本文是運用竹碳對不鏽鋼進行電解拋光結合機械拋光的複合加工，以改善不鏽鋼上的表面粗糙度和竹碳電極的磨耗率。
竹碳具備植物多孔且緻密的微結構特性，其微細孔道具有高吸附能力，本文研究希望竹碳與工業技術做結合，以提升竹碳所附加的經濟價值。
本文使用電解複合拋光對加工時間、研磨粒種類、增加荷重、研磨粒濃度、拋光盤轉速、電極速度、電壓等製程參數進行實驗，並針對實驗後的不鏽鋼表面粗糙度、竹碳電極磨耗率、表面形貌，來進行結果分析探討。

This research is focus on electrolytic composite polishing combining with electro-polishing and mechanical polishing to optimize the surface roughness of stainless steel and the wear rate of bamboo carbon electrode.
Bamboo carbons’ microstructure are comparatively porous and dense, its micro-pores possess high adsorption capacity. In this article, we expect bamboo carbon could enhance the additional values by combing with existing industrial technologies.
The electrolytic composite polishing in this article are experimented with the parameters of machining time, abrasive, increasing load, concentration of abrasive, polishing plate speed, electrode speed and voltage of electrolytic composite polishing. And the roughness of stainless steel, the wear rate of bamboo carbon electrode and the surface morphology of the results are investigated and analyzed.

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