Chemical dynamics from the gas‐phase to surfaces

IF 2.6 Q2 MULTIDISCIPLINARY SCIENCES Natural sciences (Weinheim, Germany) Pub Date : 2021-01-15 DOI:10.1002/NTLS.10005
D. Auerbach, J. Tully, A. Wodtke
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引用次数: 21

Abstract

: The field of gas-phase chemical dynamics has developed superb experimental methods to probe the detailed outcome of gas-phase chemical reactions. These experiments inspired and benchmarked first principles dynamics simulations giving access to an atomic scale picture of the motions that underlie these reactions. This fruitful interplay of experiment and theory is the essence of a dynamical approach per-fectedongas-phasereactions,theculminationofwhichisastandardmodelofchemical reactivity involving classical trajectories or quantum wave packets moving on a Born– Oppenheimer potential energy surface. Extending the dynamical approach to chemical reactions at surfaces presents challenges of complexity not found in gas-phase study as reactive processes often involve multiple steps, such as inelastic molecule-surface scattering and dissipation, leading to adsorption and subsequent thermal desorption and or bond breaking and making. This paper reviews progress toward understanding the elementary processes involved in surface chemistry using the dynamical approach.
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从气相到表面的化学动力学
气相化学动力学领域已经发展出高超的实验方法来探测气相化学反应的详细结果。这些实验启发了第一性原理动力学模拟,并对其进行了基准测试,从而获得了这些反应背后的原子尺度运动图像。这种富有成效的实验和理论的相互作用是一种动力学方法的本质,这种方法是完美的相反应,其顶点是化学反应的标准模型,涉及经典轨迹或量子波包在玻恩-奥本海默势能表面上移动。将动力学方法扩展到表面的化学反应,带来了气相研究中没有的复杂性挑战,因为反应过程通常涉及多个步骤,例如非弹性分子表面散射和耗散,导致吸附和随后的热解吸以及/或键断裂和形成。本文综述了用动力学方法理解表面化学基本过程的进展。
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