硫,多功能非金属。

Martha E Sosa Torres, Alfonso Rito Morales, Alejandro Solano Peralta, Peter M H Kroneck
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引用次数: 3

摘要

非金属化学元素硫,3216S,在《创世纪》中被称为硫磺,由拉瓦锡确定为元素,是宇宙中含量第十多的元素,也是地球上第五常见的元素。生物圈中硫的重要无机形式有单质硫(S8)、硫酸盐(SO2-4)、硫化物(S2-)、亚硫酸盐(SO2-3)、硫代硫酸盐(S2O23)和多硫代酸盐(S3O62-);S4O62 -)。硫的稳定氧化态范围从+6到-2,作为一种结构元素和氧化元素,硫在生物化学中起着重要的作用,与地球上的生命密切相关。由于这种元素的特殊性质,涉及硫化合物的不寻常反应途径成为可能。硫存在于所有主要种类的生物分子中,包括酶、蛋白质、糖、核酸、维生素辅助因子和代谢物。这些生物分子的柔韧性源于其多变的化学性质。最著名的含硫矿物可能是黄铁矿(愚人的金),化学式为FeS2。硫自由基阴离子,如[S3]。-,是造成青金石的强烈蓝色的原因,青金石是艺术家最渴望和最昂贵的材料之一。在微生物界,无机硫化合物,如单质硫和硫酸盐,是最重要的电子受体。微生物硫代谢的研究揭示了许多新的酶和途径,并提高了对用于节能的代谢过程的认识,不仅是微生物,而且是生物学。过渡金属硫配合物显示出有趣的催化活性,它们在金属酶中提供表面和复杂的空腔,激活惰性分子,如H2, CO, N2或N2O,它们催化许多有机分子的转化。硫胺素二磷酸- (ThDP)和s -腺苷- l-蛋氨酸- (SAM)依赖酶都是自然界最强大的催化剂,具有显著的催化活性谱。总之,考虑到硫的多种特性,进化选择硫作为生命的基本元素是一个很好的选择。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Sulfur, the Versatile Non-metal.

The non-metallic chemical element sulfur, 3216S , referred to in Genesis as brimstone and identified as element by Lavoisier, is the tenth most abundant element in the universe and the fifth most common element on Earth. Important inorganic forms of sulfur in the biosphere are elemental sulfur (S8), sulfate (SO2-4), and sulfide (S2-), sulfite (SO2-3), thiosulfate, (S2O23), and polythionates (S3O62-; S4O62-). Because of its wide range of stable oxidation states, from +6to -2, sulfur plays important roles in central biochemistry as a structural and redoxactive element and is intimately related to life on Earth. Unusual reaction pathways involving sulfur compounds become possible by the specific properties of this element. Sulfur occurs in all the major classes of biomolecules, including enzymes, proteins, sugars, nucleic acids, vitamin cofactors, and metabolites. The flexibility of these biomolecules follows from its versatile chemistry. The best known sulfur mineral is perhaps pyrite (Fool's gold), with the chemical formula, FeS2. Sulfur radical anions, such as [S3].-, are responsible for the intense blue color of lapis lazuli, one of the most desired and expensive artists' materials. In the microbial world, inorganic sulfur compounds, e.g., elemental sulfur and sulfate, belong to the most important electron acceptors. Studies on microbial sulfur metabolism revealed many novel enzymes and pathways and advanced the understanding on metabolic processes used for energy conservation, not only of the microbes, but of biology in general. Transition metal sulfur complexes display intriguing catalytic activities, they provide surfaces and complex cavities in metalloenzymes that activate inert molecules such as H2, CO, N2 or N2O, and they catalyze the transformations of numerous organic molecules. Both thiamine diphosphate- (ThDP) and S-adenosyl- L-methionine- (SAM) dependent enzymes belong to Nature's most powerful catalysts with a remarkable spectrum of catalytic activities. In conclusion, given sulfur's diverse properties, evolution made an excellent choice in selecting sulfur as one the basic elements of life.

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