Motion planning for hyper-redundant manipulator systems: combining path following and improved APF-RRT* Path finding

Hyper-redundant manipulator systems (HRMSs) have significant applications in various scenarios. Due to their excessive degrees of freedom (DOF), they can navigate into confined spaces and perform tasks such as exploration, detection, and maintenance. However, its flexibility also renders its motion planning highly challenging. This article proposes an efficient motion planning method for HRMSs, based on path finding and path following. First, the characteristics of a typical HRMS are introduced, and the kinematic model of the HRMS is established. Following that, a path tracking algorithm for the HRMS is introduced. This algorithm integrates a ‘follow the leader’ (FTL) approach with traditional methods to enhance path following efficiency. Thirdly, an improved APF-RRT* algorithm is proposed. This algorithm aims to find suitable paths in the workspace while reducing algorithmic dimensionality. It combines the advantages of both APF and RRT* algorithms. Additionally, an angle correction force field is incorporated for high efficiency. Several sampling-based methods are optimized and compared for analysis. Simulation results show that Improved APF-RRT* can efficiently solve the path planning problem of the HRMS, especially in complex environments. In addition, the smoothing method based on Bezier curves makes the path perform better.

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Publication Details

Journal
Complex & Intelligent Systems
Published
2025-09-08
DOI
https://doi.org/10.1007/s40747-025-02081-7
Primary Topic
Robotic Path Planning Algorithms
Type
article
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article

Motion planning for hyper-redundant manipulator systems: combining path following and improved APF-RRT* Path finding

Chengzhen Wang, Hongcheng Ji, Haibo Xie, Cheng Wang
Complex & Intelligent Systems
Robotic Path Planning Algorithms
article

Motion planning for hyper-redundant manipulator systems: combining path following and improved APF-RRT* Path finding

Chengzhen Wang, Hongcheng Ji, Haibo Xie, Cheng Wang
article en

Abstract

Hyper-redundant manipulator systems (HRMSs) have significant applications in various scenarios. Due to their excessive degrees of freedom (DOF), they can navigate into confined spaces and perform tasks such as exploration, detection, and maintenance. However, its flexibility also renders its motion planning highly challenging. This article proposes an efficient motion planning method for HRMSs, based on path finding and path following. First, the characteristics of a typical HRMS are introduced, and the kinematic model of the HRMS is established. Following that, a path tracking algorithm for the HRMS is introduced. This algorithm integrates a ‘follow the leader’ (FTL) approach with traditional methods to enhance path following efficiency. Thirdly, an improved APF-RRT* algorithm is proposed. This algorithm aims to find suitable paths in the workspace while reducing algorithmic dimensionality. It combines the advantages of both APF and RRT* algorithms. Additionally, an angle correction force field is incorporated for high efficiency. Several sampling-based methods are optimized and compared for analysis. Simulation results show that Improved APF-RRT* can efficiently solve the path planning problem of the HRMS, especially in complex environments. In addition, the smoothing method based on Bezier curves makes the path perform better.

Complex & Intelligent SystemsVol. 11(10)
Zhejiang Sci-Tech University (CN), Zhejiang University (CN)
Openalex Percentile: Top 76%
Robotic Path Planning Algorithms
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