Toward Reconciliation of Quantum Fields and Relativity through Space Time Occupancy

Space Time Occupancy (STO) adopts geometric discrete time, continuous space, ubiquitous curvature and closed global energy conservation. Temporal bandwidth determines which spatial distinctions are resolved. We develop a common quantum and gravitational construction through ATCS, TTDL, TASL, curvonic reference maps and AxiomARC. The thermal Anglar fixes inverse temperature; explicit reference carriers preserve covariance under changes of units. The LT rotation-period quantity yields the HTF velocity 348.3165719654 in the declared chart. Equal allocation of binary information over three spatial degrees derives ln 2/3 and a 66.5844417251 K gap coordinate without water, gravity or pressure inputs. Fresh execution of the supplied Bloch, AME and metaplectic paths verifies finite quantum control, replay and tensor properties. A continuous-space embedding, autonomous energy-conservation theorem and constrained occupancy action supply explicit adopted model constructions. A selected horizon capacity state and weighted entropy response support a conditional semiclassical Einstein-equation closure. Fixed galaxy and nuclear comparisons and source-grouped CERN replay are retained with their observable definitions; historical energy-labelled CERN results are reclassified as pseudorapidity diagnostics. Prospective NMR, resonator and material-response protocols provide discriminating tests. The result is a connected mathematical and computational framework. Section 10 consolidates the physical identifications and empirical validations needed for a validated EFE–QFT reconciliation. Version 1.0 includes the paper and selected numerical supplement. CC BY-NC 4.0 applies within the scope stated in section F3 and the supplement README, subject to third-party terms and applicable law. Covered commercial uses require separate permission from OMporium LLC unless otherwise permitted by law. Private implementation source is excluded. Invited demonstrations: https://beta.omporium.biz (sign-in), https://beta.omporium.biz/labs/ (landing). Request individual limited-demo access at [email protected]. Access is manually approved. The demonstrations retain their stated scientific limitations.