Benchmarking motion planning algorithms for bin-picking applications
Purpose For robot motion planning there exists a large number of different algorithms, each appropriate for a certain domain, and the right choice of planner depends on the specific use case. The purpose of this paper is to consider the application of bin picking and benchmark a set of motion planning algorithms to identify which are most suited in the given context. Design/methodology/approach The paper presents a selection of motion planning algorithms and defines benchmarks based on three different bin-picking scenarios. The evaluation is done based on a fixed set of tasks, which are planned and executed on a real and a simulated robot. Findings The benchmarking shows a clear difference between the planners and generally indicates that algorithms integrating optimization, despite longer planning time, perform better due to a faster execution. Originality/value The originality of this work lies in the selected set of planners and the specific choice of application. Most new planners are only compared to existing methods for specific applications chosen to demonstrate the advantages. However, with the specifics of another application, such as bin picking, it is not obvious which planner to choose.
Year of publication: |
2017
|
---|---|
Authors: | Iversen, Thomas Fridolin ; Ellekilde, Lars-Peter |
Published in: |
Industrial Robot: An International Journal. - Emerald Publishing Limited, ISSN 1758-5791, ZDB-ID 2025337-0. - Vol. 44.2017, 2, p. 189-197
|
Publisher: |
Emerald Publishing Limited |
Subject: | Benchmarking | Robotics | Path planning | Bin picking | Motion planning | Pick and place |
Saved in:
Online Resource
Saved in favorites
Similar items by subject
-
Path planning towards non-compulsory multiple targets using TWIN-RRT*
Pereira, Nino, (2016)
-
Dynamic scheduling of a picking robot with limited buffer and rejection : an industrial case study
Thevenin, Simon, (2022)
-
Task motion planning for anthropomorphic arms based on human arm movement primitives
Gong, Shiqiu, (2020)
- More ...