PROBE: Proprioceptive Obstacle Detection and Estimation while Navigating in Clutter
Dhruv Metha Ramesh, Aravind Sivaramakrishnan, Shreesh Keskar, Kostas E. Bekris, Jingjin Yu, Abdeslam Boularias

TL;DR
PROBE is a novel proprioceptive method enabling robots to detect and estimate obstacles in cluttered environments using only internal sensing, bypassing the limitations of visual sensors.
Contribution
It introduces a Transformer-based neural network that infers obstacle presence, dimensions, and poses solely from robot proprioception data during navigation.
Findings
Effective obstacle detection in simulation and real-world tests.
Able to estimate obstacle dimensions and poses accurately.
Operates without reliance on external sensors like cameras.
Abstract
In critical applications, including search-and-rescue in degraded environments, blockages can be prevalent and prevent the effective deployment of certain sensing modalities, particularly vision, due to occlusion and the constrained range of view of onboard camera sensors. To enable robots to tackle these challenges, we propose a new approach, Proprioceptive Obstacle Detection and Estimation while navigating in clutter PROBE, which instead relies only on the robot's proprioception to infer the presence or absence of occluded rectangular obstacles while predicting their dimensions and poses in SE(2). The proposed approach is a Transformer neural network that receives as input a history of applied torques and sensed whole-body movements of the robot and returns a parameterized representation of the obstacles in the environment. The effectiveness of PROBE is evaluated on simulated…
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Taxonomy
TopicsRobotic Locomotion and Control · Robotics and Sensor-Based Localization · Robot Manipulation and Learning
