Design and dimensional analysis of a metamorphic parallel sorting robot mechanism

ObjectiveIn order to meet the needs of various sorting tasks, a robot mechanism has been designed to improve the flexibility of the mechanism's work.MethodsFirst, a metamorphic sorting robot mechanism with three configurations was designed based on sorting tasks involving distinct trajectories. Subsequently, a comprehensive kinematic analysis was performed to determine the workspace of each configuration, and quantitative evaluation criteria for workspace constraints were established. Furthermore, an innovative dimensional optimization analysis method was proposed: optimization variables were independently assigned to each configuration while simultaneously considering the mechanism's dimensional parameters and workspace constraints. The optimization process began with single-objective optimization for each configuration,and constraints were set for the objective function values of each configuration to facilitate multi-objective collaborative optimization. Ultimately, a comprehensive optimal solution satisfying the performance requirements of all configurations was obtained. Finally, a case study was conducted.ResultsComputational results demonstrate that the ratios of each optimal value to the objective function values of all configurations exceed 80%, indicating that the optimal performance of each configuration is reasonably ensured. The optimal dimensional parameters of the robot mechanism are derived, completing the structural design of the robot. This work provides novel research insights and a reference framework for metamorphic mechanism design.

Publication Details

Journal
SHILAP Revista de lepidopterología
Published
2025-01-01
Primary Topic
Robotic Mechanisms and Dynamics
Type
article
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article

Design and dimensional analysis of a metamorphic parallel sorting robot mechanism

SHILAP Revista de lepidopterología
Robotic Mechanisms and Dynamics
article

Design and dimensional analysis of a metamorphic parallel sorting robot mechanism

article en

Abstract

ObjectiveIn order to meet the needs of various sorting tasks, a robot mechanism has been designed to improve the flexibility of the mechanism's work.MethodsFirst, a metamorphic sorting robot mechanism with three configurations was designed based on sorting tasks involving distinct trajectories. Subsequently, a comprehensive kinematic analysis was performed to determine the workspace of each configuration, and quantitative evaluation criteria for workspace constraints were established. Furthermore, an innovative dimensional optimization analysis method was proposed: optimization variables were independently assigned to each configuration while simultaneously considering the mechanism's dimensional parameters and workspace constraints. The optimization process began with single-objective optimization for each configuration,and constraints were set for the objective function values of each configuration to facilitate multi-objective collaborative optimization. Ultimately, a comprehensive optimal solution satisfying the performance requirements of all configurations was obtained. Finally, a case study was conducted.ResultsComputational results demonstrate that the ratios of each optimal value to the objective function values of all configurations exceed 80%, indicating that the optimal performance of each configuration is reasonably ensured. The optimal dimensional parameters of the robot mechanism are derived, completing the structural design of the robot. This work provides novel research insights and a reference framework for metamorphic mechanism design.

SHILAP Revista de lepidopterología
Openalex Percentile: Top 45%
Robotic Mechanisms and Dynamics
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