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The first afternoon (Dec. the 2nd) will be devoted to short
presentations. Each of the five remaining days will be organized as
follows:
- Lecture from 9am to 10:30am, and from 10:45 am to noon
- Lunch at 12:45pm (sharp!)
- Practical from 2pm to 5:30pm
[Sunday the 2nd, 2pm - 6:30pm]
Short presentations by the participants (7'+3')
[Monday the 3rd]
I. Obtaining and organizing structural
information for modeling studies
Instructors:
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Topics:
- The Protein Data Bank and related resources
- Organizing and manipulating protein structural data and derived quantities
- Data structures for higher-level problems
Projects proposed:
- Analyzing conformational changes in protein-protein association
- Correlating observed structural changes and collective movements of proteins
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[Tuesday the 4th]
II. Modeling protein complexes and assembies with Voronoï diagrams
Instructor:
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Topics:
- Affine and curved Voronoi diagrams: a primer.
- Modeling atomic resolution protein interfaces and binding patches.
- Modeling fuzzy protein assemblies in the context of
reconstruction by data integration.
Projects proposed:
- Investigating complexes from the immune system, annotated in the
IMGT/3Dstructure-DataBase
- Spotting putative binding patches on orphan proteins.
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[Wednesday the 5th]
III. Molecules as robots: mining the flexibility of proteins
Instructor:
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Topics:
- Some basic notions on robot modeling and motion planning algorithms.
- Robotics-inspired methods to explore the conformational space of proteins.
- Investigating the accessibility to active sites considering
flexible molecule models.
Projects proposed:
- Computing conformational transitions of proteins.
- Simulating ligand (un)binding with a single processor.
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[Thursday the 6th]
IV. Structural comparisons
Instructors:
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Topics:
- Integer programming modeling and relaxations
- Application to the study of protein structures
- Application to the study of protein binding patches
Projects proposed:
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[Friday the 7th]
V. Docking algorithms
Instructors:
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Topics:
- Macromolecular docking methods: principles and state of the art
- Coarse-grained representations of proteins and nucleic acids
- The ATTRACT/PTools docking suite
Project proposed:
- Systematic docking including side chain and global flexibility
- Docking multiple partners
- Construction of protein filaments: from two-component docking to the
generation of full helices
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