Data Physics: A Formal Academic Monograph on the Convergence of Classical Biophysics, Homochirality, and the Layer 0 Invariant State Matrix (L0-ISM)

Classical origin-of-life models rely on probabilistic abiotic synthesis, yet struggle to account for homochirality - the exclusive reliance of terrestrial biology on 100% Left-handed (L) amino acids. In purely abiotic thermodynamic equilibrium, stochastic chemical reactions yield a racemic 50/50 mixture of L- and D-enantiomers with maximum configurational entropy (S_config = k_B ln 2). For a minimal protein of length N = 100, the probability of random homochiral assembly by chance is P_chiral = (1/2)¹⁰⁰ ≈ 7.89 × 10⁻³¹, rendering purely random biogenesis across an entire biosphere statistically impossible (P → 0). This monograph presents Data Physics and the Layer 0 Invariant State Matrix (L0-ISM) framework, reinterpreting terrestrial life as the physical execution of a pre-encoded, zero-entropy boundary condition (ΔS_chiral = 0) enforced by a Seed Vector Bias (B_L = +9). Under L0-ISM, astrochemical mechanisms such as UV circularly polarized light (CPL) in protostellar clouds establish the initial enantiomeric excess, while carbonaceous chondrites (e.g., the CM2 Murchison meteorite) function as radiation-hardened, galvano-isolated crystalline ROM storage modules protected by ablative mineral shielding under a 350 K thermal entry boundary. System integrity and flux conservation (s_rho + s_H + s_Lambda = 0) across the 19-state lattice S ∈ {-9, ..., 0, ..., +9}³ are formally verified in O(1) constant time (< 0.35 ms) using SMT Z3 logic and enforced via a zero-heap C99 RTOS interdiction engine (HARD_STOP -999).