重要的是水:太赫兹吸收光谱作为研究溶剂化动力学的新工具

M. Havenith
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引用次数: 1

摘要

只提供摘要形式。太赫兹(THz)吸收光谱是研究(生物)分子水合作用的有力工具。太赫兹技术的发展有助于填补这一频率范围内的实验空白。这些实验进展必须与近年来发展起来的理论概念齐头并进,这些理论概念描述了溶质诱导的水化壳亚皮秒动力学。这个频率范围涵盖了所谓的带有水化笼的离子的咔嗒声模式,并允许对离子水化的分子图谱得出主要结论,这是化学中的一个关键问题。太赫兹光谱允许对离子周围的水合壳进行定量,并对离子对进行表征。通过实验和理论的结合,现在可以严格地将溶剂化生物分子的太赫兹光谱分解为不同的溶质,溶剂和溶质-溶剂耦合贡献。此外,我们强调了最近的结果表明氢键动力学对分子识别的重要性。在所有这些例子中,可以观察到水向蛋白质功能位点运动的梯度,即所谓的“水合漏斗”。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
It is water what matters: THz absorption spectroscopy as a new tool to study solvation dynamics
Summary form only given. Terahertz (THz) absorption spectroscopy is a powerful tool to study (bio)molecular hydration. The development of THz technology helped to full the experimental gap in this frequency range. These experimental advances had to go hand in hand with the development of theoretical concepts that have been developed in the recent years to describe the underlying solute-induced sub-picosecond dynamics of the hydration shell. This frequency range covers the so-called rattling modes of the ion with its hydration cage and allows to derive major conclusions on the molecular picture of ion hydration, a key issue in chemistry. THz spectroscopy allows the quantification of the hydration shell around ions, and the characterization ion pairs. By a combination of experiment and theory, it is now possible to rigorously dissect the THz spectrum of a solvated biomolecule into the distinct solute, solvent and solute-solvent coupled contributions. Moreover, we highlight recent results that show the significance of hydrogen bond dynamics for molecular recognition. In all of these examples, a gradient of water motion toward functional sites of proteins is observed, the so-called “hydration funnel”.
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