Gamba Ilaria
Universidad de La Laguna, San Cristóbal de La Laguna, Santa Cruz de Tenerife, Spain.
Bioinorg Chem Appl. 2018 Aug 1;2018:2379141. doi: 10.1155/2018/2379141. eCollection 2018.
The development of artificial photosynthetic technologies able to produce solar-fuels from CO reduction is a fundamental task that requires the employment of specific catalysts being accomplished. Besides, effective catalysts are also demanded to capture atmospheric CO, mitigating the effects of its constantly increasing emission. Biomimetic transition metal complexes are considered ideal platforms to develop efficient and selective catalysts to be implemented in electrocatalytic and photocatalytic devices. These catalysts, designed according to the inspiration provided by nature, are simple synthetic molecular systems capable of mimic features of the enzymatic activity. The present review aims to focus the attention on the mechanistic and structural aspects highlighted to be necessary to promote a proper catalytic activity. The determination of these characteristics is of interest both for clarifying aspects of the catalytic cycle of natural enzymes that are still unknown and for developing synthetic molecular catalysts that can readily be applied to artificial photosynthetic devices.
开发能够通过二氧化碳还原生产太阳能燃料的人工光合技术是一项基本任务,这需要使用特定的催化剂才能完成。此外,还需要有效的催化剂来捕获大气中的二氧化碳,减轻其不断增加的排放所带来的影响。仿生过渡金属配合物被认为是开发高效、选择性催化剂的理想平台,可用于电催化和光催化装置。这些催化剂是根据自然提供的灵感设计的,是简单的合成分子系统,能够模拟酶活性的特征。本综述旨在关注那些被认为对促进适当催化活性至关重要的机理和结构方面。确定这些特性不仅有助于阐明天然酶催化循环中仍不为人知的方面,也有助于开发可轻松应用于人工光合装置的合成分子催化剂。