How to cite Ansible
The Ansible whitepaper and accompanying software are released under open-access terms (MIT for code, CC BY 4.0 for text and figures). If you reference this work in a publication, talk, or thesis, the citations below are current.
@misc{ansible2026,
title = {Project Ansible: A Theoretical Framework for
Faster-Than-Light Communication via Orbital
Quantum Entanglement Relay Networks},
author = {{Project Ansible Collaboration}},
year = {2026},
version = {1.3},
howpublished = {\url{https://ansible-quantum.vercel.app/paper}},
note = {Open-access whitepaper and interactive simulator},
}Project Ansible Collaboration. (2026). Project Ansible: A theoretical framework for faster-than-light communication via orbital quantum entanglement relay networks (Version 1.3) [Whitepaper]. Retrieved from https://ansible-quantum.vercel.app/paper
Project Ansible Collaboration. "Project Ansible: A Theoretical Framework for Faster-Than-Light Communication via Orbital Quantum Entanglement Relay Networks." Version 1.3, 2026, https://ansible-quantum.vercel.app/paper.
Project Ansible Collaboration. 2026. "Project Ansible: A Theoretical Framework for Faster-Than-Light Communication via Orbital Quantum Entanglement Relay Networks." Version 1.3. https://ansible-quantum.vercel.app/paper.
Covariant Appendix and Geometric Bounds
Closes the remaining structural loopholes: an explicit Lorentz-covariant leading-order form of H_NL as a standalone appendix, and quantitative Casimir and long-baseline interferometer bounds folded into the precision-test landscape.
- Appendix A — Weak-field expansion of H_NL with a closed leading-order Hamiltonian density
- §11.4 — Casimir sub-micron force bound: λ_NL · f(F_vac) ≲ 10⁻³²
- §11.4 — LIGO/LISA long-baseline interferometer bound: λ_NL · f(F_arm) ≲ 10⁻³⁰
- Reference list expanded with Lamoreaux, Decca, Bressi, LIGO-O3 squeezed readout, and LISA consortium papers
Foundational Consistency Pass
Five new subsections addressing deeper reviewer concerns: higher-order unitarity of H_NL, tighter Bekenstein and GSL derivations, a direct technical reconciliation with the no-signaling theorem, quantum-gravity grounding of the two-tier causality picture, and the long-horizon research program framing.
- §2.6 — Hermiticity, ghost-absence, and RG stability of H_NL at higher orders
- §5.5 — Tight Bekenstein channel-capacity derivation and GSL with Ryu-Takayanagi cancellation
- §11.5 — No-signaling rebuttal on its own terms; FLASH-class distinction table
- §11.6 — Two-tier causality in AdS/CFT via ER=EPR and Gao-Jafferis-Wall traversability
- §12.2 — Three-pillar foundational research program: infrastructure, QM/gravity interface, theory
Peer-Review Hardening
Addressed external review with three substantive theoretical additions, strengthening the framework against Lorentz, precision, and roadmap critiques.
- §2.5 — Lorentz-covariant formulation of H_NL via bi-local currents
- §11.4 — Quantitative bounds on λ_NL from atomic clocks, neutrinos, LHC
- §6.4 — Mission-alignment roadmap (Micius, Eagle-1, DSOC, Starlink)
Initial Public Release
First complete Ansible framework published as an open-access whitepaper with interactive Mars communication simulator.
- 12 sections across quantum mechanics, holography, and orbital engineering
- Interactive Earth–Mars simulator with fidelity-threshold demonstration
- Repository, licensing, and contribution guidelines established
Draft Whitepaper
Internal draft exploring the non-local Hamiltonian hypothesis and preliminary orbital relay constraints. Preserved as historical reference.
- First formulation of fidelity-threshold activation
- Initial derivation of non-local coupling mechanism
- Preliminary orbital architecture sketches
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