Avoiding Object Damage in Robotic Manipulation

The large-scale deployment of robotic manipulation systems in warehouses has highlighted the rare but costly problem of robot-induced object damage. We present a system that uses a classification model to predict whether an object will get damaged during robotic manipulation. The model uses object attributes retrieved from warehouse information systems as well as attributes available at our robotic workcell. We evaluated different classical machine learning models, as well as a large language model (BERT) and a multimodal-transformer for our task. We show that the multi-modal transformer model that is able to leverage text and image data outperforms models that only rely on categorical and numerical data. Furthermore, our comparative analysis equips the selection the optimal model for an application. We validate our system during an experiment in which the output of the damage prediction system is used to avoid picking objects that are likely to get damaged. In over 50k pick-and-place activities, our system reduces damage rate by 64%.

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Publication Details

Published
2024-10-14
DOI
https://doi.org/10.1109/iros58592.2024.10801408
Citations
1
Primary Topic
Robot Manipulation and Learning
Type
article
Field-Weighted Citation Impact
0.33
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article

Avoiding Object Damage in Robotic Manipulation

Chaitanya Mitash, Dylan Randle, Manikantan Nambi, Pratik Shah et al.
1 citations
Robot Manipulation and Learning
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article

Avoiding Object Damage in Robotic Manipulation

Chaitanya Mitash, Dylan Randle, Manikantan Nambi, Pratik Shah, Fan Wang, Kaiwen Wang, Erica Aduh
article en
1 citations

Abstract

The large-scale deployment of robotic manipulation systems in warehouses has highlighted the rare but costly problem of robot-induced object damage. We present a system that uses a classification model to predict whether an object will get damaged during robotic manipulation. The model uses object attributes retrieved from warehouse information systems as well as attributes available at our robotic workcell. We evaluated different classical machine learning models, as well as a large language model (BERT) and a multimodal-transformer for our task. We show that the multi-modal transformer model that is able to leverage text and image data outperforms models that only rely on categorical and numerical data. Furthermore, our comparative analysis equips the selection the optimal model for an application. We validate our system during an experiment in which the output of the damage prediction system is used to avoid picking objects that are likely to get damaged. In over 50k pick-and-place activities, our system reduces damage rate by 64%.

Amazon (United States) (US)
Openalex Percentile: Top 38%
Robot Manipulation and Learning
0.33
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