Department of Chemistry, Ferdowsi University of Mashhad, Mashhad 917751436, Iran.
Dalton Trans. 2017 May 30;46(21):6812-6829. doi: 10.1039/c7dt00894e.
One of the most attractive areas in inorganic chemistry is the synthesis of polyoxometalates (POMs) exhibiting new properties and applications. Since the impact of POMs in biochemistry and related fields of research has increased in the last few years, there has been a special interest in this topic. Significant progress in biological applications has been made where the interaction of POMs with amino acids, peptides and proteins is relevant. Versatile POMs play a series of different roles in the interaction with these biomolecules as described in this review. Various types of interactions are established, depending on the POM shape and charge, the amino acid side chain, peptide sequence or protein structure. Experimental conditions such as temperature, acidity, solvent, etc. are also important factors that influence the binding/reactivity of POM with biomolecules, as described herein. This understanding allows the adequate design of the POM-biomolecule couple for tailoring and controlling mechanisms of action such as catalysis, inhibition, and aggregation, or the crystallising agent.
无机化学中最具吸引力的领域之一是合成具有新性质和应用的多金属氧酸盐 (POM)。由于近年来 POM 在生物化学和相关研究领域的影响增加,人们对这一主题特别感兴趣。在与 POM 与氨基酸、肽和蛋白质相互作用相关的生物应用方面取得了重大进展。如本文所述,多功能 POM 在与这些生物分子的相互作用中发挥了一系列不同的作用。根据 POM 的形状和电荷、氨基酸侧链、肽序列或蛋白质结构,建立了各种类型的相互作用。实验条件,如温度、酸度、溶剂等,也是影响 POM 与生物分子结合/反应性的重要因素,本文对此进行了描述。这种理解允许对 POM-生物分子偶联物进行适当的设计,以定制和控制作用机制,如催化、抑制和聚集,或结晶剂。