Helix–Light–Vortex Meta-Simulation Protocol: A Modular One-Click Colab and Machine-Readable Contract for Claim-Conditioned, Sector-Specific HLV Simulations

A physical framework spanning cosmology, particle physics, gravitation, open quantum systems, condensed matter, robotics, and neurotechnology cannot be tested rigorously through a single universal numerical model. These sectors require different state spaces, units, established baselines, solvers, datasets, observational interfaces, and exclusion constraints. This release therefore introduces the Helix–Light–Vortex (HLV) Meta-Simulation Protocol: a modular scientific governance and orchestration framework for constructing claim-conditioned, sector-specific HLV simulations. The package combines a frozen machine-readable HLV core registry, a formal sector-module interface, a one-click Google Colab notebook, schema and scientific-rule validation, canonical parameter-lock generation, SHA-256 provenance records, matched-null requirements, claim-specific verdict semantics, and an AI context bundle that explicitly prohibits the invention of missing equations, units, parameters, bridge maps, or physical evidence. The meta layer stores stable definitions, typed operator roles, parameter classes, mathematical recovery contracts, evidence-status labels, prohibited inferences, and falsification requirements. A later sector module must independently provide the actual equations of motion, dimensional calibration, initial and boundary conditions, data partitions, parameter sources, established baseline, matched generic null models, metrics, gates, executable code, and observational bridge for the selected domain. The protocol distinguishes five evidence levels: mathematical and implementation consistency, predictive or engineering utility, HLV-specific organization beyond matched alternatives, golden-factor specificity, and a physical bridge to independently measured external data. Results are therefore reported as claim-limited PASS, BLOCKED, INVALID, NOT-TESTED, or DESIGN-BLOCKED verdicts rather than as an undifferentiated confirmation of HLV. The framework preserves supported finite-carrier and identity-centered recovery results while retaining important negative boundaries: unrenormalized additive non-recovery, generic nesting of common first-order memory laws, and the absence of established physical golden-ratio specificity, a unique universal U3 equation, or a validated native physical carrier. This package is not a universal simulator and does not by itself establish HLV as a fundamental theory. It is a reproducible interface through which future human or AI investigators can design fair, auditable, externally anchored, sector-specific tests without post-hoc parameter invention, weak comparator selection, or claim inflation.