The Rail–Phase Hypothesis for Twin Primes: Five Structural Ingredients to Proving Twin Prime Infinitude Unconditionally

In this update, steps have been clarified and constants fine-tuned. I encourage computational verification of all constants, margins, and bounds, but from my end they seem promising. The updated appendices are worth reviewing. Down the road, there must be a conversation about aspects of this paper in relation to fields such as quantum computing, particularly the notion of Perpetually Disruspted Combinatorics and its potential impact on Shor's algorithm. 

I propose the Rail–Phase Hypothesis, which asserts that any unconditional proof of the Twin Prime Conjecture must operate within a bounded modular framework that studies primes and composites together, in direct relation to one another. The hypothesis identifies five structural necessities: (i) a bounded modular phase system (our example is on the 6k ±1 rails with 28-phase synchronization via mod 7 drift, but we leave open the possibility of other options) providing the finite control arena, (ii) a prime–composite rail balance that guarantees survivors in every bounded window, (iii) a dispersion ceiling preventing larger primes from erasing those survivors, (iv) a slot alignment mechanism ensuring survivors repeatedly form complete twin slots, and (v) a height condition ensuring survivors are genuine primes.