Hierarchical Sensor-Robot Control for On-Demand Sensing in a Partially Known Environment

To enable industrial robot autonomy without traditional manual programming, current approaches involve a carefully modeled environment or dedicated sensor feedback. This paper explores a novel alternative regime: on-demand sensing, in which a fleet of sensorless robots operating in un-modeled environments adapt to frequently changing repetitive tasks by requesting temporary access to a shared mobile sensor. A Hierarchical Sensor-Robot Control scheme is developed to enable an ad hoc team to cooperatively solve a task, at which point the sensor is dismissed while the robot repeats the task safely in open loop. An outer loop simultaneously optimizes the sensor pose and the parameters of an inner loop robot controller, which is encoded with potential fields. Simulation results demonstrate the algorithm converging for a realistic problem after just three outer-loop iterations.

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Publication Details

Published
2025-08-17
DOI
https://doi.org/10.1109/case58245.2025.11164064
Primary Topic
Smart Grid Energy Management
Type
article
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article

Hierarchical Sensor-Robot Control for On-Demand Sensing in a Partially Known Environment

Dawn M. Tilbury, Tyler Toner, Kira L. Barton
Smart Grid Energy Management
article

Hierarchical Sensor-Robot Control for On-Demand Sensing in a Partially Known Environment

Dawn M. Tilbury, Tyler Toner, Kira L. Barton
article en

Abstract

To enable industrial robot autonomy without traditional manual programming, current approaches involve a carefully modeled environment or dedicated sensor feedback. This paper explores a novel alternative regime: on-demand sensing, in which a fleet of sensorless robots operating in un-modeled environments adapt to frequently changing repetitive tasks by requesting temporary access to a shared mobile sensor. A Hierarchical Sensor-Robot Control scheme is developed to enable an ad hoc team to cooperatively solve a task, at which point the sensor is dismissed while the robot repeats the task safely in open loop. An outer loop simultaneously optimizes the sensor pose and the parameters of an inner loop robot controller, which is encoded with potential fields. Simulation results demonstrate the algorithm converging for a realistic problem after just three outer-loop iterations.

University of Michigan (US)
Openalex Percentile: Top 74%
Smart Grid Energy Management
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