Downloads
NOTE: The materials provided here are only for students registered in the course. Readings pertain to the lecture they are posted for, except for the many papers that are provided under Design Examples #1.
The papers are provided for your reference and they build upon or help to explain background for the methods or design studies. Materials for the labs MUST BE read and printed out before lab. The labs can be found on the LABS Tab to the left. Lectures will be posted the day of class (so the links won't necessarily be active until then).
Lecture 1, Thursday 1/9: Protein Structure
Lecture Notes
Lecture 2, Friday 1/10: Homology Modeling and Intro to Lab
Lecture Notes
Lecture 3, Thursday 1/16: Protein Structure and Rosetta
Lecture Notes
Reading: Kabsch and Sander. On the use of sequence homologies to predict protein structure: Identical pentapeptides can have completely different conformations
Reading: Schwede, Protein Modeling: What Happened to the "Protein Structure Gap"?
Reading: Baker et al., Robust scaffolds for computational design
Lecture 4, Friday 1/17: Structure, Forces and Molecular Mechanics
Lecture Notes
Reading: Levitt et al., The force field you will be using
Lecture 5, Thursday 1/23 Molecular Dynamics
Lecture Notes
Reading: Beck and Daggett, The MD methods you will be using
Reading: Childers and Daggett, Review of MD in Computational Design
Reading: Khersonsky and Fleishman, Multi-pronged approach to design
Reading: Childers and Daggett, Comparison of protein dynamics using different force fields and MD programs
Lecture 6, Friday 1/24: Coarse grain modeling and their force fields
Lecture Notes
Reading: Pace and Scholtz, A Helix Propensity Scale Based on Experimental Studies of Peptides and Proteins
Reading: Fuchs and Alix, High Accuracy Prediction of β-Turns and Their Types Using Propensities and Multiple Alignments
Reading: Smith et al., A Thermodynamic Scale for the β-Sheet Forming Tendencies of the Amino Acids
Reading: Smith and Regan, Guidelines for protein design: the energetics of β sheet side chain interactions
Reading: Beck et al., The intrinsic conformational propensities of the 20 naturally occurring amino acids and reflection of these propensities in proteins
Lecture 7, Thursday 1/30: Rules for Design 1
Lecture Notes
Lecture 8, Friday 1/31: Rules for Design 2
Lecture Notes
Lecture 9, Thursday 2/6: Rules for Design 3
Lecture Notes
Analysis Open, Friday 2/7
Lecture 10, Thursday 2/13: Design Examples 1
Lecture Notes
Reading: Gutte and Klauser, Design of catalytic polypeptides and proteins
Reading: Davey and Chica, Multistate approaches in computational protein design
Reading: Alvizo et al., Computational protein design promises to revolutionize protein engineering
Reading: Saven, Computational protein design
Reading: Rosenberg and Goldblum, Computational Protein Design: A Novel Path to Future Protein Drugs
Reading: Lippow and Tidor, Progress in computational protein design
Reading: McCully and Daggett, Folding and Dynamics of Engineered Proteins
Reading: Polizzi et al., Stability of biocatalysts
Reading: Jackrel et al., Design applied to peptide-protein binding
Reading: Dormitzer et al., Antigen Design
Reading: Kazlauskas and Bornscheuer, Finding better protein engineering strategies
Reading: Channon et al., Synthetic biology through biomolecular design and engineering
Lecture 11, Friday 2/14: Design Examples 2
Lecture Notes
Slide template for Lit Review
Thursday 2/20: Literature Review
Jani, Liang, Ling, Moore, Wasley, Weber, Witchel, Wu
Friday 2/21: Literature Review
Boldt, Cabrera, Caole, Gendazwill, Kwong, Mehta, Sellers
Thursday 2/27: Lonnquist, Lecture 11 cont.
Lecture 12, Friday 2/28: Design Examples 3
Lecture Notes
Lecture 13, Thursday 3/6: Design Examples 4
Lecture Notes
Lecture 14, Friday 3/7: Design Examples 5
Lecture Notes
Thursday 3/13: 588 Project Presentations
Wu, Witchel, Weber, Wasley
Friday 3/14: 588 Project Presentations
Moore, Ling, Liang, Jani