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Reactivity prediction through quantum chemical calculations
Author(s) -
Satoshi Maeda,
Yu Harabuchi,
T. Hasegawa,
Kimichi Suzuki,
Tsuyoshi Mita
Publication year - 2021
Language(s) - English
DOI - 10.51167/acm00024
Subject(s) - density functional theory , chemical equation , schrödinger equation , reactivity (psychology) , electron , quantum chemistry , quantum , equations of motion , quantum chemical , quantum mechanics , physics , statistical physics , classical mechanics , computational chemistry , chemistry , molecule , medicine , alternative medicine , supramolecular chemistry , pathology
The main challenge in chemistry is understanding and controlling the movement of atoms, which play a leading role in chemical reactions. In principle, one could predict the movement of atoms by solving the Schrödinger equation, however, which for many-particle systems is too complicated to solve with high accuracy. Thanks to advances in quantum chemical calculation methods, the Schrödinger equation for the motion of electrons is solvable with reasonable accuracy under various approximations.1 Among the approximation algorithms, the density functional theory (DFT) based on the Kohn-Sham equation is routinely used in calculations of the potential energy surface (PES) for a system of several hundred atoms.

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