1991
DOI: 10.1063/1.460815
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A computer-simulation study of hydrophobic hydration of rare gases and of methane. I. Thermodynamic and structural properties

Abstract: A theory is proposed to study the hydrophobic hydration of rare gases and methane in water. The Ostwald absorption coefficient γ, the hydration energy ΔE, and entropy ΔS are calculated by combining large-scale molecular-dynamics simulations and test-particle methods. The convergence of calculations is checked with particular care. The structure of the first two hydration shells is analyzed in terms of appropriate pair distribution functions. The picture conveyed by this theory is compared to that provided by t… Show more

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Cited by 162 publications
(112 citation statements)
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“…The evident absence of solvation structure beyond the first shell is consistent with previous 125 MD simulation studies (23,25). …”
Section: Solvation Structure 112supporting
confidence: 77%
“…The evident absence of solvation structure beyond the first shell is consistent with previous 125 MD simulation studies (23,25). …”
Section: Solvation Structure 112supporting
confidence: 77%
“…This is one of the characteristics of hydrophobic hydration. 17 Here, the first hydration shell is defined as the inside of the first minimum of the radial distribution of the O number density. For each of the 1-substituted adamantane derivatives, the actual hydration pattern in the first hydration shell is not just "hydrophobic," as will be discussed below.…”
Section: ¹3mentioning
confidence: 99%
“…Indeed, entropy is expected to be the driving force behind most biochemical processes, ranging from protein folding and ligand/protein binding, [15][16][17] to DNA transformations and recognition 18 and hydrophobic effects. 19,20 In particular, solubility and therefore miscibility of molecules in organic liquids may be dominated by changes in entropy, [21][22][23] making accurate measures of the standard molar entropy critical to understanding solvation phenomena. We propose here a practical approach to obtain accurate thermodynamics from short MD trajectories, which we validate by predicting entropies and specific heats of 15 standard…”
Section: Introductionmentioning
confidence: 99%