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February 2, 2026Information1 citationsOpen Access

Vision Transformer-Based Identification for Early Alzheimer’s Disease and Mild Cognitive Impairment

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YLYang LiBXBiao XuQBQiang Bai

Key Points

  • The study aims to develop a model that differentiates Alzheimer's Disease from Mild Cognitive Impairment using MRI data.
  • Developed Vi-ADiM, a Vision Transformer-based framework for diagnosis.
  • Utilized cross-domain feature adaptation and task-specific data augmentation for model training.
  • Implemented a two-stage encoding module to extract MRI features efficiently.
  • Integrated SHAP and Grad-CAM++ for interpretability of model predictions.
  • Vi-ADiM outperformed standard ViT-Base/16 in diagnostic accuracy and other metrics.
  • Achieved improvements of 0.444% in accuracy, 0.486% in precision, 0.476% in recall, and 0.482% in F1 score.
  • Reduced model parameters by 48.96% and decreased computational cost by 49.65%.

Abstract

Distinguishing Alzheimer’s Disease (AD) from Mild Cognitive Impairment (MCI) is challenging due to their subtle morphological similarities in MRI, yet distinct therapeutic strategies are required. To assist junior clinicians with limited diagnostic experience, this paper proposes Vi-ADiM, a Vision Transformer framework designed for the early differentiation of AD and MCI. Leveraging cross-domain feature adaptation and task-specific data augmentation, the model ensures rapid convergence and robust generalization even in data-limited regimes. By optimizing a two-stage encoding module, Vi-ADiM efficiently extracts both global and local MRI features. Furthermore, by integrating SHAP and Grad-CAM++, the framework offers multi-granular interpretability of pathological regions, providing intuitive visual evidence for clinical decision-making. Experimental results demonstrate that Vi-ADiM outperforms the standard ViT-Base/16, improving accuracy, precision, recall, and F1 score by 0.444%, 0.486%, 0.476%, and 0.482%, respectively, while reducing standard deviations by approximately 0.06–0.29%. Notably, the model achieves these gains with a 48.96% reduction in parameters and a 49.65% decrease in computational cost (FLOPs), offering a reliable, efficient, and interpretable solution for computer-aided diagnosis.

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Cite This Study

Li et al. (2026) studied this question.

synapsesocial.com/papers/6980fecbc1c9540dea811393https://doi.org/10.3390/info17020129
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