Unified Pattern Framework (UPF): A Dynamical Pattern-State Ontology on a Discrete Graviton Lattice

We introduce the Unified Pattern Framework (UPF), a new extension of Structured Space Theory (SST) in which elementary particles are not treated as fundamental point-like objects, but as stable pattern-states of a discrete graviton lattice. In this framework, mass, radiation, charge, and nuclear structure are reinterpreted as emergent consequences of lattice geometry, phase organization, closure, and propagation. The main paper develops a dynamical pattern-state ontology on an FCC-based lattice and derives a connected framework spanning minimal closed excitations, inter-cluster coupling, nuclear stability criteria, massless propagating modes, charge from phase winding, and a first bridge from lattice geometry to isotope-level source asymmetries. Rather than introducing new free fundamental constants, the framework seeks to recover particle-like structure from the same geometric substrate already proposed in SST. Also included is a supplementary validation appendix presenting a zero-parameter classification of nuclear stability from FCC lattice topology. Using coupling thresholds, topological support, and closure rules derived from the UPF closure engine, the appendix tests 63 nuclei and reports 59/63 strict binary matches (93.7%), with the remaining cases identified as structurally fragile, weakly bound systems. Under a refined structural interpretation, the framework reports 63/63 structural consistency. Key quantitative results include the derivation of the proton-neutron gravitational projection ratio K_h/K_n = 1.01145 from schedule enumeration, matching the empirical value to 0.003% with zero free parameters; reduction of the isotope bridge equation from four empirical constants to one through overlap topology, with validation across 85 isotopes at RMS 0.082%; and a photon-sphere prediction b = e·r_s matching the M87* ring diameter to 0.4%. Together, these documents present UPF as a step from a geometric theory of space and field propagation toward a microscopic, pattern-based account of matter, offering explicit derivations, falsifiable claims, and an initial validation pathway linking lattice topology to observed nuclear structure. This record is intended for readers interested in discrete-lattice physics, emergent particle ontology, nuclear topology, and alternative unification frameworks grounded in geometric dynamics. Companion paper: Structured Space Theory (SST) — DOI: 10.5281/zenodo.18787608