School of Chemistry, The University of Sydney, New South Wales, 2006, Australia.
Chem Commun (Camb). 2016 Jul 12;52(58):8957-71. doi: 10.1039/c6cc00805d.
Of the many thousands of new metal-organic frameworks (MOFs) that are now discovered each year, many possess potential redox activity arising from the constituent metal ions and/or organic ligands, or the guest molecules located within their porous structures. Those redox states that can be accessed via postsynthetic redox modulation often possess distinct physical properties; if harnessed, these provide a basis for applications including microporous conductors, electrocatalysts, energy storage devices and electrochemical sensors, amongst others. This feature article highlights the latest developments in experimental, theoretical and computational concepts relevant to redox-active MOFs, including new solid state electrochemical and spectroelectrochemical techniques that have great utility in this field. A particular emphasis is on current and emerging trends at the fundamental level which underscore the importance of this promising class of electroactive materials for a wide range of technologically- and industrially-relevant applications.
每年都有数千种新的金属-有机骨架(MOFs)被发现,其中许多都具有潜在的氧化还原活性,这源于构成金属离子和/或有机配体,或位于其多孔结构中的客体分子。通过后合成氧化还原调节可以获得的那些氧化还原态通常具有不同的物理性质;如果加以利用,这为包括微孔导体、电催化剂、储能装置和电化学传感器等在内的应用提供了基础。本文重点介绍了与氧化还原活性 MOFs 相关的实验、理论和计算概念的最新进展,包括在该领域具有很大实用价值的新的固态电化学和光谱电化学技术。特别强调的是,在基础层面上的当前和新兴趋势,强调了这类有前途的电活性材料在广泛的技术和工业相关应用中的重要性。