|
|
|
- SB228 Lecture 5 Lecture5
- Molecular Simulation II
- Normal Mode theory. Concept 5.1
- Normal Mode Dynamics
- Basic theory
- Normal Modes in High Dimensions1
- Normal Modes in High Dimensions2
- Normal Modes in High Dimensions3
- Molecular Potential Energy
- Potential Energy in torsion Space
- Theory of Normal Modes I
- Theory of Normal Modes II
|
- Protein Normal Modes. Concept 5.2
- Rates of Vibration
- Amplitudes of Vibration
- Trypsin inhibitor Modes
- BPTI Normal Modes Movie
- Lysozyme Modes
- Lysozyme Normal Modes Movie
- Ribonuclease Modes
- Ribonuclease Normal Modes Movie
|
|
|
- Unfolding alpha Helix. Concept 5.3
- Alpha-Helix Unfolding
- Why Simulate Unfolding
- Unfold alpha-Helix
- Effect of Temperature
- Helix Less Stable in Water
- Water allows Hydrogen Bonds to Break
- Helix Unfolding Movie
- Distributions in Solution
|
- Unfolding Proteins. Concept 5.4
- Protein Unfolding
- What Happens to Secondary Structure
- Protein Unfolding1 Movie
- What Happens to aromatic Sidechains
- Protein Unfolding2 Movie
- Unfolding Pathway
- Connection to Experiment1
- Connection to Experiment2
- Connection to Experiment3
|
|
|
- Folding Simplified Chains. Concept 5.5
- Fold Simplified Proteins
- Why is Folding So Difficult
- Simplified Models for Folding1
- Virtual Bonds
- Simplified Models for Folding2
- Cartoon Folding Movie
- 3x3x3 Cube Protein Folding
- Lattice Model of Folding
|
- Folding Simulations. Concept 5.6
- Folding Simulations
- Need Massive Computational Resources
- Villin Folding
- IBM Blue Gene Project
- IBM Blue Gene Design
- Folding at Home
- Folding at Home Helix Folding
- Pande Helix Folding Movie
- Pande Villin Folding Movie
- Folding at Home Rates
|