國際能源和環境問題，以綠色能源技術為主要的突破和發展，其中為了改善能源的浩劫，本研究主要針對電解製氫多孔金屬板之復合材料技術為發展重點，並突破了傳統金屬網及電極層之電極構造，以3維電極結構具有複數孔隙，藉此可使電極具有多孔之骨架結構，並可直接外接電荷進行其反應電解，減少接觸阻抗更將提高反應速率的附加價值，並提供電解製氫最佳一新材料結構，同時解決過多液態水造成膜電阻阻抗上升現象及擴散層的問題。
本研究係指一多孔金屬板結構運用於電解水之電極，尤指一種多孔或多孔管體形所成一孔隙骨架片結構，以超音波壓銲→化學鍍鎳→化學電鍍之3.5V為最佳鍍膜製程方法，以9cm2之反應面積製氫量可達72~90c.c./min;相較於傳統市售白金電極約9成製氫量，但在成本上可大幅下降至1/4價格。
未來可結合太陽能及其他電力來源等製氫，運用於無人飛機上，可大幅降低其生產成本及能耗，更將大幅提多孔金屬板電極結構價值，並提高其經濟效益。

The development of green energy, which aims to save the world from energy catastrophe, addresses international energy and environment problems. The proposed technology uses composite material of porous metal plate for hydrogen production with electrolysis. This breakthrough shifts from traditional metal mesh to electrode layer electrode structure. Therefore, the three-dimensional electrode structure has multiple pores, which forms a porous structure and directly conducts electrolysis with electric charge. The design can decrease contact resistance, increase added value of the reaction rate, and provide an optimum new structure. In addition, the design can solve the problem of excessive liquid water resistance caused by rising resistance and diffusion layer.
The innovative electrode with porous metal structure is applied in electrolytic water treatment. The porous material or porous tube structure forms a sheet skeleton structure. In ultrasonic pressure welding  chemical nickel  3.5 V electroplated nickel is the best coating process method. In a 9 cm2 reaction area, hydrogen production runs approximately from 72 to 90 cc/min compared with traditional commercially available platinum electrode that results in about 90% hydrogen production. However, production cost substantially decreases by about 70%.
Future projects can combine solar energy and other power sources to produce hydrogen, as used in UAV. The reduced production costs and energy consumption will greatly increase the value of porous metal plate electrode structure and improve its economic benefits.

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