| 2006 Summer Workshop San Diego, California  (click on figure for large version) 
							
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										Instructors
										
										
											Charles L Brooks III,
												Department of Molecular Biology, The Scripps Research Institute
											Michael Feig,
												Department of Biochemistry and Molecular Biology, Michigan State University
											Wonpil Im,
												Department of Molecular Sciences, The University of Kansas
											Alex MacKerell,
												School of Pharmacy, University of Maryland
											Lennart Nilsson,
												Department of Biosciences at NOVUM, Karolinska Institute
											 Mentors
											Jianhan Chen, The Scripps Research InstituteMike Crowley, The Scripps Research InstituteJana Khandogin, The Scripps Research Institute Workshop Reading
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								|   | Tutorials |  
							
								|   | Useful Links |  
							
								|   | Agenda |  
							
								|   | Monday, July 31 |  
							
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										8:30 AM - 9:45 AM - Welcome, historical overview and introduction to 
										molecular mechanics and modeling with CHARMM and the MMTSB Tool Set. (Brooks) 
										(download lecture)
										
												Welcome and overview of MMTSB and CTBP objectives
												Introduce CHARMM and the MMTSB Tool Set with an historical perspective
												A brief overview of methods in molecular modeling & nature of force field,
													minimization and molecular dynamics, introduction to periodic boundary conditions
												A brief introduction to the flow of CHARMM calculations
												Comments on scope and range of problems that can be addressed with CHARMM,
													e.g., from atomic detail, md, MC, MM, QM/MM, to multi-scale, simplified models
													(Go-models, multi-resolution GNMs and minimalist protein/NA models).
												 9:45 AM - 11:00 AM - CHARMM force fields, parameterization strategies and
											future/ongoing force field developments. (MacKerell) 
											(download lecture)
										
												The nature of the CHARMM force field, molecular fragments and parameterization
													strategies
												Current advances in fixed charge force fields
												Extending fixed charge force fields for "new molecules"
												Polarizable force fields - ChEq, PIPF and Drude models 11:00 AM - 12:00 PM - Introduction to MMTSB scope and functionality. (Feig) 
										(download lecture)
										
												Overview of MMTSB scope, purpose and structure
												Description of tools their function and extensibility
												Introductory examples/illustrations
											 2:00 PM - 5:00 PM - Elementary applications to peptides, proteins and nucleic acids
											(Brooks, MacKerell, Feig).
										Brooks
												Visualizing molecules and trajectories with VMD
												Building, minimizing and solvating an α-helical peptide
													- C-peptide from RNAse A.
												Conditioning/preparing a multi-domain protein for simulation
												
													with CHARMM all atom force field
													using MMTSB Tools convpdb.pl, minCHARMM.pl, enerCHARMM.pl
													with CHARMM polarizable ChEq force field
												 MacKerell
												Conditioning/preparing DNA for molecular dynamics
												
													with CHARMM DNA/RNA force fields
													using MMTSB Tools
													Application of MM-GBSA to protein-protein and protein-DNA complexes
												Calculating protein-small molecule (fragment/drug) interactions with CHARMM
											 Feig
												Setting-up and running molecular simulations with CHARMM through the MMTSB Tool Set
												Ensemble and ensemble calculations through the MMTSB Tool Set
												
													MMPB/SA type analysis
													analysis example w/ clustering
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								|   | Tuesday, August 1 |  
							
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										8:30 AM - 9:30 AM - CHARMM analysis tools and facilities. (Nilsson) (download lecture)
												Overview of CHARMM analysis facilities and trajectory analysis
												Illustrative examples of solvent analysis, hydrogen bonding, clustering w/
													K-means cluster facility
												 9:30 AM - 10:45 AM - Simulating membranes and protein-membrane systems. (Im) (download lecture)
												Membrane force fields and system set-ups in CHARMM
												Key properties and observables
												Illustrative example (KcsA or gA)
											 11:00 AM - 12:00 PM - Implicit solvent models. (Im) (download lecture)
												Overview of CHARMM empirical implicit solvent models (ASA, EFF,IMFF)
												Continuum solvent models in CHARMM (PB, GB)
												Continuum-based boundary models
												Introductory examples/illustrations – folding, membrane simulations, etc.
											 2:00 PM - 5:00 PM - Applications to membrane/protein systems, implicit solvent
											simulations and trajectory analysis. (ln, wi, mf)
										Nilsson
										
										
												Comparative analysis of protein structures (e.g., rmsd versus reference,
													hydrogen bonding, secondary structure
												Examples of analysis of solvent/solvation structure and dynamics
												Clustering molecular trajectories based on backbone conformations
												Clustering molecular trajectories based on properties using MMTSB Tools (w/ Feig)
												Analysis of NMR properties, order parameters, T2, etc.
											 Im
												Conditioning/preparing membrane systems for molecular dynamics
												Sampling ion conformations for conductivity calculations
												Poisson Boltzmann calculations in CHARMM - mapping the electrostatic potential from
													protein mutations
												Preparing and setting-up a protein system for molecular simulations with CHARMM
													GBSW/GBMV approaches
												Membrane GBSW simulation of phospholamban
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								|   | Wednesday, August 2 |  
							
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										8:30 AM - 9:30 AM - Free energy calculations, umbrella sampling and pmfs. (Nilsson) (download lectures part 1 and part 2)
												Introduction and overview to CHARMM free energy methods and restraints
												Illustrative examples from base flipping
											 9:45 AM - 11:00 AM - Using the MMTSB Tool Set with MONSSTER and CHARMM for
											protein structure prediction (Feig) (download lecture)
										
												Overview of structure prediction capabilities
												Applications from homology/loop modeling to de novo structure prediction
											 11:00 AM - 12:00 PM - Replica-exchange molecular simulations with CHARMM and MMTSB (Im) (download lecture)
												Theoretical background of replica exchange MD
												illustrative examples for membrane assembly, peptide folding and protein refinement
													(w/ Jianhan Chen)
												 2:00 PM - 5:00 PM - Structure prediction, free energy calculations and replica-exchangeBrooks
												Analysis of free energy changes from molecular simulations
											 FeigStructure prediction set-up and analysis
 Im
												REX-MD for membrane peptide folding
												Refinement of NMR and/or homology models with REX-MD and GB
											 Feig
										
												Setting-up and running molecular simulations with CHARMM membrane GBMV on phospholamban
												Multiple dielectric simulations with GBMV
												New analysis tools in MMTSB - examples
											 5:30 PM - 7:00 PM - Workshop barbecue at Natural Science Building Patio
 7:00 PM - 9:00 PM - Participant poster session and social at Natural Science Building AtriumPoster set-up to begin at 7:00 PM, munches and drinks to be supplied
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								|   | Thursday, August 3 |  
							
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										8:30 AM - 9:30 AM - Developing and implementing multi-resolution models with CHARMM. (Brooks) (download lecture)
												Topological and flavored Go models for the investigation of protein folding and unfolding.
												Multi-scale DNA models for DNA structure and thermodynamics
										 10:00 AM - 11:00 AM - Integrating multi-scale, multi-resolution models with detailed atomic
										 models to explore reaction pathways in DNA polymerases (Arora)11:00 AM - 12:00 PM - Multi-scale modeling, multi-scale ion channel simulation using BD and
										 PNP (Im) (download lecture)2:00 PM - 5:00 PM - Multi-scale, multi-resolution modelingBrooks
												Using CHARMM and MMTSB to explore protein folding mechanism and thermodynamics
												Exploring single molecule protein pulling experiments with Go models
												Thermodynamic analysis of DNA melting with CHARMM MC and multi-scale DNA model
												Constructing and refining a conformational transition pathway using Gaussian 
												networks with CHARMM FeigStructure prediction set-up and analysis
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								|   | Friday, August 4 |  
							
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										8:30 AM - 9:15 AM - Research Seminar, L. Nilsson - Ligand interactions with nuclear hormone receptors.
 9:15 AM - 10:00 AM - Research Seminar, M. Feig - Protein structure prediction and refinement.
										
 10:00 AM - 10:45 AM - Research Seminar, A. Mackerell - Base flipping in the presence of the 
										cytosine-5-methyltransferase from HhaI.
 10:45 AM - 11:30 PM - Research Seminar, W. Im - Where are we after one year?
 11:30 AM - 12:00 PM - Brooks - Summary and final comments.
 2:00 PM - 5:00 PM - Final hands-on, finish up tutorial materials, one-on-one interactions 
										(Brooks, Feig, Im, MacKerell, Nilsson, Khandogin, Chen, Crowley)
 
 Moonlight Kayaking on Mission Bay
 6:00 PM - 10:30 PM
										We have organized a moonlight kayaking trip for the workshop participants on the evening of Friday, 
										August 4.  We have planned a BBQ dinner at the Mission Bay Aquatic Center from 6:30 - 7:30 followed 
										by three hours of kayaking on Mission Bay during which time Sea World may be having a fireworks display. 
										A bus will be departing from UCSD at 6:00 PM and returning about 10:30 PM. The trip will be limited to 30 participants so if you would like to go, please let us know no later 
										than Wednesday, July 26. There will be a cost of $40 for this activity. Payment can be in cash or via a check made out to "UC Reagents"
										on the first day of the workshop. If you have any questions, please contact 
										. Workshop ends |  
							
								|   | We acknowledge Apple Computer for providing machines and assistance in making the workshop a success. |  
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