| Preface | 7 |
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| Contents | 9 |
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| About the Authors | 11 |
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| 1 Protein Folding: An Introduction | 12 |
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| 1 Protein Structure—How Is Structure Maintained? | 12 |
| 1.1 The Dawn of Protein Structural Biology | 12 |
| 1.2 The Universe of Protein Structures | 13 |
| 1.3 Physical Interactions Stabilising Proteins | 18 |
| 1.4 Protein Dynamics and Solvation | 20 |
| 2 Protein Folding—Why Is Structure Acquired? | 21 |
| 2.1 The Anfinsen Experiments | 22 |
| 2.2 The Thermodynamic Hypothesis | 24 |
| 2.3 Driving Forces for Protein Folding—Hydrophobic Effect and the Thermodynamics of Protein Folding | 25 |
| 3 Folding Kinetics and Mechanisms: How Is Structure Acquired? | 31 |
| 3.1 Two-State Cooperativity in Protein Folding | 31 |
| 3.2 The Levinthal Paradox and the Timescale of Protein Folding | 37 |
| 3.3 Mechanisms of Protein Folding | 38 |
| 3.4 The Nucleation Condensation Mechanism of Protein Folding | 39 |
| 3.5 Phi-value Analysis and the Structure of the Folding Transition State | 39 |
| 3.6 The Energy Landscape and Folding Funnels | 40 |
| 3.7 The Importance of Native Geometry as a Determinant of Folding Rates | 42 |
| 3.8 The Folding Mechanism of Knotted Proteins | 43 |
| 4 Protein Misfolding: Why Proteins Misbehave? | 45 |
| 4.1 Protein Folding In Vivo | 45 |
| 4.2 Protein Misfolding and Aggregation | 49 |
| 4.3 Protein Misfolding Diseases | 51 |
| 4.4 The Amyloid State | 52 |
| 4.5 Mechanism and Kinetics of Protein Aggregation | 56 |
| 4.6 Aggregation Propensity | 60 |
| 5 Methods for Protein Folding | 61 |
| 5.1 Biophysical Spectroscopies | 61 |
| 5.2 Computational Methods | 64 |
| References | 65 |