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Statistical physics of biomolecules : an introduction /

Proteins Don't Know BiologyPrologue: Statistical Physics of Candy, Dirt, and Biology Guiding Principles About This Book Molecular Prologue: A Day in the Life of Butane What Does Equilibrium Mean to a Protein? A Word on Experiments Making Movies: Basic Molecular Dynamics Simulation Basic Protein...

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Detalles Bibliográficos
Clasificación:Libro Electrónico
Autor principal: Zuckerman, Daniel M.
Formato: Electrónico eBook
Idioma:Inglés
Publicado: Boca Raton, FL : CRC Press/Taylor & Francis, ©2010.
Temas:
Acceso en línea:Texto completo
Tabla de Contenidos:
  • Chapter 1. Proteins Don't Know Biology
  • Prologue: Statistical Physics of Candy, Dirt, and Biology
  • Guiding Principles
  • About This Book
  • Molecular Prologue: A Day in the Life of Butane
  • What Does Equilibrium Mean to a Protein?
  • A Word on Experiments
  • Making Movies: Basic Molecular Dynamics Simulation
  • Basic Protein Geometry
  • A Note on the Chapters
  • Chapter 2. The Heart of It All: Probability Theory
  • Introduction
  • Basics of One-Dimensional Distributions
  • Fluctuations and Error
  • Two+ Dimensions: Projection and Correlation
  • Simple Statistics Help Reveal a Motor Protein's Mechanism
  • Additional Problems: Trajectory Analysis
  • Chapter 3. Big Lessons from Simple Systems: Equilibrium Statistical Mechanics in One Dimension
  • Introduction
  • Energy Landscapes Are Probability Distributions
  • States, Not Configurations
  • Free Energy: It's Just Common Sense If You Believe in Probability
  • Entropy: It's Just a Name
  • Summing Up
  • Molecular Intuition from Simple Systems
  • Loose Ends: Proper Dimensions, Kinetic Energy
  • Chapter 4. Nature Doesn't Calculate Partition Functions: Elementary Dynamics and Equilibrium
  • Introduction
  • Newtonian Dynamics: Deterministic but Not Predictable
  • Barrier Crossing--Activated Processes
  • Flux Balance: The Definition of Equilibrium
  • Simple Diffusion, Again
  • More on Stochastic Dynamics: The Langevin Equation
  • Key Tools: The Correlation Time and Function
  • Tying It All Together
  • So Many Ways to ERR: Dynamics in Molecular Simulation
  • Mini-Project: Double-Well Dynamics
  • Chapter 5. Molecules Are Correlated! Multidimensional Statistical Mechanics
  • Introduction
  • A More-Than-Two-Dimensional Prelude
  • Coordinates and Force Fields
  • The Single-Molecule Partition Function
  • Multimolecular Systems
  • The Free Energy Still Gives the Probability
  • Summary
  • Chapter 6. From Complexity to Simplicity: The Potential of Mean Force
  • Introduction: PMFs Are Everywhere
  • The Potential of Mean Force Is Like a Free Energy
  • The PMF May Not Yield the Reaction Rate or Transition State
  • The Radial Distribution Function
  • PMFs Are the Typical Basis for "Knowledge-Based" ("Statistical") Potentials
  • Summary: The Meaning, Uses, and Limitations of the PMF
  • Chapter 7. What's Free about "Free" Energy? Essential Thermodynamics
  • Introduction
  • Statistical Thermodynamics: Can You Take a Derivative?
  • You Love the Ideal Gas
  • Boring but True: The First Law Describes Energy Conservation
  • G vs. F: Other Free Energies and Why They (Sort of ) Matter
  • Overview of Free Energies and Derivatives
  • The Second Law and (Sometimes) Free Energy Minimization
  • Calorimetry: A Key Thermodynamic Technique
  • The Bare-Bones Essentials of Thermodynamics
  • Key Topics Omitted from This Chapter
  • Chapter 8. The Most Important Molecule: Electro-Statistics of Water
  • Basics of Water Structure
  • Water Molecules Are Structural Elements in Many Crystal Structures
  • The pH of Water and Acid-Base Ideas
  • Hydrophobic Effect
  • Water Is a Strong Dielectric
  • Charges in Water + Salt = Screening
  • A Brief Word on Solubility
  • Summary
  • Additional Problem: Understanding Differential Electrostatics
  • Chapter 9. Basics of Binding and Allostery
  • A Dynamical View of Binding: On- and Off-Rates
  • Macroscopic Equilibrium and the Binding Constant
  • A Structural-Thermodynamic View of Binding
  • Understanding Relative Affinities: ∆∆G and Thermodynamic Cycles
  • Energy Storage in "Fuels" Like ATP
  • Direct Statistical Mechanics Description of Binding
  • Allostery and Cooperativity
  • Elementary Enzymatic Catalysis
  • pH AND pKa
  • Summary
  • Chapter 10. Kinetics of Conformational Change and Protein Folding
  • Introduction: Basins, Substates, and States
  • Kinetic Analysis of Multistate Systems
  • Conformational and Allosteric Changes in Proteins
  • Protein Folding
  • Summary
  • Chapter 11. Ensemble Dynamics: From Trajectories to Diffusion and Kinetics
  • Introduction: Back to Trajectories and Ensembles
  • One-Dimensional Ensemble Dynamics
  • Four Key Trajectory Ensembles
  • From Trajectory Ensembles to Observables
  • Diffusion and Beyond: Evolving Probability Distributions
  • The Jarzynski Relation and Single-Molecule Phenomena
  • Summary
  • Chapter 12. A Statistical Perspective on Biomolecular Simulation
  • Introduction: Ideas, Not Recipes
  • First, Choose Your Model: Detailed or Simplified
  • "Basic" Simulations Emulate Dynamics
  • Metropolis Monte Carlo: A Basic Method and Variations
  • Another Basic Method: Reweighting and Its Variations
  • Discrete-State Simulations
  • How to Judge Equilibrium Simulation Quality
  • Free Energy and PMF Calculations
  • Path Ensembles: Sampling Trajectories
  • Protein Folding: Dynamics and Structure Prediction
  • Summary
  • Index.