Designing Adaptive Multimodal Interaction Frameworks to Enhance Human-AI Collaboration

Achieving effective and natural human-AI collaboration remains a major challenge, particularly in dynamic real-world environments. The existing frameworks are often limited by the rigid single-modal inputs or rule-based multimodal fusion, restricting their robustness, personalization, and adaptability. This study introduces an adaptive multimodal interaction framework that integrates vision-based pose estimation and speech-based command understanding within a hierarchical human intention forecasting model. The framework employs Transformer-based sequence models for action prediction and Dynamic Time Warping to align human behavior with the structured task graphs for long-term planning. Unlike prior approaches that rely on static modality switching, our architecture applies an attention-based fusion mechanism to dynamically weight the most informative inputs. Furthermore, an online adaptation module enables real-time adjustment to user behavior, complemented by a lightweight explainability layer to foster user trust. The experimental evaluation in a collaborative assembly task demonstrates significant gains in task performance (up to 24%), intention prediction accuracy (up to 18%), and user satisfaction. These results highlight the effectiveness and versatility of the adaptive multimodal interaction frameworks, supporting their potential to advance collaborative intelligence toward more reliable, transparent, and human-oriented AI systems.

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Publication Details

Journal
Journal of Visualized Experiments
Published
2026-02-24
DOI
https://doi.org/10.3791/69830
Primary Topic
Speech and dialogue systems
Type
article
Field-Weighted Citation Impact
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article

Designing Adaptive Multimodal Interaction Frameworks to Enhance Human-AI Collaboration

Xiang Chen, Wenyue Gong
Journal of Visualized Experiments
Speech and dialogue systems
article

Designing Adaptive Multimodal Interaction Frameworks to Enhance Human-AI Collaboration

Xiang Chen, Wenyue Gong
article en

Abstract

Achieving effective and natural human-AI collaboration remains a major challenge, particularly in dynamic real-world environments. The existing frameworks are often limited by the rigid single-modal inputs or rule-based multimodal fusion, restricting their robustness, personalization, and adaptability. This study introduces an adaptive multimodal interaction framework that integrates vision-based pose estimation and speech-based command understanding within a hierarchical human intention forecasting model. The framework employs Transformer-based sequence models for action prediction and Dynamic Time Warping to align human behavior with the structured task graphs for long-term planning. Unlike prior approaches that rely on static modality switching, our architecture applies an attention-based fusion mechanism to dynamically weight the most informative inputs. Furthermore, an online adaptation module enables real-time adjustment to user behavior, complemented by a lightweight explainability layer to foster user trust. The experimental evaluation in a collaborative assembly task demonstrates significant gains in task performance (up to 24%), intention prediction accuracy (up to 18%), and user satisfaction. These results highlight the effectiveness and versatility of the adaptive multimodal interaction frameworks, supporting their potential to advance collaborative intelligence toward more reliable, transparent, and human-oriented AI systems.

Journal of Visualized Experiments(228)
Jiangnan University (CN)
Openalex Percentile: Top 48%
Speech and dialogue systems
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