aiqbench analysis
This research demonstrates a hybrid attention estimation pipeline where geometric perception layers are fused with vision-language models to regulate adaptive human-robot interaction behaviors. The system effectively integrates high-frequency pose data with semantic context derived from raw camera frames to manage states like activation and distraction without redundancy. Such architectures represent significant progress in making robotic heads capable of nuanced, real-time social responsiveness through advanced AI integration.
Hybrid Attention Estimation Pipeline for Adaptive HRI Using an Expressive Robotic Head
arXiv:2608.00284v1 Announce Type: cross Abstract: This paper presents an applied case study on hybrid visual attention estimation for human-robot interaction using an expressive robotic head based on the InMoov ecosystem. The proposed pipeline combines a fast geometric perception layer with an independent semantic perception layer based on a vision-language model. The geometric layer provides high-frequency face and head-pose information for temporal regulation, while the semantic layer receives only raw egocentric camera frames and produces contextual attention labels related to attention toward the robot, phone use, or attention elsewhere. These signals are integrated through a finite state machine that regulates adaptive interaction behavior, including activation, waiting, interaction resumption, and return to rest. The system was evaluated with 10 participants across 40 trials covering baseline and adaptive interaction conditions. Results show reliable interaction start across all trials, consistent pause behavior in the adaptive distraction condition, and non-redundant semantic information between the geometric and semantic outputs.
Abstract:This paper presents an applied case study on hybrid visual attention estimation for human-robot interaction using an expressive robotic head based on the InMoov ecosystem. The proposed pipeline combines a fast geometric perception layer with an independent semantic perception layer based on a vision-language model. The geometric layer provides high-frequency face and head-pose information for temporal regulation, while the semantic layer receives only raw egocentric camera frames and produces contextual attention labels related to attention toward the robot, phone use, or attention elsewhere. These signals are integrated through a finite state machine that regulates adaptive interaction behavior, including activation, waiting, interaction resumption, and return to rest. The system was evaluated with 10 participants across 40 trials covering baseline and adaptive interaction conditions. Results show reliable interaction start across all trials, consistent pause behavior in the adaptive distraction condition, and non-redundant semantic information between the geometric and semantic outputs.
Robotics (cs.RO); Artificial Intelligence (cs.AI)
arXiv:2608.00284 [cs.RO]
(or arXiv:2608.00284v1 [cs.RO] for this version)
https://doi.org/10.48550/arXiv.2608.00284 Focus to learn more arXiv-issued DOI via DataCite
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