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

This release presents a modular Helix–Light–Vortex (HLV) meta-simulation protocol rather than a monolithic cross-domain simulator. It combines a machine-readable core registry, a one-click Google Colab orchestrator, sector-module schemas, guarded execution, claim-conditioned evidence levels, matched-null requirements, external provenance locking, and an AI context bundle that prohibits invention of missing equations, units, parameters, bridge maps, or evidence. Version 1.1.0 adds a design-only condensed-matter benchmark profile based on the 2026 Nature Physics report of a light-induced Floquet topological state in SnTe. The published Floquet/DFT description is retained as the established baseline. The public experimental result is not treated as blinded confirmatory evidence, the external OLOS raw-data repository is referenced but not bundled, and the approximately 100 fs transient signal is treated as limited by the reported experimental time resolution rather than as evidence for a unique HLV memory channel. The protocol preserves both positive and negative scientific boundaries. It supports finite mathematical carrier implementation and identity-centered recovery contracts, while physical golden-ratio specificity, a unique universal U3 ontology, a validated native HLV carrier, and empirical validation of HLV remain unestablished. Sector-specific equations, dimensional bridges, parameter sources, data partitions, matched nulls, quantitative predictions, and security review must be supplied and frozen in later modules. Missing load-bearing physics returns DESIGN_BLOCKED rather than a guessed simulation. The package includes the manuscript, LaTeX source, one-click notebook, schemas, validation engine, AI handoff files, sector templates and design skeletons, a mathematical C0 carrier audit, the SnTe design audit, provenance records, release notes, licences, and SHA-256 manifests.