It
describes in detail the role of theory in chemistry. Key concepts covered
include chemical kinetics, oxidation numbers, electronegativity, and application
of various theoretical methods like quantum dynamics and classical Newtonian
dynamics. This note also underlines the importance of an interface between the
laboratory and theory inasmuch as experimental measurements interact with the
theoretical models. It discusses advanced topics such as mixed classical and
quantum dynamics, the Car-Parrinello method, and their applications to large
biomolecules and polymers, giving insight into the scope and methods used in
modern theoretical chemistry.
This guide is meant to
provide easy access for chemistry students to develop necessary mathematical
skills in a concise, at-hand fashion. It relates key mathematical concepts that
commonly are applied in chemistry, in algebra, calculus, and statistical
methods. The book presents mathematics as fundamental to solving problems in
chemistry and for grasping more sophisticated ideas in physical chemistry,
quantum mechanics, and molecular simulations. It is focused on enhancing the
student's ability to apply mathematical tools in both theoretical and
experimental contexts in chemistry.
Millard H. Alexander's instructional material delves into more
complex topics in modern theoretical chemistry. He covers approximation methods,
electronic structure theory, molecular spectroscopy, collision theory, and
chemical kinetics in comprehensive discussions. The text follows this format to
delve deeper into the mathematical and physical foundations of molecular
behavior, specifically in the context of computational and experimental
chemistry. This article is a manuscript guideline for graduate students in
theoretical chemistry looking to extend their knowledge in these specialized
topics.