SES # | TOPICS | KEY DATES |
---|---|---|
1 |
Introduction to Course (Material and Organization) Outline of the Course, Procedures and Requirements Cell Types; Contents of a Cell; Central Dogma Probability and Information | |
2 |
Molecular Evolution Mutations, Gene Duplications Divergent/Convergent Polymorphism Phylogenetic Trees | |
3 |
Mutations Drift, Selection, Fixation | |
4 |
Gene Annotation and Similarity Detection Origin and Importance of Problem Scoring Similarities Alignment Types: Local, Global, Gapped, etc. BLAST and Database Searches | Assignment 1 due |
5 |
Substitution Matrices Markov Texts PAM Matrices | |
6 |
Dynamic Programming and Transfer Matrices Dynamic Programming Algorithms for Optimal Alignments Correspondence to Transfer Matrix Methods for Summing Over Directed Paths | |
7 |
Sequence Alignment and Statistical Physics Extreme Value (Gumbel Distribution) Relations to Surface Growth and Asymmetric Exclusion Processes | |
8 |
Biomolecular Forces and Energies Covalent Bonds, Hydrogen Bonds, Van Der Waals Interactions, Hydrophobicity, etc. | Assignment 2 due |
9 |
Electrostatics Macro-ions, Counter-ions, pH, Poisson-Boltzmann Equation, Debye Equation | |
10 |
Polymer Theory Softening of Rigidity by Fluctuations, Entropy and Markov Chains, Attractions, Repulsions, Flory Theory, Loop Entropies | Assignment 3 due |
11 |
Proteins Interactions: Hydrophobicity, Van Der Waals, Coulomb, Covalent Bonds Secondary Structure Elements Classification of Structures, and the Difficulty of Structural Determination Folding in the Cell: Chaperones, Co-translational, Aggregation and Fibrils | |
12 |
The Random Energy Model General Description, Application to Protein Folding and Design | |
13 |
Protein Folding Experiments, Theories, and Numerics | Assignment 4 due |
14 |
Nucleic Acids Introduction to DNA and RNA, the Double Helix | |
15 |
Fluctuating DNA DNA Melting, the Poland-Scheraga Model Unzipping, Translocation | |
16 |
RNA Roles of RNA: mRNA, tRNA, Ribosomal RNA Secondary and Tertiary Structure Secondary Structures without Pseudo-knots | Assignment 5 due |
17 |
Protein-DNA Complexes Specific and Non-specific Binding of Factors to DNA Regulatory Elements Borg-von Hippel, Weight Matrices (Profiles), Information Content Large Scale Packaging of DNA, Histones, Heterochromatin | |
18 |
Hemoglobin Molecular Evolution, Polymorphism, Selection etc. Folding and Fibrillation (of Normal and Abnormal Hemoglobin) Protein Function from Molecular Level to Physiology Physics of Allosteric Regulation | Assignment 6 due |
19 |
Microtubules and Filaments Microtubule Growth and Dynamic Instability | |
20 |
Molecular Motors Ratchets, Asymmetric Hopping Models Motor-Microtubule Assemblies and Patterns | |
21 |
Membranes Lipid Bilayers: Bending Energy, Fluctuations, Shapes Channels, Pumps | Assignment 7 due |
22 |
Cell Motility Life at Low Reynolds Number, Brownian Motion Chemotaxis, Biased Random Walks | |
23 |
Networks Random Networks, Scale Free Networks, Percolation Dynamics on Networks Fixed points, Hopfield Model of Neural Networks Cycles, Clocks, Synchronization | |
24 |
Introduction to Networks Examples in Biological Context (Metabolic, Regulatory, etc.) Prevalence of Power-Laws | Assignment 8 due |
25 |
Dynamics Chemical Interactions and Flux Balance Equations Deterministic and Stochastic Analysis in Networks | |
26 |
Biological Patterns Morphogenesis Turing Model Patterns of Orientation Selectivity | Final project due one day after Ses #26 |