A fatigue-aware adaptive interface that combines multimodal physiological sensing with reinforcement learning is claimed to cut cognitive load by 18% and boost satisfaction by 22%, though the reported results are not statistically substantiated.
Adaptive User Interface Generation Through Reinforcement Learning: A Data-Driven Approach to Personalization and Optimization
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abstract
This study introduces an adaptive user interface generation technology, emphasizing the role of Human-Computer Interaction (HCI) in optimizing user experience. By focusing on enhancing the interaction between users and intelligent systems, this approach aims to automatically adjust interface layouts and configurations based on user feedback, streamlining the design process. Traditional interface design involves significant manual effort and struggles to meet the evolving personalized needs of users. Our proposed system integrates adaptive interface generation with reinforcement learning and intelligent feedback mechanisms to dynamically adjust the user interface, better accommodating individual usage patterns. In the experiment, the OpenAI CLIP Interactions dataset was utilized to verify the adaptability of the proposed method, using click-through rate (CTR) and user retention rate (RR) as evaluation metrics. The findings highlight the system's ability to deliver flexible and personalized interface solutions, providing a novel and effective approach for user interaction design and ultimately enhancing HCI through continuous learning and adaptation.
fields
cs.LG 1years
2025 1verdicts
REJECT 1representative citing papers
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Fatigue-Aware Adaptive Interfaces for Wearable Devices Using Deep Learning
A fatigue-aware adaptive interface that combines multimodal physiological sensing with reinforcement learning is claimed to cut cognitive load by 18% and boost satisfaction by 22%, though the reported results are not statistically substantiated.