Abstract
In this day and age of micro machining, the most well-known non-conventional machining technology is known as electro-discharge machining, or EDM. It can quickly produce complicated 2D and 3D designs on challenging materials while preserving excellent feature quality. The micro-sized hole is crucial for components used in the biomedical, electronics, optical, and aerospace industries since they cannot be produced using the conventional machining method. As documented in the literature, it is challenging to machine nanocomposites using different standard and non-traditional machining techniques because of its better anisotropic, heterogeneous structure, and increased mechanical characteristics. This work emphasises the precise micromachining on the nanocomposites based on three different factors: feasibility of EDM process for non conductive matrix based material. Second, the correlation between process parameters and output parameters taking place during machining. Next, about the optimization techniques for Surface topography, tool wear ratio, rate of removal of material, and microstructures of EDM-machined parts and its effect on energy consumption and environmental effect. Finally, taking into consideration the gaps found in the available literature, a conclusion and some suggestion for further research have been suggested.
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Matanda, B.K., Patel, V., Singh, B. et al. A review on parametric optimization of EDM process for nanocomposites machining: experimental and modelling approach. Int J Interact Des Manuf (2023). https://doi.org/10.1007/s12008-023-01353-1
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DOI: https://doi.org/10.1007/s12008-023-01353-1