aiqbench analysis
PARAssist introduces a novel architecture enabling service robots to resolve ambiguous user commands through personalized vision-language models and passive preference learning. By contrasting independent task execution with requested assistance, the system effectively aligns disambiguation with specific user contexts and cognitive demands. This approach advances the practical deployment of adaptive robotics by bridging the gap between generic AI capabilities and individualized human-robot interaction needs.
PARAssist: A Framework for Personalized and Adaptive Robotic Assistance from Ambiguous User Requests
arXiv:2608.24905v1 Announce Type: cross Abstract: Service robots may encounter ambiguous user requests that require context-aware inference. Users may also have unique preferences with certain tasks when requesting robotic assistance. We introduce PARAssist (Personalized and Adaptive Robotic Assistance), a unique architecture for disambiguating requests in a personalized manner for service robots. PARAssist utilizes vision-language models to determine the physical and cognitive demands of a user's tasks, and passively learns user preferences for assistance by contrasting the demands of tasks the user performs independently with those they request from the robot. When an ambiguous request is received, task candidates are generated from the history of the user's actions, activities, locations, conversations, and requests, as well as the current user and environment state. Task candidates are then evaluated against the learned user preference model to suggest suitable assistance options. Experiments conducted with PARAssist show that personalization can align disambiguation with the task demands of a user's prior assistance requests. An ablation study confirms the contributions of PARAssist's main components in personalizing disambiguation.
Abstract:Service robots may encounter ambiguous user requests that require context-aware inference. Users may also have unique preferences with certain tasks when requesting robotic assistance. We introduce PARAssist (Personalized and Adaptive Robotic Assistance), a unique architecture for disambiguating requests in a personalized manner for service robots. PARAssist utilizes vision-language models to determine the physical and cognitive demands of a user's tasks, and passively learns user preferences for assistance by contrasting the demands of tasks the user performs independently with those they request from the robot. When an ambiguous request is received, task candidates are generated from the history of the user's actions, activities, locations, conversations, and requests, as well as the current user and environment state. Task candidates are then evaluated against the learned user preference model to suggest suitable assistance options. Experiments conducted with PARAssist show that personalization can align disambiguation with the task demands of a user's prior assistance requests. An ablation study confirms the contributions of PARAssist's main components in personalizing disambiguation.
Human-Computer Interaction (cs.HC); Robotics (cs.RO)
arXiv:2608.24905 [cs.HC]
(or arXiv:2608.24905v1 [cs.HC] for this version)
https://doi.org/10.48550/arXiv.2608.24905 Focus to learn more arXiv-issued DOI via DataCite
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Full text under the publisher's open licence · 258 words
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