Analyzing the dipole moments of neutral species can play a critical role in understanding the nature of the species. This importance is highlighted in the case of ultrastrong dipole moments, defined by a high level of charge separation between the positive and negative charges of the system. When synthesizing macromolecules, the dipole moment and polarizability of the utilized subunits will affect the final product. Further, ultrastrong dipole moments hold potential applications in organic ferroelectrics, as well as nonlinear optics. Higher dipole moments are additionally associated with an increase in dielectric constants, which has a known effect on reaction rates and the stability of activated complexes. The simplest approximation for dipole moment can be expressed by the equation µ = q × r where µ is the dipole moment, q the charge, and r the distance. The three primary methods of modeling solute compounds include gas phase computations, implicit solvation, and explicit solvation.