Kit State Lifecycle (KSL): A Boundary-Enforced Deconstruction–Recrystallization Framework as a Falsifiable Extension of the Membrane Paradigm

This preprint presents the Kit State Lifecycle (KSL), a boundary‑physics framework that extends the membrane paradigm by identifying a concrete physical mechanism underlying its effective transport properties. KSL proposes that matter entering the near‑horizon boundary regime undergoes sequential bond‑energy exhaustion—molecular, atomic, nuclear, and finally QCD deconfinement—driving it into a maximally scrambled microcanonical state over the kinematically admissible Hilbert subspace \(H(E,Q)\). This “kit state” carries no structural memory of its progenitor and is defined entirely by conserved charges \((M, J, Q)\). The framework traces the full lifecycle of boundary‑processed matter: boundary approach, hierarchical deconstruction, fast scrambling, gravitational‑wave boundary response, accretion‑driven ejection, and decoherence‑driven recrystallization. KSL yields a falsifiable suite of predictions across gravitational‑wave, electromagnetic, neutrino, and spectroscopic channels, including echo kernels in ringdown, progenitor‑independent exhaust statistics, phase‑space‑weighted channel populations, energy‑accounting anomalies, and exotic‑species abundances in accretion ejecta and galactic recycled matter. Each prediction carries explicit falsifiers and is testable with current and next‑generation instruments such as LIGO/Virgo/KAGRA, the Einstein Telescope, EHT, GRAVITY+, IceCube, and large‑scale spectroscopic surveys. By grounding its claims entirely in exterior observables and known physics, KSL offers a falsifiable, operational interpretation of the membrane paradigm and a natural mechanism for sampling the full Hilbert‑space inventory of the universe.