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Introduction to Molecular Biophysics

"Introduction to Molecular Biophysics builds the modern theoretical foundation needed to understand life processes from a physical point of view. The authors use a combination of biological information and physical models and theories to provide a rigorous description of biological structure...

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Bibliographic Details
Main Author: J A Tuszynski
Other Authors: Michał Kurzyński
Format: Printed Book
Published: Boca Raton : CRC Press 2003
Edition:[ Special Indian Edition ]
Series:CRC series in pure and applied physics.
Subjects:
Table of Contents:
  • Origins and Evolution of Life
  • Initiation
  • Machinery of prokaryotic cells
  • The photosynthetic revolution
  • Origins of diploidal eukaryotic cells
  • Summary: further stages of evolution
  • Structures of Biomolecules
  • Elementary building blocks
  • Generalized ester bonds
  • Directionality of chemical bonds
  • Weaker intratomic interactions
  • Ionic interactions
  • Covalent bonds
  • Free radicals
  • Van der Waals bonds
  • Hydrogen bonds and hydrophobic interactions
  • Polysaccharides
  • Amphiphilic molecules in water environments
  • Structures of proteins
  • Polypeptide chains
  • Proteins
  • Protein folding
  • Electrophoresis of proteins
  • Protein interactions with environment
  • Electron transfers in proteins
  • Structures of nucleic acids
  • Electrostatic potential of DNA
  • DNA: information and damage
  • Fluorescence in biomolecules
  • Dynamics of Biomolecules
  • Diffusion
  • Diffusional flow across membranes
  • Cells without sources
  • Cells with sources
  • Vibrations versus conformational transitions
  • Stochastic theory of reaction rates
  • Conformational transitions of proteins
  • Protein-glass model
  • Protein-machine model
  • Models of random walks on fractal lattices
  • Introduction to polymer biophysics
  • Elastic properties of polymers
  • Cellular automata
  • Conway's game of life
  • Bioenergetics: The Davydov model
  • Biological coherence: The Froehlich model
  • Ionic currents through electrolytes
  • Electron conduction and tunneling
  • Proton transport
  • Interactions with electromagnetic radiation.