Many recent literature reports demonstrate chemical fuels or stimuli driven process via noncovalent interaction with the self-organizing unit (like -surfactant, nanoparticle etc.) can create transient assembled systems under dissipative condition. Here, dissipative condition suggests simultaneous degradation of the fuel or stimuli by another process (for e.g. enzymatic degradation, conformational switching) in such a way that the interactivity with building block ceases, resulting transient assembly. The pre-programmable and regenerative nature of this process find application in designing complex reaction network, reconfigurable materials with life-like properties. However, still now, the system has been considered as a two different energy state system, where assembly process is fast, whereas disassembly process is slow. One can easily think of many multiple intermediate states and each can have different property. In fact, trapping these states by experimental means will help us to achieve simultaneous collection of many self-organized species (same components but compositionally different) which cannot be possible by any other way. Previously, we theoretically deconvoluted the intermediate species of a system which is under dissipative condition where we found compositions of each species are also changing non-linearly. However, realization of this by experimental process has not been carried out until now although it has enormous fundamental and applicative importance as discussed in the preceding paragraphs. To perceive the above-mentioned facts experimentally, we use histone as chemical fuel which results assembly of DNA to generate chromatin-like condensates (coacervate in nature) (Figure ). However, when trypsin is pre-mixed in DNA, then addition of histone results transient formation of coacervates (where DNA-histone binding is fast and trypsin-mediated histone dissociation is relatively slow). However, when this dynamic process is carried out in presence of electric field, then multiple states during downhill process can get accumulated in different zone. Additionally, with increasing electric field, the intermediate states with faster dissipation process can also be trapped. The details results showing transient coacervate formation (including enthalpic and entropic parameters) in static and under electric field are discussed below. At first, we checked the formation kinetics of DNA-histone coacervate in absence and presence of trypsin. Upon addition of histone in a transparent solution containing DNA in HEPES buffer pH = 8.0 , the solution becomes turbid due to formation of 1-2 m sized DNAhistone condensates (Figure , SI). Turbidity kinetics has been checked via UV-vis spectroscopy at 500 nm and the condensate remains stable at a fixed A500 value of 0.35 for more than 90 min and it takes around 20 min to reach the thermodynamically stable condition. The dimension of the condensates was checked by dynamic light scattering (DLS) and optical microscopic images (Figure , S6, S10, SI). Importantly, scattering by the condensates was also checked by count rate analysis while performing DLS measurement and count rate was increased from 2-3 kCPS to 300  50 kCPS, after addition of histone in DNA solution. Now, our aim was to conduct DNA-histone formation under dissipative condition and for that we used trypsin enzyme premixed in DNA solution. In this case, after adding histone in the system, we observed transient formation of condensates. Here, trypsin acts as a protease which fragments the histone, resulting dissociation of the condensate. We showed the lifetime of the condensate can be manipulated by changing the concentration of histone and trypsin. With increasing histone concentration from 5 to 50 M by keeping DNA (2 µM) and trypsin (200 nM) fixed, the half-life of the condensate can be increased from 2 to 25 min (Figure , Figure , SI). On the otherhand, keeping DNA (2 µM) and histone (5 µM) fixed, increasing trypsin from 20 nM to 200 nM the half-life of the condensate can again be decreased from 25 to 5 min (Figure , Figure , SI).