MedFusion-Mamba: Redefining Clinical AI with Segmentation-Guided Multimodal Deep Learning for Superior Disease Prediction

Accurate and reliable disease prediction in clinical settings requires models that can adapt to heterogeneous data sources and maintain robustness across diverse environments. The proposed framework, MedFusion-Mamba, introduces a hybrid deep learning approach that integrates foundation model-based anatomical segmentation, self-supervised visual feature extraction, state-space sequence modeling, and tabular EHR fusion into a unified architecture. The design enables enhanced focus on relevant anatomical structures, improved generalization with minimal labeled data, and effective exploitation of temporal or volumetric imaging information. The integration of structured clinical data further strengthens predictive capabilities, while adaptive mechanisms at inference time ensure resilience against domain shifts. Evaluations target multi-label thoracic disease prediction and multimodal clinical outcome forecasting, emphasizing both performance accuracy and interpretability. The architecture aims to advance predictive healthcare by offering a robust, efficient, and transparent solution adaptable to diverse clinical contexts

Publication Details

Journal
International Journal for Research in Applied Science and Engineering Technology
Published
2025-09-27
DOI
https://doi.org/10.22214/ijraset.2025.73666
Primary Topic
Research in Cotton Cultivation
Type
article
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article

MedFusion-Mamba: Redefining Clinical AI with Segmentation-Guided Multimodal Deep Learning for Superior Disease Prediction

International Journal for Research in Applied Science and Engineering Technology
Research in Cotton Cultivation
article

MedFusion-Mamba: Redefining Clinical AI with Segmentation-Guided Multimodal Deep Learning for Superior Disease Prediction

article en

Abstract

Accurate and reliable disease prediction in clinical settings requires models that can adapt to heterogeneous data sources and maintain robustness across diverse environments. The proposed framework, MedFusion-Mamba, introduces a hybrid deep learning approach that integrates foundation model-based anatomical segmentation, self-supervised visual feature extraction, state-space sequence modeling, and tabular EHR fusion into a unified architecture. The design enables enhanced focus on relevant anatomical structures, improved generalization with minimal labeled data, and effective exploitation of temporal or volumetric imaging information. The integration of structured clinical data further strengthens predictive capabilities, while adaptive mechanisms at inference time ensure resilience against domain shifts. Evaluations target multi-label thoracic disease prediction and multimodal clinical outcome forecasting, emphasizing both performance accuracy and interpretability. The architecture aims to advance predictive healthcare by offering a robust, efficient, and transparent solution adaptable to diverse clinical contexts

International Journal for Research in Applied Science and Engineering TechnologyVol. 13(9)
Openalex Percentile: Top 34%
Research in Cotton Cultivation
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MedFusion-Mamba: Redefining Clinical AI with Segmentation-Guided Multimodal Deep Learning for Superior Disease Prediction · International Journal for Research in Applied Science and Engineering Technology (2025) | TGRS Research Map | TGRS