The Abraham parameters for this process can be combined into quantitative structure-activity relationships. The Eisenberg-McLachlan equation for finding the free energy of this process relies upon weighted input from five atom types. The Lee-Richards and Connolly accessible surface models, are, like molecular mechanics, used as the bases for the implicit or dielectric continuum models of this process. Such models, includi
The Abraham parameters for this process can be combined into quantitative structure-activity relationships. The Eisenberg-McLachlan equation for finding the free energy of this process relies upon weighted input from five atom types. The Lee-Richards and Connolly accessible surface models, are, like molecular mechanics, used as the bases for the implicit or dielectric continuum models of this process. Such models, including the generalized Born model, tend to fail to predict the effects of molecules in the namesake "shell" or "cage" that this process causes to be formed around charged or nonpolar species. The enthalpy of this process is equivalent to the enthalpy of sublimation minus the enthalpy of solution. For 10 points, name this chemical process, the formation of attractions between solvents and solutes.
The Abraham parameters for this process can be combined into quantitative structure-activity relationships.
solvation