Analysis of subsequent use in docking highlights that Fpocket and CAVIAR are the best performing cavity prediction tools in this context and accurate binding site input does not guarantee accurate binding pose predictions and the more restrained the input is, the more reliable the docking results are.
Abstract
Blind docking is a method for predicting a binding mode of a ligand with a protein without any prior information about a binding site. Some tools allow this type of docking experiment directly, others, including some established tools, require binding site information being passed as an input. In this latter case, one can use cavity prediction tools and use the results of their prediction as an input in these docking calculations. However, it is still unclear if the results of these predictions can be reliably used in protein–ligand docking and what is the best technical way to pass this information to the docking algorithm. In this study we estimated the applicability of the binding pocket prediction tools in docking experiments to address this gap in knowledge. We use four different computational tools for cavity prediction and use the best predicted cavities represented in different ways to run GOLD docking calculations. Analysis of subsequent use in docking highlights that Fpocket and CAVIAR are the best performing cavity prediction tools in this context. Further analysis shows that accurate binding site input does not guarantee accurate binding pose predictions and, even with the predicted cavities, the more restrained the input is, the more reliable the docking results are.
Assessment of pose prediction methods when the bound structure of a reference ligand is known and the likely binding mode(s) of a related compound are needed, and this work focuses on cases where the new compound has multiple potential binding modes.
Ažbeta Kubincová, S. S. Çınaroğlu, Jianna Ongsioco et al.· Journal of Chemical Informat...· 0 citations
The interface prediction program WHISCY is presented, which combines surface conservation and structural information to predict protein–protein interfaces and demonstrates the potential of using interface predictions to drive protein–protein docking.
S. D. de Vries, A. V. van Dijk, A. M. J. J. Bonvin· 0 citations
Docking should be considered as an important and computationally inexpensive reference baseline for binding affinity prediction, and the scoring function and the protein structure are the most important factors for binding affinity accuracy in rigid docking with the MOE software.
Konstantinos Tornesakis, J. Essex, Paul A. Cox et al.· Journal of Computer-Aided Mo...· 0 citations
Structure-based virtual screening (VS) is widely used for the computational selection of drug candidates from compound libraries. Protein–ligand docking calculations are often performed as key steps in the early stages of this process. However, current docking calculations have limited accuracy. Thus, improvements are needed to more efficiently identify promising drug candidates. In this study, we performed mixed-solvent molecular dynamics (MSMD) simulations using four types of probe molecules to improve the accuracy of large-scale VS. We proposed a method for the modification of the docking scoring function for five selected atom classifications (XS_types). This approach integrated the grid free energy derived from the relevant atoms across the probe molecules. VS experiments conducted on nine target proteins showed improved accuracy, with the average EF1% increasing from 6.65 to 7.36. Our method may facilitate drug discovery with higher accuracy than that of conventional methods.
Unknown authors· Journal of Chemical Informat...· 0 citations
It is demonstrated that a truncated version of ProteinDock can be used to choose the optimal prediction among outputs from multiple deep learning-based tools, and shown that this strategy is a computationally efficient alternative to increasing the seed quantity for deep-learning predictions.
G. Rajagopal, Søren C. Spina, Joe Bailey et al.· bioRxiv· 0 citations
This chapter provides an updated overview of the ProBiS tools, which identify binding sites, predict ligand interactions, and analyze conserved water molecules, and enhances the annotation of AlphaFold2-modeled human proteome structures.
D. Janežič, Janez Konc· Methods in molecular biology· 0 citations
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