The Architecture of Persistence Cyclic Forcing, Prime Entropy, and the Plasma Continuum

Conventional physics treats entropy as the master vector of thermodynamic decay and plasma as a chaotic, localized state of ionized gas. This paper proposes a structural inversion. Drawing on recent experimental observations of fractional Fermi seas in cyclically driven ultracold gases (Nägerl group, University of Innsbruck, 2026) and on the theoretical distribution of the prime numbers, we advance the hypothesis that reality is a continuous, macroscopic phase-plasma forced into coherence through cyclical structural quenches. Within this framework, the prime numbers function as a mathematical analogue to physical thermodynamic quenches, supplying the bounded, non-linear entropy that prevents sequence from collapsing into either uniformity or broadband noise. We formalize this duality as Comprecisance — the boundary at which compression and precision are held in tension — and propose a benchtop, pass/fail experiment applying cyclical electromagnetic forcing to a constrained plasma to test for the emergence of hidden macroscopic order. Note: This framework builds upon the concept of Comprecisance originally coined by Steven Robinson under the curatorship of Prof. Dr. Daniel Friedman at the ActInf Institute Further note on terminology: While this description acknowledges Steven Robinson’s term Comprecisance as an earlier conceptual influence, the term used in my framework from this point forward is Comergence. I use Comergence because the concept has moved beyond compression and precision alone. In my work, the critical process is the convergence of compression, precision, and emergence inside a bounded system — the point where entropy, instead of merely degrading order, becomes constrained enough to generate coherent structure. For that reason, Comergence is the more accurate term for my framework: bounded entropy becoming coherent structure under constraint.