Cape Town - 2026 ISMRM-ISMRT Annual Meeting and Exhibition • 09-14 May 2026
|
562-02-001.
Deep Learning System for Predicting ER Negative, -low, and -high Positive Breast Cancer Using MRI
Impact: This non-invasive deep learning system enables preoperative, precise ER status classification, directly informing personalized therapy decisions. It empowers clinicians to identify elusive ER-low positive patients and opens new avenues for radiogenomics research, advancing image-guided precision oncology.
|
||
|
562-02-002.
Voxel-wise Variability in Breast DCE-MRI: Monte Carlo Comparison of Patlak, ETM-FXL, and ETM-NXL Pharmacokinetic Models
Impact: Voxel-wise variability mapping informs the reliability of
pharmacokinetic parameters in quantitative DCE-MRI. The lower variability
observed in pharmacokinetic parameters from Patlak and ETM-FXL models supports
the potential clinical utility as robust imaging biomarkers for precision
treatment monitoring in breast cancer.
|
||
|
562-02-003.
Intratumoral Heterogeneity of DCE-MRI for Predicting Pathological Response to Neoadjuvant Chemotherapy in Breast Cancer
Impact: Integrating habitat radiomics and intratumoral heterogeneity from DCE-MRI pharmacokinetic maps enhances the accuracy of pathological complete response prediction after neoadjuvant chemotherapy in breast cancer, supporting personalized treatment planning and advancing noninvasive precision oncology.
|
||
|
562-02-004.
Integrating Global and Habitat-Based Radiomics from DCE-MRI for Improved Characterization of Breast Lesions
Impact: This novel approach provides an intuitive and interpretable framework that integrates global and habitat-based radiomics to visualize and quantify spatial and temporal hemodynamic heterogeneity, enhancing diagnostic performance and offering potential for broader clinical translation.
|
||
|
562-02-005.
Integrating BI-RADS, Radiomics, and Deep Learning for MRI-Based HER2 Phenotype Differentiation
Impact: This study compares conventional, radiomic, and deep learning models using breast MRI to differentiate HER2 expression levels in invasive breast cancer. It highlights MRI’s potential as a non-invasive surrogate for molecular profiling and personalized treatment planning.
|
||
|
562-02-006.
Integrating DCE-MRI Multiparametric Maps and Digital Pathological Images to Predict Pathological Response in Breast Cancer
Impact: Combining hemodynamic information from DCE-MRI with digital pathological data results in the optimal model. This model can effectively predict the efficacy of neoadjuvant chemotherapy (NAC) for breast cancer at an early stage, which has clinical guidance.
|
||
|
562-02-007.
MRI-based Habitat radiomics for risk stratification of axillary lymph node metastasis in breast cancer: A multicenter study
Impact: The model stratifies patients into low-, intermediate-, and high-risk groups: low-risk patients may be exempted from SLNB; intermediate-risk patients could omit SLND; and high-risk patients should undergo ALND directly. It can be used preoperatively to assess ALNM in breast cancer.
|
||
|
562-02-008.
Prediction of Residual Axillary Metastasis Following NAT for Breast Cancer: Habitat Radiomics Analysis Based on breast MRI
Impact: The DCE-MRI-derived habitat model demonstrates great potential in distinguishing between axillary pCR and residual axillary lymph node metastasis, which is conducive to assisting clinicians in formulating individualized axillary management strategies.
|
||
|
562-02-009.
Distinguishing benign and malignant masses of breast tumors in DCE-MRI using a spatial-temporal encoding model
Impact: We developed and clinically validated a novel Spatial-Temporal
Encoding Methodology (STEM) for automated processing of DCE-MRI time-intensity
curve data to achieve simultaneous differentiation of benign and malignant
breast tumors while providing accurate tumor staging capabilities.
|
||
|
562-02-010.
Evaluating Synthetic T2-Weighted Breast MRI: A Multi-Reader, Multicenter Study
Impact: By
restoring T2 information, IMPORTANT-NET could expand access to multiparametric breast
MRI without prolonged scan-time. This multicenter reader study demonstrates
visual equivalence and no artifact penalty for generated T2 sequences, with
real-versus-synthetic identification at chance level and consistent diagnostic
acceptability.
|
||
|
562-02-011.
Artificial Intelligence Detection of Breast Cancer on Abbreviated MRI
Impact: The AI system showed acceptable discriminatory performance in detecting cancer on abbreviated breast MR examination, the findings emphasize the importance of further clinical validation to account for the risk of false positives and ensure safe integration into practice.
|
||
|
562-02-012.
Prediction of lymphovascular invasion in invasive breast cancer using synthetic MRI-derived histogram parameters
Impact: The integration of SyMRI-derived histogram parameters
into a clinical model offers a promising, non-invasive approach to improve the
preoperative detection of LVI, potentially leading to more personalized
treatment strategies for breast cancer patients.
|
© 2026 International Society for Magnetic Resonance in Medicine