We also checked the effect of gel porosity by using agarose gel matrix of lower (0.75%) and higher (3%) weight percentage (Figure , S23, SI). At 0.75% gel, we observed clear appearance of band at different position lower to DNA (corresponding to DNA-histone complex of different composition) and their relative with free DNA decreased with increasing concentration of trypsin. With lower concentration of trypsin (0.1 M) we also observed similar type of extended trailing at a lower extent of phoretic drift. At higher gel concentration (3%), the band of only DNA is relatively less sharper, however, the trend in data is almost similar. Overall, this study clearly indicated trapping of diverse but distinctively patterned composition of biocondensate under non-equilibrium condition by applying electrical field, which can not be achieved in other case. Finally, we explored the effect of electric field of varying strength in patterning DNA or DNAhistone complex in the gel. For this, we used one 30 V and other 120 V electric field and followed the composition of band structure (Figure , Figure , SI)). At 30 V, the electrophoretic drift is low and separation is distinct. However, at high voltage 120 V, the separation became more distinctive. In fact, here we get a band trailing even at higher dissipation strength i.e. higher trypsin concentration as seen in D line. However, in lower voltage (75 V) we observed trailing at C line, with 0.1 M of trypsin concentration (Figure ). It is worthy to mention, we reuse figure 3e (75 V, 45 min data) here for clear comparison of different voltage data. This experiment implies by incorporating high voltage of electric field, the even more short-lived biocondenstae states with rather dissipated at a faster rate, can also be trapped in different zone.