Classroom behavior analysis plays a crucial role in understanding student engagement, learning effectiveness, and instructional quality in higher education.This study presents a multimodal deep learning framework for classifying students' classroom behaviors by integrating visual and physiological data to support data-driven instruction. To address the limitations of existing approaches-namely complex classroom settings, large data volumes, and reliance on single modalities-we develop a Multi-Level Cross-Self Attention Fusion Network (MCSFN). The network comprises three branches for extracting spatial visual features, Restormer-enhanced video representations, and physiological signals modeled via a SiLU-activated multilayer perceptron. These heterogeneous features are fused through a multi-level cross-attention mechanism for robust representation learning. Evalua ted on a self-constructed dataset of classroom videos and wearable-derived signals, the proposed framework achieves 95.88% classification accuracy, surpassing single-modality baselines. Beyond improving behavioral recognition accuracy, this work highlights the potential of multimodal AI-driven analytics to inform instructional design, enable real-time monitoring, and enhance personalized learning interventions, offering a practical pathway toward data-informed and adaptive classroom practices.
Li et al. (Mon,) studied this question.