3f. Temperature Quench Analysis. To test whether the new polymorphic form can be stabilized in the absence of the applied electric field, we performed temperaturescreening simulations to find the temperature at which the newly made nanocrystal neither grows nor dissolves on average (i.e. melting temperature) with no electric field applied. In these simulations, the electric field was removed, and the temperature set point was instantaneously changed to the new set point value. The temperature screening results are shown in figure . The estimated melting temperature of the new form nanocrystal is approximately 285 K. As displayed, by temperature quenching to 270 K, the newly discovered form can be stabilized from dissolution, and to the contrary, exhibits crystal growth. To determine if a solid-state conversion had taken place to the previous 𝛼-, 𝛽-, or 𝛾-glycine form, < cos(𝜃) > was calculated as a function of time after the temperature quench to 270 K. As shown in figure , the alignment shows a slow decay in time, but remains significantly above < cos(𝜃) > = 0 implying no transition to 𝛼-, 𝛽-, or 𝛾-glycine has completed, and thus demonstrating that the new form can be stabilized at short times. Similar decays in alignment have been observed in the case of liquid SPC water and the electric field induced polymorph of paracetamol . This demonstrates that frequent laser pulses may be required to preserve the newly produced polymorphic form, as the nanocrystals grow in size.