4.6 Article

Multi-Performance Optimization in Electrical Discharge Machining of Al2O3 Ceramics Using Taguchi Base AHP Weighted TOPSIS Method

Journal

PROCESSES
Volume 9, Issue 9, Pages -

Publisher

MDPI
DOI: 10.3390/pr9091647

Keywords

Taguchi method; EDM; TOPSIS method; AHP weight method; multi-performance

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The study optimized the EDM machining parameters of Al2O3 ceramics using Taguchi based TOPSIS coupled with AHP weight method, achieving better multi-performance results. Through experimental and statistical techniques, the optimal combination levels were determined, leading to consistent predicted values with experimental values.
The main application of electrical discharge machining in ceramic processing is limited to conductive ceramics. However, the most commonly used non-conductive potteries in modern industry, such as aluminum oxide (Al2O3), also reveal the limitations of choosing a suitable process. In this study, Taguchi based TOPSIS coupled with AHP weight method to optimize the machining parameters of EDM on Al2O3 leads to better multi-performance. The results showed that the technique is suitable for tackling multi-performance machining parameter optimization. The adhesive foil had a significant impact on material removal rate, electrode wear rate, and surface roughness, according to the findings. In addition, the response graph of relative closeness is used to determine the optimal combination levels of machining parameters. A confirmation test revealed a good agreement between predicted and experimental preference values at an optimum combination of the input parameters. The suggested experimental and statistical technique is a simple, practical, and reliable methodology for optimizing EDM process parameters on Al2O3 ceramics. This approach might be utilized to optimize and improve additional process parameters in the future.

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