
Learn the basics of computer aided drug discovery with computation, from the drug discovery pipeline to molecular docking, docking types, file preparation, result analysis, and publication-ready visualizations.
Discover computer aided drug discovery by using genomics and proteomics for target identification, pharmacophore-based virtual screening, molecular dynamics, homology modeling, AI-driven lead design, and ADMET optimization.
Access the Zinc database to obtain commercially purchasable compounds ready for docking, search by smiles, structure, or Zinc id, and explore subsets for virtual screening.
Learn to download Biovia Discovery Studio Visualizer by submitting a download request with professional details, select Windows or Linux versions, and complete the admin installation.
Visualize the protein in Biovia Discovery Studio with dynamic display styles, residue and atom details, multiple representations, and color and surface options to reveal structure and function.
Explore visualizing a ligand in Biovia Discovery Studio by opening the compound, viewing data tables, atomic and residue information, bonds and lengths, and adjusting display styles and color by element.
Explore the rationale for molecular docking and compare blind and targeted docking, then explain flexible, semi-flexible, and rigid docking with a focus on binding site recognition and scoring.
Prepare the grid parameter file (GPF) by selecting the macromolecule, setting grid boundaries, and saving the Autodock parameter library and affinity maps.
Prepare a docking parameter file for autodock using a Lamarckian genetic algorithm, set ligand details and center coordinates, generate random population, use default medium evaluation, save as protein_ligand.dpf.
Visualize and edit the autodock dpf to review atom types, affinity maps, electrostatic and desolution maps, move ligand, and torsional degrees of freedom, with ten GA runs and clustering analysis.
Execute the docking parameter file by launching autodock with the DPF file after completing auto grid, run the autodock in background, and note warnings while awaiting docking completion.
Analyze docking outputs from Autodock with MGLtools PMV, interpreting the DLG log, binding energies, RMSD rankings, and IC50 values, then visualize protein-ligand interactions to identify top conformations.
A perfect course for Bachelors / Masters / PhD students who are getting started into Drug Discovery research. This course is specially designed keeping in view of beginner level knowledge on computational drug discovery applications for science students. By the end of this course participants will be equipped with the basic knowledge required to navigate their drug discovery project making use of the biological databases and computational tools.