ICMC: An Interpretable Cross-domain Multi-modal Classification model for grading teaching plan

Multi-modal classification aims to extract pertinent information from various modalities to assign labels to instances. The advent of deep neural networks has significantly advanced this task. However, the majority of current deep neural networks lack interpretability, leading to skepticism. This issue is particularly pronounced in sensitive domains such as educational assessment. In order to address the trust deficit in deep neural networks for multi-modal classification tasks, we propose an Interpretable Multi-modal Classification framework (ICMC), which enhances confidence in the processes and outcomes of deep neural networks while maintaining interpretability and improving performance. Specifically, our approach incorporates a confidence-driven attention mechanism at the intermediate layer of the deep neural network, assessing attention scores and discerning anomalous information from both local and global perspectives. Furthermore, a confidence probability mechanism is implemented at the output layer, leveraging both local and global perspectives to bolster result confidence. Additionally, we meticulously curate multi-modal datasets for automatic lesson plan scoring research, making them openly available to the community. Quantitative experiments on educational and medical datasets confirm that ICMC outperforms state-of-the-art models (HMCAN, MCAN, HGLNet) by 2.5-6.0% in accuracy and 3.1-7.2% in F1-score, while reducing computational latency by 18%. Cross-domain validation demonstrates 15.7% higher generalizability than transformer-based approaches (CLIP), establishing its interpretability through attention visualization and confidence scoring.

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Publication Details

Journal
PLoS ONE
Published
2025-09-03
DOI
https://doi.org/10.1371/journal.pone.0330684
Citations
1
Primary Topic
Topic Modeling
Type
article
Field-Weighted Citation Impact
2.48
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article

ICMC: An Interpretable Cross-domain Multi-modal Classification model for grading teaching plan

Fan Wang, Suqing Tian, Jin Jin
1 citations
PLoS ONE
Topic Modeling
2.48
article

ICMC: An Interpretable Cross-domain Multi-modal Classification model for grading teaching plan

Fan Wang, Suqing Tian, Jin Jin
article en
1 citations

Abstract

Multi-modal classification aims to extract pertinent information from various modalities to assign labels to instances. The advent of deep neural networks has significantly advanced this task. However, the majority of current deep neural networks lack interpretability, leading to skepticism. This issue is particularly pronounced in sensitive domains such as educational assessment. In order to address the trust deficit in deep neural networks for multi-modal classification tasks, we propose an Interpretable Multi-modal Classification framework (ICMC), which enhances confidence in the processes and outcomes of deep neural networks while maintaining interpretability and improving performance. Specifically, our approach incorporates a confidence-driven attention mechanism at the intermediate layer of the deep neural network, assessing attention scores and discerning anomalous information from both local and global perspectives. Furthermore, a confidence probability mechanism is implemented at the output layer, leveraging both local and global perspectives to bolster result confidence. Additionally, we meticulously curate multi-modal datasets for automatic lesson plan scoring research, making them openly available to the community. Quantitative experiments on educational and medical datasets confirm that ICMC outperforms state-of-the-art models (HMCAN, MCAN, HGLNet) by 2.5-6.0% in accuracy and 3.1-7.2% in F1-score, while reducing computational latency by 18%. Cross-domain validation demonstrates 15.7% higher generalizability than transformer-based approaches (CLIP), establishing its interpretability through attention visualization and confidence scoring.

PLoS ONEVol. 20(9)
Zhejiang Wanli University (CN), Shanghai Tunnel Engineering Rail Transit Design & Research Institute (CN)
Openalex Percentile: Top 9%
Topic Modeling
2.48
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