Cognitive-Aware Intent-Adaptive Smart Service for explainable and trustworthy human-centric IoT networks in Digital Marketing

AI-enabled smart service computing seamlessly coordinates data, devices, and users to provide IoT networks with intelligent, adaptive, and context-aware services. Interaction systems match machine decisions to human purpose, cognition, and usability. Most IoT service computing models overlook human intent awareness, cognitive state fluctuations, and interface transparency, resulting in service misunderstanding, lower trust, and restricted customisation in dynamic scenarios. To overcome these limits, this work uses Cognitive-Aware Intent-Adaptive Smart Service Computing (CAI-ASSC) to describe human intent and cognitive state in IoT service orchestration. Intent-adaptive reinforcement learning dynamically adjusts service choices based on explicit and implicit interaction signals, deep learning models, and user intent and cognitive load. Trust-preserving explainability modules increase transparency and user confidence by altering automation levels based on interaction circumstances. Intelligent living and assistive IoT solutions need adaptive interaction and user alignment. CAI-ASSC successfully reduces cognitive load by 17.5–24.6%, maintains high user satisfaction scores of 85–79 across interaction scenarios, achieves service accuracy of 94.0%, and reduces decision adaptation latency to 180–300 ms, validating its efficacy for next-generation intelligent IoT networks.

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Publication Details

Journal
Discover Internet of Things
Published
2026-06-17
DOI
https://doi.org/10.1007/s43926-026-00388-6
Primary Topic
AI in Service Interactions
Type
article
Field-Weighted Citation Impact
0.00
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article

Cognitive-Aware Intent-Adaptive Smart Service for explainable and trustworthy human-centric IoT networks in Digital Marketing

Bingfeng Liu, Yegen Ouyang, Guo Ling, Pinghua Wu
Discover Internet of Things
AI in Service Interactions
article

Cognitive-Aware Intent-Adaptive Smart Service for explainable and trustworthy human-centric IoT networks in Digital Marketing

Bingfeng Liu, Yegen Ouyang, Guo Ling, Pinghua Wu
article en

Abstract

AI-enabled smart service computing seamlessly coordinates data, devices, and users to provide IoT networks with intelligent, adaptive, and context-aware services. Interaction systems match machine decisions to human purpose, cognition, and usability. Most IoT service computing models overlook human intent awareness, cognitive state fluctuations, and interface transparency, resulting in service misunderstanding, lower trust, and restricted customisation in dynamic scenarios. To overcome these limits, this work uses Cognitive-Aware Intent-Adaptive Smart Service Computing (CAI-ASSC) to describe human intent and cognitive state in IoT service orchestration. Intent-adaptive reinforcement learning dynamically adjusts service choices based on explicit and implicit interaction signals, deep learning models, and user intent and cognitive load. Trust-preserving explainability modules increase transparency and user confidence by altering automation levels based on interaction circumstances. Intelligent living and assistive IoT solutions need adaptive interaction and user alignment. CAI-ASSC successfully reduces cognitive load by 17.5–24.6%, maintains high user satisfaction scores of 85–79 across interaction scenarios, achieves service accuracy of 94.0%, and reduces decision adaptation latency to 180–300 ms, validating its efficacy for next-generation intelligent IoT networks.

Discover Internet of Things
Jingdezhen Ceramic Institute (CN)
Openalex Percentile: Top 5%
AI in Service Interactions
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