD pathological changes and associated functional/structural neurodegeneration using a single imaging modality.
  Figure 470-08-135.  Beyond the Hand Knob: Automated Gyrus-Based Mapping of the Hand Motor Cortex for Precise VIM Targeting
Ziang Wang, Jialan Zheng, Kasidit Anmahapong, Hongjia Yang, Zuoxiang He, Xue Zhang, Qiyuan Tian
Tsinghua University, Beijing, China
Impact: Our automated gyrus‑based pipeline enables rapid, accurate, and personalized, functionally informed neuromodulation targeting using only structural MRI.
  Figure 470-08-136.  Reducing Misdiagnosis in Disorders of Consciousness Via a Resting-State fMRI-based Hierarchical Brain Dynamics Network (HBDN)
Shanshan Chen, pan shiwen, Poly Z.H. Sun
Xinjiang Normal University, Urumqi, China
Impact: HBDN surpasses state-of-the-art machine learning frameworks by modeling multi-scale neural dynamics, yielding higher accuracy and stability. HBDN’s semi-supervised strategy effectively leverages weakly labeled data—minimizing label noise while maximizing data utilization.
  Figure 470-08-137.  Comparing Deep Learning Denoising Models for Preserving Diagnostic Value in Neuromelanin-Sensitive MRI of the Locus Coeruleus
Phuong Vu, James Lah, Allan Levey, Deqiang Qiu
Georgia Institute of Technology and Emory University, Atlanta, United States of America
Impact: This work advances accessible neuromelanin MRI for neurodegenerative diseases through deep learning denoising, which reduces acquisition time and preserves diagnostic locus coeruleus contrast. It establishes a benchmark for assessing biomarker reliability, highlighting the importance of diagnostic fidelity in AI-driven neuroimaging.
  Figure 470-08-138.  Cortex MAE: Learning Generalizable Morphological Representations of Cortical Surface via Deformation-Aware Masked Autoencoder
Kehan Li, Chen Shen, Zehua Ren, Xinmei Qiu, Yuzhu He, Chunfeng Lian, Jianhua Ma, Fan Wang
Xi'an Jiaotong University, Xi'an, China
Impact: Our Cortex MAE pretraining learns fine-grained cortical features via deformation-based masked autoencoding, yielding more accurate and generalizable representations for downstream tasks, and may facilitate surface-based analyses in neurodevelopmental assessment and clinical neuroscience.

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