Unquestionably, water appears to be an active player in the noncovalent protein–ligand binding process, as it can either bridge interactions between protein and ligand or can be replaced by the bound ligand. Accordingly, in the last decade, alternative computational methodologies have been sought with the aim of predicting the position and thermodynamic profile of water molecules (i.e., hydration sites) in the binding site using either the ligand‐bound or ligand‐free protein conformation. Herein, we present an alternative approach, named AquaMMapS, that provides a three‐dimensional sampling of putative hydration sites. Interestingly, AquaMMapS can post‐inspect molecular dynamics (MD) trajectories obtained from different MD engines using indifferently crystallographic or docking‐driven structures as a starting point. Moreover, AquaMMapS is naturally integrated into supervised molecular dynamics (SuMD) simulations, presenting the possibility to inspect hydration sites during the ligand–protein association process. Finally, a penalty scoring method, named AquaMMapScoring(AMS), was developed to evaluate the number and nature of the water molecules displaced by a ligand approaching its binding site during the binding event, guiding a medicinal chemist to explore the most suitable regions of a ligand that can be decorated either with or without interfering with the interaction networks mediated by water molecules with specific recognition regions of the protein.
|Number of pages||10|
|Early online date||29 Nov 2017|
|Publication status||Published - 20 Mar 2018|
Bibliographical noteFree access via journal website
- adenosine receptors
- drug design
- molecular dynamics
- protein kinase CK2
FingerprintDive into the research topics of 'AquaMMapS: An Alternative Tool to Monitor the Role of Water Molecules During Protein-Ligand Association.'. Together they form a unique fingerprint.
- Research Centre for Sport, Exercise and Life Sciences - Assistant Professor (Research)
Person: Teaching and Research