Cape Town - 2026 ISMRM-ISMRT Annual Meeting and Exhibition • 09-14 May 2026
|
364-02-001.
Differentiating glioma recurrence from Pseudoprogression Using Multi-Model Parameters Derived from DKI Sequences
Impact: Diffusion models and their parameters based on Diffusional Kurtosis Imaging (DKI) sequences perform well in distinguishing glioma recurrence from pseudoprogression; Volume fraction of the isotropic compartment (FISO) is expected to become a sensitive imaging biomarker.
|
||
|
364-02-002.
Conductivity Tensor Imaging for Molecular Classification and Grading of Adult-Type Diffuse Gliomas: A Pilot Study
Impact: CTI can provide tissue electrophysiological information that aids the molecular classification and grading of adult-type diffuse gliomas, with performance comparable to ADC.
|
||
|
364-02-003.
Characterization of radiation-induced changes in healthy mice brain using CEST MRI at 9.4 T
Impact: In this work, we demonstrate
that CEST MRI can identify radiation-induced molecular changes in healthy mouse
brain tissue after helium-ion therapy, enhancing understanding of
dose-dependent effects and aiding the interpretation of CEST contrasts in
post-treatment glioma imaging and radiotherapy monitoring.
|
||
|
364-02-004. An exploratory study on meningeal imaging using the Pointwise Encoding Time reduction with Radial Acquisition(PETRA)sequence | ||
|
364-02-005.
Poor Baseline Brain Reserve Increases Mortality Risk in Glioblastoma
Impact: This study demonstrates the independent influence of
baseline brain reserve on glioblastoma outcomes underscoring its potential as a
clinical biomarker for patient prognosis.
|
||
|
364-02-006.
Assessment of CT-Based Synthetic T1CE MRI Using a Deep Learning Model for Meningioma Screening: A Multicenter Study
Impact: This study demonstrates that
CT-based synthetic T1CE MRI can approximate contrast-enhanced MRI for
meningioma screening. The approach may reduce dependence on gadolinium-based
contrast agents, offering a rapid, cost-effective alternative for early detection
in resource-limited or contrast-contraindicated settings.
|
||
|
364-02-007.
Quantitative MRI dynamics after Tumor Treating Fields in glioblastoma and the association with recurrence
Impact: This study reveals dynamic MRI parameter changes in glioblastomas following TTFields therapy, offering new insights for recurrence monitoring and imaging biomarker exploration.
|
||
|
364-02-008.
Simulation-Based Deep Learning Framework for Mapping Cell Size Distribution from GESFIDE Susceptibility-Contrast MRI
Impact: Non-invasive cell-size distribution imaging enables quantitative characterization of tissue microstructure and heterogeneity without biopsy. Once matured, it could enhance diagnostic accuracy, guide personalized therapy, and serve as a biomarker of treatment response across diverse organs and disease contexts.
|
||
|
364-02-009.
The combination of ASL and quantitative synthetic MRI for predicting IDH1 gene mutation in glioma patients
Impact: Our study suggested the combination of ASL and syMRI was superior for non-invasively identifying IDH1 gene status than using them separately. Simultaneous application of ASL and syMRI would be beneficial for guiding targeted treatment selection for glioma patients.
|
||
|
364-02-010.
Radiogenomic profiling reveals molecular heterogeneity in H3 K27-altered diffuse midline glioma
Impact: Radiogenomic profiling of H3 K27-altered DMGs reveals MRI-derived features that can noninvasively distinguish histopathologic subgroups and reflect underlying molecular heterogeneity, offering potential biomarkers for tumor grading, prognostication, and precision management.
|
||
|
364-02-011.
Biomechanical Assessment in Glioblastoma Using 2D Cine DENSE MRI
Impact: This DENSE-based motion mapping framework may provide a new tool to assess
tumor-brain mechanical interactions for radiotherapy planning and treatment
response monitoring.
|
||
|
364-02-012.
Radiation-Induced Brain Changes in Glioma Patients: A Longitudinal MRI and PCA Study
Impact: This study identifies key factors influencing radiation-induced brain alterations to guide future longitudinal analyses and improve radiotherapy planning strategies to preserve healthy tissue, reduce neurocognitive decline, and enhance long-term outcomes for glioma patients.
|
||
|
364-02-013.
Self-Supervised Deep Learning for Label-Free Brain Metastasis Detection in Clinical MR Imaging
Impact: This self-supervised approach effectively localizes brain metastases without manual labels, demonstrating robust generalization from standardized open-source research data to heterogeneous in-house clinical scans, and offering potential to support physicians and reduce diagnostic workload.
|
© 2026 International Society for Magnetic Resonance in Medicine