3/18/2005 UCSF Chimera Workshop Resource for Biocomputing, Visualization, and Informatics University of California at San Francisco Scooter Morris U C.

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Presentation transcript:

3/18/2005 UCSF Chimera Workshop Resource for Biocomputing, Visualization, and Informatics University of California at San Francisco Scooter Morris U C S F

3/18/2005 Welcome Outline Who we are Why we’re here Today’s agenda High-level Chimera overview Alignment of three proteins in the enolase superfamily.

Resource for Biocomputing, Visualization, and Informatics We are an NIH Biomedical Technology Resource Center, funded by the National Center for Research Resources. We create innovative computational and visualization-based data analysis methods and algorithms, turn these into easy-to-use software tools which we distribute to the scientific community, and apply these tools for solving a wide range of genomic and molecular recognition problems within the complex sequence  structure  function triad.

3/18/2005 Sample application areas Insight into molecular structure and function: Protein engineering Drug design Biomaterials design Annotation of protein function from sequence and structure Gene annotation, characterization, and interpretation: Pharmacogenetics - understanding and prediction of variation in drug response due to genetic factors Mouse gene knock-outs for modeling of human disease

3/18/2005 UCSF Chimera - an Extensible Molecular Modeling System Chimera is an extensible interactive 3-D modeling system designed to allow developers to quickly incorporate novel visualization algorithms and analysis tools Chimera runs on laptops/desktops and takes maximum advantage of low-cost, state-of-the-art graphics chips $500 today buys you 3-D interactive graphics capabilities that cost $20,000 five years ago Chimera has extensive documentation for users and developers to enable effective scientific studies to be accomplished rapidly and with a “low entry barrier” UCSF Chimera

3/18/2005 Today’s Presenters Scooter MorrisExecutive Director, RBVI Chimera neophyte Eric PettersenChimera Developer Core system, Multalign viewer Dan GreenblattChimera Developer Collaboratory, Demo, Movie Recorder Dr. Elaine MengScientific Advisor Demos, Documentation, Tutorials Tom GoddardChimera Developer Multiscale, Volume Visualization

3/18/2005 We We’re Here NCRR resource requirements: Research and Development Collaborative Research Service and Support Training Dissemination NCRR resource requirements: Research and Development Collaborative Research Service and Support Training Dissemination NCRR resource requirements: Research and Development Collaborative Research Service and Support Training Dissemination NCRR resource requirements: Research and Development Collaborative Research Service and Support Training Dissemination

3/18/2005 Chimera’s Built-in Features Molecular Graphics: interactively manipulate stick, ball-and- stick, CPK, ribbon representations, and molecular surfaces highly intuitive model translation, scaling, and rotation interactive color editing ability to save high resolution images for presentation and publication stereo viewing Chemical Knowledge: determination of atom types in arbitrary molecules ability to add hydrogen atoms high-quality hydrogen bond identification selection of atoms/bonds by element, atom type, functional group, and amino acid category interactive bond rotation, distance, and angle measurements Molecular Graphics: interactively manipulate stick, ball-and- stick, CPK, ribbon representations, and molecular surfaces highly intuitive model translation, scaling, and rotation interactive color editing ability to save high resolution images for presentation and publication stereo viewing Chemical Knowledge: determination of atom types in arbitrary molecules ability to add hydrogen atoms high-quality hydrogen bond identification selection of atoms/bonds by element, atom type, functional group, and amino acid category interactive bond rotation, distance, and angle measurements Molecular Graphics: interactively manipulate stick, ball-and- stick, CPK, ribbon representations, and molecular surfaces highly intuitive model translation, scaling, and rotation interactive color editing ability to save high resolution images for presentation and publication stereo viewing Chemical Knowledge: determination of atom types in arbitrary molecules ability to add hydrogen atoms high-quality hydrogen bond identification selection of atoms/bonds by element, atom type, functional group, and amino acid category interactive bond rotation, distance, and angle measurements

3/18/2005 Chimera’s Programmability/Extensibility Chimera is designed to allow developers to quickly incorporate novel algorithms and analysis tools Extensions can control standard Chimera user interface features (e.g. camera, help, menus, toolbar), as well as create their own custom graphical user interfaces Extensions are written in the Python programming language –Python is easy to learn, even for novice programmers –Python is object-oriented and provides features needed for development of complex codes –~30 extensions written to date Chimera is designed to allow developers to quickly incorporate novel algorithms and analysis tools Extensions can control standard Chimera user interface features (e.g. camera, help, menus, toolbar), as well as create their own custom graphical user interfaces Extensions are written in the Python programming language –Python is easy to learn, even for novice programmers –Python is object-oriented and provides features needed for development of complex codes –~30 extensions written to date

3/18/2005 Sample Chimera Extension Movie Recorder Capture image frames from Chimera and assemble these into a movie file Formats supported: MPEG-1 MPEG-2 MPEG-4 Quicktime (New feature in release ) Movie Recorder

3/18/2005

Sample Chimera Extension Multalign Viewer Simultaneously displays multiple protein sequence alignments and corresponding structure superpositions, calculates and displays consensus sequence and conservation histogram, and highlights corresponding regions in both sequence and structure space

3/18/2005 Sample Chimera Extension ViewDock Rapid screening of promising drug candidates found with the UCSF DOCK program

3/18/2005 Sample Chimera Extension Molecular Dynamics Trajectories All built-in Chimera analysis and display capabilities also work with trajectories. Support is provided for a number of common programs: AMBER, CHARMM, GROMOS, MMTK, NAMD, PDB, and X-PLOR.

3/18/2005 Sample Chimera Extension Volume Viewer An extension for visualizing three-dimensional numerical data sets Electrostatic potential (surfaces) Electron density (mesh) Electrostatic potential (solids)

3/18/2005 Sample Chimera Extension Multiscale Modeling useful for exploring models of large molecular complexes combines volume visualization and atomic resolution capabilities example systems include viruses and chromosomes GroEL model: 14 copies of the monomeric GroEL crystal structure docked to a 10.3 Å electron microscope map

3/18/2005 What’s Left? Lots! Core features: –Keyboard accelerators (Advanced topic) –Extending Chimera (Advanced topic) –Creating Chimera Demos (Advanced topic) –Stereo viewing –Advanced graphics features Extensions: –See Tools documentation

3/18/2005 Overview Today’s Workshop General format: Short presentation/demonstration Hands-on tutorial Topics may be domain-specific Attend the topics of interest Tomorrow Scheduled one-on-one time Your molecules/systems/problems/challenges

3/18/2005 Today’s Agenda Time TopicPresenter 9:00-10:45Introduction & Chimera overviewScooter & Eric 10:45-11:00Break 11:00-12:00Publication/presentation images and animations Dan 12:00-1:30Lunch 1:30-2:30Exploring sequence-structure relationshipsElaine 2:30-3:15Screening docked ligandsElaine 3:15-3:30Break 3:30-5:00Virus capsid and density map visualizationTom 5:00-5:15Wrap-up 5:15-6:00Advanced topicsTeam

3/18/2005 Acknowledgements Staff: Dr. Tom Ferrin, Dr. Conrad Huang, Tom Goddard, Greg Couch, Eric Pettersen, Dan Greenblatt, Al Conde, Dr. Elaine Meng, Dr. John “Scooter” Morris Collaborators (partial list) : Patricia Babbitt, UCSF Wah Chiu and Steven Ludtke, Baylor John Sedat and David Agard, UCSF David Konerding and Steven Brenner, UCB Funding: NIH National Center for Research Resources, grant P41-RR01081 Further information: