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首页> 外文期刊>Bulletin of Japan Society of Coordination Chemistry >Molecular Fuel Cell –Dihydrogen and Dioxygen Activation Inspired by Hydrogenase–
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Molecular Fuel Cell –Dihydrogen and Dioxygen Activation Inspired by Hydrogenase–

机译:分子燃料电池–氢酶激发的二氢和双氧活化–

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摘要

In this review, dihydrogen and dioxygen activation by an oxygen-tolerant hydrogenase and its models is described. While a standard hydrogenase can only oxidize dihydrogen, the oxygen-tolerant hydrogenase can not only oxidize dihydrogen but also reduce dioxygen to water. The oxygen-tolerant hydrogenase is able to act as hydrogenase and oxidase, just like anode and cathode catalysts of fuel cell. We have completely reproduced the active-center structure and function of the oxygen-tolerant hydrogenase by using organometallic complexes for the first time and applied the organometallic complexes for fuel cell electrodes to construct "molecular fuel cell". The molecular fuel cell, which is fabricated by molecular catalysts as a model for the oxygentolerant hydrogenase, is capable of working to generate electricity from dihydrogen and dioxygen. The molecular catalysis gives a new strategy to construct the fuel cell system because it is flexible to design the structure and easy to understand the reaction mechanism by monitoring with various spectroscopies and mass spectrometries. The molecular approach is believed to open the door of new fuel cell in future.
机译:在这篇综述中,描述了由耐氧氢化酶激活的二氢和双氧及其模型。尽管标准的加氢酶只能氧化二氢,但耐氧性加氢酶不仅可以氧化二氢,而且还可以将双氧还原为水。耐氧性加氢酶能够像燃料电池的阳极和阴极催化剂一样充当加氢酶和氧化酶。我们已经首次通过使用有机金属配合物完整地再现了耐氧氢化酶的活性中心结构和功能,并将该有机金属配合物用于燃料电池电极以构建“分子燃料电池”。分子燃料电池是由分子催化剂制造的,作为耐氧性氢酶的模型,能够从二氢和双氧中发电。分子催化为构建燃料电池系统提供了一种新的策略,因为它可以灵活地设计结构并易于通过各种光谱学和质谱法进行监测来理解反应机理。据信分子方法将在未来打开新燃料电池的大门。

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