The dynamics of this process can be measured with the time-resolved fluorescence Stokes shift technique. Non-equilibrium models for this process often decompose the polarization vector into fast and slow components using a partition named for either Pekar or Marcus. The bulk dielectric constant is set to infinity in one model for this process developed by Klamt and Schuurmann, and Cammi and Tomasi developed a key revision to the first  (*) ASC me
The dynamics of this process can be measured with the time-resolved fluorescence Stokes shift technique. Non-equilibrium models for this process often decompose the polarization vector into fast and slow components using a partition named for either Pekar or Marcus. The bulk dielectric constant is set to infinity in one model for this process developed by Klamt and Schuurmann, and Cammi and Tomasi developed a key revision to the first  (*) ASC method for modeling this process. Another model used for calculating the energy of this process involves placing a dipole in a cavity where it induces a reaction field in the surrounding medium. That model improves upon one developed by Born and was developed by Onsager. The equilibrium concentration after this process depends on temperature, and cooling a mixture in which this process has occurred can lead to supersaturation. For 10 points, name this process in which a second-phase compound is incorporated into a one-phase fluid.
The dynamics of this process can be measured with the time-resolved fluorescence Stokes shift technique. Non-equilibrium models for this process often decompose the polarization vector into fast and slow components using a partition named for either Pekar or Marcus.
solvation [or dissolution, accept word forms]