Literature DB >> 23293674

Poisson-Boltzmann Calculations: van der Waals or Molecular Surface?

Xiaodong Pang1, Huan-Xiang Zhou.   

Abstract

The Poisson-Boltzmann equation is widely used for modeling the electrostatics of biomolecules, but the calculation results are sensitive to the choice of the boundary between the low solute dielectric and the high solvent dielectric. The default choice for the dielectric boundary has been the molecular surface, but the use of the van der Waals surface has also been advocated. Here we review recent studies in which the two choices are tested against experimental results and explicit-solvent calculations. The assignment of the solvent high dielectric constant to interstitial voids in the solute is often used as a criticism against the van der Waals surface. However, this assignment may not be as unrealistic as previously thought, since hydrogen exchange and other NMR experiments have firmly established that all interior parts of proteins are transiently accessible to the solvent.

Entities:  

Year:  2012        PMID: 23293674      PMCID: PMC3535440          DOI: 10.4208/cicp.270711.140911s

Source DB:  PubMed          Journal:  Commun Comput Phys        ISSN: 1815-2406            Impact factor:   3.246


  39 in total

1.  Electrostatics of nanosystems: application to microtubules and the ribosome.

Authors:  N A Baker; D Sept; S Joseph; M J Holst; J A McCammon
Journal:  Proc Natl Acad Sci U S A       Date:  2001-08-21       Impact factor: 11.205

Review 2.  The Poisson-Boltzmann equation for biomolecular electrostatics: a tool for structural biology.

Authors:  F Fogolari; A Brigo; H Molinari
Journal:  J Mol Recognit       Date:  2002 Nov-Dec       Impact factor: 2.137

3.  Electrostatic contributions to T4 lysozyme stability: solvent-exposed charges versus semi-buried salt bridges.

Authors:  Feng Dong; Huan-Xiang Zhou
Journal:  Biophys J       Date:  2002-09       Impact factor: 4.033

4.  Poisson-Boltzmann methods for biomolecular electrostatics.

Authors:  Nathan A Baker
Journal:  Methods Enzymol       Date:  2004       Impact factor: 1.600

5.  Optimizing the Poisson Dielectric Boundary with Explicit Solvent Forces and Energies:  Lessons Learned with Atom-Centered Dielectric Functions.

Authors:  Jessica M J Swanson; Jason A Wagoner; Nathan A Baker; J A McCammon
Journal:  J Chem Theory Comput       Date:  2007-01       Impact factor: 6.006

6.  Electrostatic contribution to the binding stability of protein-protein complexes.

Authors:  Feng Dong; Huan-Xiang Zhou
Journal:  Proteins       Date:  2006-10-01

7.  On the Dielectric Boundary in Poisson-Boltzmann Calculations.

Authors:  Harianto Tjong; Huan-Xiang Zhou
Journal:  J Chem Theory Comput       Date:  2008-02-21       Impact factor: 6.006

8.  Multiple conformations of catalytic serine and histidine in acetylxylan esterase at 0.90 A.

Authors:  D Ghosh; M Sawicki; P Lala; M Erman; W Pangborn; J Eyzaguirre; R Gutierrez; H Jornvall; D J Thiel
Journal:  J Biol Chem       Date:  2000-12-29       Impact factor: 5.157

9.  The AGBNP2 Implicit Solvation Model.

Authors:  Emilio Gallicchio; Kristina Paris; Ronald M Levy
Journal:  J Chem Theory Comput       Date:  2009-07-31       Impact factor: 6.006

Review 10.  Fundamental aspects of protein-protein association kinetics.

Authors:  G Schreiber; G Haran; H-X Zhou
Journal:  Chem Rev       Date:  2009-03-11       Impact factor: 60.622

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  19 in total

1.  A self-consistent phase-field approach to implicit solvation of charged molecules with Poisson-Boltzmann electrostatics.

Authors:  Hui Sun; Jiayi Wen; Yanxiang Zhao; Bo Li; J Andrew McCammon
Journal:  J Chem Phys       Date:  2015-12-28       Impact factor: 3.488

2.  Influence of Grid Spacing in Poisson-Boltzmann Equation Binding Energy Estimation.

Authors:  Robert C Harris; Alexander H Boschitsch; Marcia O Fenley
Journal:  J Chem Theory Comput       Date:  2013-08-13       Impact factor: 6.006

3.  Calculating the binding free energies of charged species based on explicit-solvent simulations employing lattice-sum methods: an accurate correction scheme for electrostatic finite-size effects.

Authors:  Gabriel J Rocklin; David L Mobley; Ken A Dill; Philippe H Hünenberger
Journal:  J Chem Phys       Date:  2013-11-14       Impact factor: 3.488

4.  Parameterization for molecular Gaussian surface and a comparison study of surface mesh generation.

Authors:  Tiantian Liu; Minxin Chen; Benzhuo Lu
Journal:  J Mol Model       Date:  2015-04-12       Impact factor: 1.810

Review 5.  Electrostatic Interactions in Protein Structure, Folding, Binding, and Condensation.

Authors:  Huan-Xiang Zhou; Xiaodong Pang
Journal:  Chem Rev       Date:  2018-01-10       Impact factor: 60.622

6.  A grid-based algorithm in conjunction with a gaussian-based model of atoms for describing molecular geometry.

Authors:  Arghya Chakravorty; Emilio Gallicchio; Emil Alexov
Journal:  J Comput Chem       Date:  2019-01-30       Impact factor: 3.376

7.  Progress in developing Poisson-Boltzmann equation solvers.

Authors:  Chuan Li; Lin Li; Marharyta Petukh; Emil Alexov
Journal:  Mol Based Math Biol       Date:  2013-03-01

8.  Using the concept of transient complex for affinity predictions in CAPRI rounds 20-27 and beyond.

Authors:  Sanbo Qin; Huan-Xiang Zhou
Journal:  Proteins       Date:  2013-09-14

9.  On the Modeling of Polar Component of Solvation Energy using Smooth Gaussian-Based Dielectric Function.

Authors:  Lin Li; Chuan Li; Emil Alexov
Journal:  J Theor Comput Chem       Date:  2014-05       Impact factor: 0.939

10.  Electrostatic component of binding energy: Interpreting predictions from poisson-boltzmann equation and modeling protocols.

Authors:  Arghya Chakavorty; Lin Li; Emil Alexov
Journal:  J Comput Chem       Date:  2016-08-21       Impact factor: 3.376

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