The morning sessions (Tuesday to Friday) will be devoted to the following lectures:
I. Analyzing conformational landscapes, with applications to the design of collective coordinates
II. Simulating conformational changes in proteins using meta-dynamics
III. Mining protein flexibility with robotics-inspired methods
IV. Determination of macromolecular structure and dynamics from experimental data: NMR structure determination as an example
I. Analyzing conformational landscapes, with applications to the design of collective coordinates
Instructors:
Topics, lecture I:
- Energy landscapes and sampling algorithms in bio-physics: overview
- Describing the topography of smooth landscapes: mathematical concepts
- Describing the topography of sampled energy landscapes: algorithms
Topics, lecture II:
- Collective coordinates, reaction coordinates, and transition paths
- Eigensystem approaches: normal modes, PCA, consensus modes
- Assessment of collective coordinates
Lecture slides :
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II. Simulating conformational changes in proteins using meta-dynamics
Instructor:
Topics:
- Basic notions on free energy calculations with Metadynamics
- Best approaches to compute the free energy landscape associated with conformational changes in proteins
- How to set-up PLUMED input files
Lecture slides :
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III. Mining protein flexibility with robotics-inspired methods
Instructor:
Topics:
- Some basic notions on robot modeling and motion planning algorithms
- Robotics-inspired methods to explore the conformational space of proteins
- Coupling robotics algorithms and normal model analysis
Lecture slides :
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IV. Determination of macromolecular structure and dynamics from experimental data:
NMR structure determination as an example
Instructor:
Topics:
- NMR data characterizing structure and dynamics of macromolecules
- Inferential structure determination
- Structure, dynamics, and interactions from NMR studies
Lecture slides :
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