Clustered Grasp Volumes for Improved Grasp Selection

Successful manipulation of objects in unstructured scenes requires identifying an achievable grasp given current environmental conditions. Selecting this grasp is a challenging problem, made more difficult when operating in adversarial conditions. Existing approaches often treat the grasp selection and subsequent path and motion planning as separate optimization tasks which require assuming a static environment. We propose a grasp selection algorithm that clusters grasps by pose and cost to generate discrete graspable volumes. Grasps are chosen from within each cluster by a cost function to maximize visibility of the target and manipulability of the robotic arm. This optimization framework is flexible and allows for autonomous or human-in-the-loop supervision in achieving a grasp through a closed-loop control process. Our approach is evaluated in simulation and in a test tank with a Reach Robotics Bravo 7 robotic arm. Code is available at https://gitlab.com/apl-ocean-engineering/raven/manipulation.

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Publication Details

Published
2024-09-23
DOI
https://doi.org/10.1109/oceans55160.2024.10753754
Citations
2
Primary Topic
Evolutionary Algorithms and Applications
Type
article
Field-Weighted Citation Impact
0.69

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article

Clustered Grasp Volumes for Improved Grasp Selection

Aaron Marburg, Marc Micatka
2 citations
Evolutionary Algorithms and Applications
0.69
article

Clustered Grasp Volumes for Improved Grasp Selection

Aaron Marburg, Marc Micatka
article en
2 citations

Abstract

Successful manipulation of objects in unstructured scenes requires identifying an achievable grasp given current environmental conditions. Selecting this grasp is a challenging problem, made more difficult when operating in adversarial conditions. Existing approaches often treat the grasp selection and subsequent path and motion planning as separate optimization tasks which require assuming a static environment. We propose a grasp selection algorithm that clusters grasps by pose and cost to generate discrete graspable volumes. Grasps are chosen from within each cluster by a cost function to maximize visibility of the target and manipulability of the robotic arm. This optimization framework is flexible and allows for autonomous or human-in-the-loop supervision in achieving a grasp through a closed-loop control process. Our approach is evaluated in simulation and in a test tank with a Reach Robotics Bravo 7 robotic arm. Code is available at https://gitlab.com/apl-ocean-engineering/raven/manipulation.

University of Washington Applied Physics Laboratory (US)
Office of Naval Research
Openalex Percentile: Top 23%
Evolutionary Algorithms and Applications
0.69
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