A DYNAMIC MULTI-OBJECTIVE APPROACH USING INTERVAL ANALYSIS AND GENETIC ALGORITHMS.

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Bibliographic Details
Title: A DYNAMIC MULTI-OBJECTIVE APPROACH USING INTERVAL ANALYSIS AND GENETIC ALGORITHMS.
Authors: El Hraiech, Safa1 safa_el_hraiech@hotmail.fr, Chouaibi, Youssef2, Affi, Zouhaier1
Source: Transactions of FAMENA. 2026, Vol. 50 Issue 3, p17-30. 14p.
Subjects: Interval analysis, Genetic algorithms, Parallel robots, Parameterization, Multi-objective optimization
Abstract: This paper considers a multi-objective optimisation problem focusing on translational parallel manipulators. The proposed approach combines interval analysis with genetic algorithms to optimise the dynamic parameters of parallel manipulators. The objectives are to enhance the robot accuracy, while maximising the tolerance intervals of the parameters. This paper's contribution is to introduce an interval method to estimate the error bounds of a dynamic parallel manipulator within the desired workspace. A genetic algorithm is then applied to improve manipulator accuracy and reduce design costs. The resulting Pareto fronts illustrate the trade-off between each pair of objective functions. [ABSTRACT FROM AUTHOR]
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Database: Engineering Source
Description
Abstract:This paper considers a multi-objective optimisation problem focusing on translational parallel manipulators. The proposed approach combines interval analysis with genetic algorithms to optimise the dynamic parameters of parallel manipulators. The objectives are to enhance the robot accuracy, while maximising the tolerance intervals of the parameters. This paper's contribution is to introduce an interval method to estimate the error bounds of a dynamic parallel manipulator within the desired workspace. A genetic algorithm is then applied to improve manipulator accuracy and reduce design costs. The resulting Pareto fronts illustrate the trade-off between each pair of objective functions. [ABSTRACT FROM AUTHOR]
ISSN:13331124
DOI:10.21278/TOF.503082825