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Full Description
This second edition of Chemical Dynamics in Condensed Phases provides a substantial modification and expansion of the first edition published in 2006. Nitzan offers a uniform approach to diverse problems encountered in the study of dynamical processes in condensed phase molecular systems. The textbook focuses on three themes: contextual background material, in-depth introduction of methodologies, and analysis of several key applications. These applications are among the most fundamental processes that underlie physical, chemical, and biological phenomena in complex systems.
The comprehensive, advanced, and self-contained text provides the theoretical foundations for the processes affecting molecular dynamics in condensed phases that are encountered in the chemistry laboratory as well as in biology and material science research. The mathematical tools and the physical concepts necessary to develop the chemical description are provided first, followed by a detailed discussion of the fundamental chemical processes that underlie the chemical dynamics, including quantum and classical aspects of molecular motion and the interaction of molecules with the radiation field and the surrounding thermal environment. The last part of the book discusses several key processes: accumulation and relaxation of molecular energy, chemical reaction dynamics and the interplay of these dynamics with the dynamics and relaxation of the surrounding solvent, electron transfer reactions, electrode processes and molecular conduction junctions as well as molecular response to optical stimuli in solution and at dielectric interfaces. Attention is given to combining the mathematical analysis with qualitative physical understanding of the different dynamical phenomena.
New to this edition is a new chapter 19 on the interaction of molecules with light at dielectric interfaces, motivated by the surge of interest in molecular plasmonics and molecular cavity electrodynamics, as well as a section relevant to this issue added to Chapter 10. Chapters on light-matter interaction and spectroscopy have been expanded to include subjects relevant to the foundation and practice of interfacial spectroscopy. Sections have also been added to include discussion of noise and fluctuations observed in single molecule spectroscopy and in molecular junction transport.
Contents
PART I BACKGROUND
1: Review of some mathematical and physical subjects
2: Quantum dynamics using the time-dependent Schrödinger equation
3: An overview of quantum electrodynamics {} and matter--radiation field interaction
4: Introduction to solids
5: Introduction to liquids
PART II METHODS
6: Time-correlation functions
7: Introduction to stochastic processes
8: Stochastic equations of motion
9: Introduction to quantum relaxation processes
10: The quantum mechanical density operator {and its} time evolution: Quantum dynamics using the quantum Liouville equation
11: Linear response theory
12: The spin--boson model
PART III APPLICATIONS
13: Vibrational energy relaxation
14: Chemical reactions in condensed phases
15: Solvation dynamics
16: Electron transfer processes
17: Electron transfer and transmission at molecule--metal and molecule--semiconductor interfaces
18: Spectroscopy
19: Molecular spectroscopy at dielectric interfaces
Index
