DESCRIPTION (ABSTRACT) Superluminal Localization Theory (SLT) proposes a deterministic framework governing the localization and decay of nonlocal correlations across quantum, collider-scale, and astrophysical regimes. This work establishes that SLT satisfies the criteria for approval-level scientific acceptance under the Geometric Causal Intelligence Protocol (GCIP). Acceptance is defined procedurally, not as terminal empirical proof, but as authorization for experimental prioritization and programmatic adoption pending direct measurement. The evaluation is based on a three-pillar falsification framework spanning independent physical domains: long-baseline Bell-correlation decorrelation, collider-scale echo phenomena, and pulsar timing residual coherence. Two pillars operate using fully public datasets and replayable analysis pipelines. The Bell-decorrelation pillar operates under a curated data-admissibility regime due to known adversarial and preprocessing sensitivities, and is supplemented by a cryptographic commitment scheme to ensure procedural integrity without intellectual property disclosure. This document consolidates explicit falsification boundaries, acceptance logic, auditability conditions, and intellectual property safeguards. It does not redefine or extend SLT, but serves as a procedural acceptance supplement to the original SLT prior-art record. Under GCIP, SLT is found to be structurally complete, explicitly falsifiable, adversarially robust, and not dominated by any superior admissible alternative across collider-scale, astrophysical, and long-baseline quantum regimes. RELATED IDENTIFIERS: This publication is simultaneously its own independent publication/DOI and a companion to (supplement to) publication "https://doi.org/10.5281/zenodo.18493402"
Jorge Vasconcelos (Sat,) studied this question.