The strong impact of the electric field intensity observed in this work is analogous to the observation made by Knot et al. in which the effects of different pulse durations and intensity were tested and the latter, but not the former, has a significant effect of the success of nucleation . Furthermore, the manipulation of growth and dissolution dynamics through varying electric field intensity in MD simulations has previously been demonstrated in our work with paracetamol nanocrystals in aqueous solution. However in the case of paracetamol, the electric field was found to only impede the crystallization growth rate at 300 K . The paracetamol aquesous solution system at 370 K, however, demonstrated that dissolution rate could be increased or decreased by a factor of two, depending on the magnitude of the applied electric field . This shows that MD predicts that the magnitude of the variation in the crystallization kinetics, in response to the applied electric field vector, will be both material, and temperature, dependent, yet provides reaffirming evidence that the crystallization growth and dissolutions dynamics will be impacted by the application of an externally applied electric field vector.