Alzheimer's disease (AD) risk prediction relies on accurately characterizing pathological mechanisms underlying AD progression. However, existing methods struggle with heterogeneous multi-omics data and often fail to capture the spatiotemporal dynamics of the disease, limiting their predictive performance. In this paper, an integrated framework fusing spatial and temporal information is proposed to improve prediction capability. First, brain region-gene directed networks are constructed based on large foundation model-enhanced features. Second, a context perception attention model is designed to characterize topological changes of directed networks during AD progression. Based on this model, we develop a Context Perception Attention Generative Adversarial Network (CPA-GAN) that leverages adversarial training to mine AD evolutionary patterns, thereby supporting risk prediction and pathogeny extraction. Finally, the superiority, effectiveness, and robustness of CPA-GAN are validated by extensive experiments. Overall, this work provides a robust and effective modeling framework tailored for early-stage AD risk prediction.
Zhao-Xu Xing, Da-Fang Zhang, Kun Xie et al.· IEEE Transactions on Medical...· 0 citations
Predicting the risk of Alzheimer's disease (AD) is fundamental for early-stage intervention. Nevertheless, most methods struggle to extract multi-omics associative patterns due to the limited feature perception and inflexible disease modeling. This paper proposes a novel evolutionary pattern mining framework for precise disease risk prediction. Firstly, large foundational models are employed to automatically construct high-quality features. Second, a perceptual deformable attention mathematical model is proposed, which combines multi-scale sparse attention and deformable attention mechanisms to capture evolutionary patterns of fused multi-omics features. Finally, a Perceptual Deformable Attention Generative Adversarial Network (PDAT-GAN) is developed. PDAT-GAN can precisely simulate the evolutionary procedure of AD using multi-omics data, thereby achieving robust risk prediction and pathogeny extraction for AD. We validate the advanced performance and interpretability of PDAT-GAN on public datasets, underscoring significance of PDAT-GAN in supporting clinical intervention and pathogenetic research. The code of PDAT-GAN can be accessed at: .
Zhao-Xu Xing, Zheng Liu, Da-Fang Zhang et al.· Medical Image Anal.· 0 citations
Medical AI has produced many radiology models, particularly for chest X-rays (CXR), each excelling at isolated tasks like lesion detection or report generation. However, these models have disparate capabilities and limited generalizability due to training on restricted datasets, making clinical integration challenging. Large language models (LLMs) now enable interfacing heterogeneous models within agentic frameworks that automatically interpret and unify outputs in natural language. In this work, we present RadFabric, an agentic AI system that orchestrates fourteen specialized open-source CXR analytics models and two Vision-Language Models (VLM) through a modular protocol. RadFabric includes an Anatomical Interpretation Agent that grounds visual findings in anatomical context, and a trainable reasoning agent that synthesizes these anatomically-enriched outputs with VLM-generated radiology reports into transparent, step-by-step diagnoses, even when model outputs are heterogeneous or conflicting. This architecture enables explainable, robust diagnoses across common and rare pathologies while facilitating extensibility through additional agents. Evaluation results on the MIMIC-CXR dataset shows that RadFabric can achieve an AUC of 85.18% on task of detecting different legion types from the given CXR, outperforming all state-of-art CXR models. Notably, the reasoning agent particularly improves detection of uncommon findings, demonstrating enhanced interpretability, generalizability, and clinical applicability.
Wenting Chen, Yi Dong, Zhaojun Ding et al.· npj Digital Medicine· 2 citations
This workshop explores how quantum-based approaches can be meaningfully integrated into modern machine learning and computer graphics pipelines and frames quantum computing as an emerging computational substrate with practical relevance for hybrid architectures, quantum-enhanced models, and future learning paradigms.
Wei Zhang, Tianming Liu, Ying-Feng Wang et al.· Proceedings of the Special I...· 0 citations
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