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Coarse-Grained Models MARTINI & Elastic Networks Training | CG-MD & ENM Workflows

NTHRYS >> Services >> Academic Services >> Training Programs >> Bioinformatics Training >> Structural Biology, Biophysics & Computational Modeling >> Coarse-Grained Models MARTINI & Elastic Networks Training | CG-MD & ENM Workflows

Coarse-Grained Models: MARTINI & Elastic Networks — Hands-on

Learn how to use coarse-grained (CG) models to explore slow, large-scale motions of biomolecules using MARTINI and elastic network models. This module covers mapping strategies, CG force fields, elastic networks and normal mode analysis so that you can design multi-scale simulations, interpret low-frequency motions and connect CG insights back to atomistic detail.

Coarse-Grained Models: MARTINI & Elastic Networks
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Session 1
Fee: Rs 8800
Coarse-Graining Concepts & Mapping
  • Why coarse graining for biomolecules
  • time and length scale extension loss of detail vs gain in sampling use cases in structural biology
  • Mapping atomistic models to coarse-grained sites
  • bead definitions and mapping rules proteins, lipids and solvent ideas topology generation workflows
  • Strengths and limitations of CG models
  • what observables are meaningful when atomistic detail is required designing realistic expectations
Session 2
Fee: Rs 11800
MARTINI Force Field Workflows
  • MARTINI force field overview
  • bead types and interaction logic MARTINI for membranes and proteins recent developments and variants
  • Building MARTINI systems from structures
  • mapping atomistic proteins and lipids membrane and solvent setup topology and parameter files
  • Running and analysing MARTINI simulations
  • time step and integration settings common observables for CG simulations backmapping to atomistic overview
Session 3
Fee: Rs 14800
Elastic Network Models & Normal Modes
  • Elastic network models (ENMs) for proteins
  • nodes, springs and contact cutoffs Gaussian network and anisotropic models link to crystallographic B factors
  • Normal mode analysis and low-frequency motions
  • eigenvalues, eigenvectors, modes visualising collective motions link to conformational transitions
  • Practical ENM workflows and interpretation
  • generating ENMs from PDB structures mode selection and relevance connecting ENM insights to experiments
Session 4
Fee: Rs 18800
Multi-Scale Modeling & Case Study
  • End-to-end CG and ENM case study
  • Theory + Practical
  • Combining CG MD, ENMs and atomistic views
  • using ENM modes to guide simulations backmapping key CG conformations integrating with docking or FEP plans
  • Best practices, limitations and reporting
  • communicating CG assumptions clearly figures and movies for CG results methods text and reproducible scripts


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