Oct 2025· arXiv.org· Vol abs/2510.26444· 0 citations· 44 references
Computer Science
TL;DR
A cross-fidelity knowledge distillation and adaptive fusion network (CFKD-AFN), which leverages abundant but low-fidelity simulation data to enhance the prediction on scarce but high-fidelity trial data, and is extended to an interpretable variant for exploratory analysis of feature-attribution patterns associated with treatment outcomes.
Abstract
Personalized treatment outcome prediction based on trial data for small-sample and rare patient groups is a critical task in precision medicine. However, the high cost and scarcity of trial data limit the prediction performance. To address this issue, we propose a cross-fidelity knowledge distillation and adaptive fusion network (CFKD-AFN), which leverages abundant but low-fidelity simulation data to enhance the prediction on scarce but high-fidelity trial data. CFKD-AFN incorporates a dual-channel knowledge distillation module to extract complementary knowledge from the low-fidelity model, along with an attention-guided fusion module to adaptively integrate multi-source information. Experiments on chronic obstructive pulmonary disease show that CFKD-AFN reduces the mean squared error by 6.67% ~ 74.55% and the mean absolute percentage error by 1.43% ~ 51.54% compared to the evaluated competing methods and remains robust to varying high-fidelity dataset sizes. Furthermore, we extend the CFKD-AFN framework to an interpretable variant for exploratory analysis of feature-attribution patterns associated with treatment outcomes.
The findings support reliability-aware multimodal fusion as a practical approach for neonatal mortality prediction under realistic clinical missingness conditions.
This doctoral research addresses fragility in multimodal deep learning by shifting the paradigm from generative imputation to uncertainty-guided abstention and introducing QA-MoE (Quality-Aware MoE), which explicitly decouples reliability estimation from the routing process.
Lin-Peng Sun· Proceedings of the Thirty-Fi...· 0 citations
However, traditional methods may be lacking in terms of interpretability, treatment personalisation, and efficacy, safety, adherence, and cost optimisation. This paper introduces a novel framework that combines an optimization approach inspired by quantum computing with the explainable deep learning to predict treatmen...
Rajinder Kumar· Natural Resources for Human...· 0 citations
CoMedBench is introduced, a reproducible benchmark that evaluates a family of generators under a common clinical-validity framework and one shared training and evaluation engine, spanning static tabular and temporal downstream tasks on established critical-care datasets.
Akanta Das, Farhad Al-Amin Dipto, M. S. Anto et al.· 0 citations
Artificial intelligence models deployed as clinical decision support tools often suffer substantial performance degradation over time and across institutions due to covariate shift, concept drift, and cross-system heterogeneity. Fully retraining complex models is frequently infeasible, particularly in EHR settings wher...
X. Xiong, Zi-Jian Guo, T. Cai· 0 citations
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