Tailoring the variational implicit solvent method for new challenges: biomolecular recognition and assembly

Abstract: Predicting solvation free energies and describing the complex water behavior that plays an important role in essentially all biological processes is a major challenge from the computational standpoint. While an atomistic, explicit description of the solvent can turn out to be too expensive in large biomolecular systems, most implicit solvent methods fail to capture “dewetting” effects and heterogeneous hydration by relying on a pre-established (i.e., guessed) solvation interface. Here we focus on the Variational Implicit Solvent Method, an implicit solvent method that adds water “plasticity” back to the picture by formulating the solvation free energy as a functional of all possible solvation interfaces. We survey VISM's applications to the problem of molecular recognition and report some of the most recent efforts to tailor VISM for more challenging scenarios, with the ultimate goal of including thermal fluctuations into the framework. The advances reported herein pave the way to make VISM a uniquely successful approach to characterize complex solvation properties in the recognition and binding of large-scale biomolecular complexes

Standort
Deutsche Nationalbibliothek Frankfurt am Main
Umfang
Online-Ressource
Sprache
Englisch
Anmerkungen
Frontiers in molecular biosciences. - 12 (2018) , 00013, ISSN: 2296-889X

Ereignis
Veröffentlichung
(wo)
Freiburg
(wer)
Universität
(wann)
2022
Urheber
Ricci, Clarisse G.
Li, Bo
Cheng, Li-Tien
Dzubiella, Joachim
McCammon, J. Andrew
Beteiligte Personen und Organisationen
Applied Theoretical Physics - Computational Physics

DOI
10.3389/fmolb.2018.00013/full
URN
urn:nbn:de:bsz:25-freidok-2308652
Rechteinformation
Open Access; Der Zugriff auf das Objekt ist unbeschränkt möglich.
Letzte Aktualisierung
15.08.2025, 07:25 MESZ

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Beteiligte

  • Ricci, Clarisse G.
  • Li, Bo
  • Cheng, Li-Tien
  • Dzubiella, Joachim
  • McCammon, J. Andrew
  • Applied Theoretical Physics - Computational Physics
  • Universität

Entstanden

  • 2022

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