Optimum design of cam-roller follower mechanism using a new evolutionary algorithm

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Date

2018-08-09

Journal Title

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Publisher

Springer

Abstract

The optimum design of a cam mechanism is a very interesting problem in the contact mechanics today, due to the alternative industrial applications as a mechanism of precision. In this paper, a new evolutionary algorithm called modified adaptive differential evolution (MADE) is introduced for multi-objective optimization of a cam mechanism with offset translating roller follower. The optimization procedure is investigated for three objectives among them minimum congestion, maximum efficiency, and maximum strength resistance of the cam. To enhance the design quality of the mechanism in the optimization process, more geometric parameters and more design constraints are included in the problem formulation. In order to validate the developed algorithm, three engineering design problems are solved. The simulation results for the tested problems indicate the effectiveness and the robustness of the proposed algorithm compared to the various existed optimization methods. Finally, the optimal results obtained for the case study example provide very useful decisions for a cam mechanism synthesis.

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Keywords

Cam mechanism, Roller follower, Constrained optimization, Differential evolution algorithm, Negative radius follower, Differential evolution, Engineering optimization, Cams, Constrained optimization, Deformation, Multiobjective optimization, Rollers (machine components), Adaptive differential evolutions, Cam mechanism, Differential evolution algorithms, Engineering design problems, Optimization method, Optimization procedures, Problem formulation, Evolutionary algorithms, Automation & control systems, Engineering, manufacturing

Citation

Hamza, F. vd. (2018). "Optimum design of cam-roller follower mechanism using a new evolutionary algorithm". International Journal of Advanced Manufacturing Technology, 99(5-8), 1267-1282.