Biophysical Chemistry explores the concepts of physical chemistry and molecular structure that underlie biochemical processes. Ideally suited for undergraduate students and scientists with backgrounds in physics, chemistry or biology, it is also equally accessible to students and scientists in related fields as the book concisely describes the fundamental aspects of biophysical chemistry, and puts them into a biochemical context.
This second edition has been fully updated throughout with novel techniques, with a new chapter on advances in cryo-electron microscopy and exciting new content throughout on big data techniques, structural bioinformatics, systems biology and interaction networks, and artificial intelligence and machine learning.
The book is organized in four parts, covering thermodynamics, kinetics, molecular structure and stability, and biophysical methods. Cross-references within and between these parts emphasize common themes and highlight recurrent principles. End of chapter problems illustrate the main points explored and their relevance for biochemistry, enabling students to apply their knowledge and to transfer it to laboratory projects.
Key Features:
- Connects principles of physical chemistry to biochemistry.
- Emphasizes the role of organic reactions as tools for modification and manipulation of biomolecules.
- Includes a comprehensive section on the theory of modern biophysical methods and their applications.
Dagmar Klostermeier is of the University of Muenster, Germany.
Markus G. Rudolph is of the Pharma Research & Early Development Division in the Roche Group, Switzerland.
Chapter 1: Systems, state functions, and the laws of thermodynamics. Chapter 2: Energetics and chemical equilibria. Chapter 3: Statistical thermodynamics. Chapter 4: Thermodynamics of transport processes. Chapter 5: Electrochemistry. Chapter 6: Reaction velocities and rate laws. Chapter 7: Integrated rate laws for uni- and bimolecular reactions. Chapter 8: Reaction Types. Chapter 9: Deriving integrated rate laws by solving sets of differential equations with matrix algebra. Chapter 10: Rate-limiting steps. Chapter 11: Binding reactions: one-step and two-step binding. Chapter 12: Single-molecule kinetics. Chapter 13: Steady-state (enzyme) kinetics. Chapter 14: Complex reaction schemes and their analysis. Chapter 15: Temperature dependence of rate constants. Chapter 16: Principles of catalysis. Chapter 17: Molecular Structure and Interactions. Chapter 18: Proteins. Chapter 19: Nucleic Acids. Chapter 20: Macromolecular Modeling. Chapter 21: Optical Spectroscopy. Chapter 22: Magnetic Resonance. Chapter 23: Solution Scattering. Chapter 24: Crystallography. Chapter 25: Fluorescence Imaging and Microscopy. Chapter 26: Electron Microscopy. Chapter 27: Scanning Probe Microscopy and Force Measurements. Chapter 28: Transient Kinetic Methods. Chapter 29: Molecular Mass, Size, and Shape. Chapter 30: Calorimetry. Chapter 31: Mathematical Concepts Used in this Book. Chapter 32: Prefixes, Units, Constants.
Biography
Dagmar Klostermeier is of the University of Muenster, Germany.
Markus G. Rudolph is of the Pharma Research & Early Development Division in the Roche Group, Switzerland.
