1997International Journal of Electrical MachiningOpen access

The Reduction of Tool Wear and Machining Time for the Micro-Electro-Discharge Machining of Micro-holes by Using Copper Vapour Laser Machining as a Roughing Process

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Abstract

Micro-electro-discharge machining (micro-EDM) has displayed excellent machined surface quality, but in comparison with other non-traditional machining processes, slow machining speed and high tool wear rate were considered as the major disadvantages of this process.With the increasing demand for higher-precision machining, mass production and widening applications of micro-EDM, new technologies are urgently needed to meet the requirements of reducing machining time and electrode tool wear.This paper describes a novel combination of machining processes to fabricate small holes.Before the micro-EDM of the holes, copper vapour laser radiation is used to ablate an array of small holes first.These holes are then processed in a micro-EDM machine.The experimental results showed that the machining speed of micro-EDM has been improved and tool wear was also reduced while the surface quality remains the same.

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Micro-electro-discharge machining (micro-EDM) has displayed excellent machined surface quality, but in comparison with other non-traditional machining processes, slow machining speed and high tool wear rate were considered as the major disadvantages of this process.With the increasing demand for higher-precision machining, mass production and widening applications of micro-EDM, new technologies are urgently needed to meet the requirements of reducing machining time and electrode tool wear.This paper describes a novel combination of machining processes to fabricate small holes.Before the micro-EDM of the holes, copper vapour laser radiation is used to ablate an array of small holes first.These holes are then processed in a micro-EDM machine.The experimental results showed that the machining speed of micro-EDM has been improved and tool wear was also reduced while the surface quality remains the same.

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Available abstract

Micro-electro-discharge machining (micro-EDM) has displayed excellent machined surface quality, but in comparison with other non-traditional machining processes, slow machining speed and high tool wear rate were considered as the major disadvantages of this process.With the increasing demand for higher-precision machining, mass production and widening applications of micro-EDM, new technologies are urgently needed to meet the requirements of reducing machining time and electrode tool wear.This paper describes a novel combination of machining processes to fabricate small holes.Before the micro-EDM of the holes, copper vapour laser radiation is used to ablate an array of small holes first.These holes are then processed in a micro-EDM machine.The experimental results showed that the machining speed of micro-EDM has been improved and tool wear was also reduced while the surface quality remains the same.

Key concepts: Machining, Materials science, Metallurgy, Electrical discharge machining, Reduction (mathematics), Copper, Process (computing), Mechanical engineering

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The Reduction of Tool Wear and Machining Time for the Micro-Electro-Discharge Machining of Micro-holes by Using Copper Vapour Laser Machining as a Roughing Process — Research Paper | ScholarLens