Fragment Library Generation
From Rizzo_Lab
Revision as of 09:38, 16 June 2017 by Stonybrook (talk | contribs)
Fragment Library Generation is achieved through flex docking. During flex docking, DOCK6 cleaves the molecule along rotatable bonds and stores each of the fragments as a sidechain (one attachment point), linker (two attachment points), or a scaffold (three or more attachment points). Using this fragment library DOCK6 reassembles the molecule based on the produced torsion environment. In the process of cleaving the rotatable bonds, DOCK6 also An example of an input file to generate a fragment library calling DOCK6:
conformer_search_type flex user_specified_anchor no limit_max_anchors no min_anchor_size 5 pruning_use_clustering no pruning_max_orients 100 pruning_orient_score_cutoff 100.0 pruning_max_conformers 75 pruning_conformer_score_cutoff 100.0 use_clash_overlap no write_growth_tree no write_fragment_libraries yes fragment_library_prefix fraglib fragment_library_freq_cutoff 10 fragment_library_sort_method ${SORT_METHOD} fragment_library_trans_origin no use_internal_energy no ligand_atom_file /PATH/001.files/compound_library.mol2 limit_max_ligands no skip_molecule no read_mol_solvation no calculate_rmsd no use_database_filter no orient_ligand no bump_filter no score_molecules no minimize_ligand no atom_model all vdw_defn_file /PATH/001.files/vdw.defn flex_defn_file /PATH/001.files/flex.defn flex_drive_file /PATH/001.files/flex_drive.tbl ligand_outfile_prefix output write_orientations no num_scored_conformers 1 rank_ligands no
The input parameter "write_fragment_libraries" will print out the fragments generated through the process of flex docking.