mirror of
https://github.com/lux-apps/papers.git
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zeekayandHanzo Dev
178febad68
Every rendered "T-Chain" / "ThresholdVM" / "teleportvm" reference across the paper corpus is rewritten to the correct canonical chain by concern: threshold signing / MPC / bridge custody / key recovery -> M-Chain (MVM); FHE / encrypted compute / threshold decryption -> F-Chain (FVM); teleport / cross-chain messaging -> B-Chain (bridgevm); consensus Pulsar stays Q-Chain. Section lux-trust-kernel/03-t-chain-threshold-governance.tex renamed -> 03-f-chain-encrypted-policy.tex (with \input + xref fixes). Braided "T-Chain" sections split by concern (M vs F). Only lp-020's chain-separation rationale and the shared lux/chains/thresholdvm library path retain the name, to record the removal. All changed papers rebuilt (pdflatex, rc=0, no undefined refs). ยง09 of lux-dao-governance-framework reframed: fabricated "production deployment" metrics ($50M/$240k/$12M, survey %s, "as of Oct 2024") relabeled as illustrative design configurations with no invented replacements; reality noted (DAO treasury is a 1/1 Safe); conclusion echo + one "first production" overclaim softened. This commit also captures concurrent corpus workstreams on the same tree. Co-authored-by: Hanzo Dev <[email protected]>
79 lines
2.7 KiB
TeX
79 lines
2.7 KiB
TeX
\section{Conclusion}
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The design combines lattice-based threshold cryptography, TFHE-backed
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homomorphic CRDT merge, non-custodial MPC wallets (CGGMP21 + FROST),
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and three-mode regulatory disclosure. Every component is anchored in
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Lux production code --- \texttt{luxfi/fhe}, \texttt{luxfi/lattice},
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\texttt{luxfi/mpc}, \texttt{luxfi/age}, \texttt{luxfi/standard} --- with
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formal verification artefacts in \texttt{luxfi/proofs}.
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\bibliographystyle{plain}
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\begin{thebibliography}{99}
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\bibitem{shor1999}
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P.~W.~Shor, ``Polynomial-time algorithms for prime factorization and
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discrete logarithms on a quantum computer,'' \textit{SIAM Review},
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vol.~41, no.~2, pp.~303--332, 1999.
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\bibitem{nist-pqc}
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NIST, ``Post-Quantum Cryptography Standardization,''
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\url{https://csrc.nist.gov/projects/post-quantum-cryptography}, 2024.
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\bibitem{nist-pqc-report}
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NIST, ``Status Report on the Third Round of the NIST Post-Quantum
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Cryptography Standardization Process,'' NISTIR~8413, 2022.
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\bibitem{cggmp21}
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R.~Canetti, R.~Gennaro, S.~Goldfeder, N.~Makriyannis, and U.~Peled,
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``UC Non-Interactive, Proactive, Threshold ECDSA with Identifiable
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Aborts,'' IACR ePrint 2021/060, 2021.
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\bibitem{regev2005}
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O.~Regev, ``On lattices, learning with errors, random linear codes,
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and cryptography,'' \textit{STOC}, pp.~84--93, 2005.
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\bibitem{gentry2009}
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C.~Gentry, ``A fully homomorphic encryption scheme,'' Ph.D.\
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dissertation, Stanford University, 2009.
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\bibitem{lamport1979}
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L.~Lamport, ``Constructing digital signatures from a one-way
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function,'' Technical Report SRI-CSL-98, 1979.
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\bibitem{rfc3526}
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T.~Kivinen and M.~Kojo, ``More Modular Exponential (MODP)
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Diffie-Hellman groups for Internet Key Exchange (IKE),'' RFC~3526,
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2003.
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\bibitem{ajtai1996}
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M.~Ajtai, ``Generating hard instances of lattice problems (extended
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abstract),'' \textit{STOC}, pp.~99--108, 1996.
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\bibitem{micciancio-regev}
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D.~Micciancio and O.~Regev, ``Lattice-based cryptography,'' in
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\textit{Post-Quantum Cryptography}, Springer, pp.~147--191, 2009.
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\bibitem{lpr2013}
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V.~Lyubashevsky, C.~Peikert, and O.~Regev, ``On ideal lattices and
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learning with errors over rings,'' \textit{Journal of the ACM},
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vol.~60, no.~6, 2013.
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\bibitem{gsw2013}
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C.~Gentry, A.~Sahai, and B.~Waters, ``Homomorphic encryption from
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learning with errors: Conceptually-simpler, asymptotically-faster,
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attribute-based,'' \textit{CRYPTO}, 2013.
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\bibitem{sphincs-plus}
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D.~J.~Bernstein, A.~H\"{u}lsing, S.~K\"{o}lbl, R.~Niederhagen,
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J.~Rijneveld, and P.~Schwabe, ``The SPHINCS+ Signature Framework,''
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\textit{ACM CCS}, 2019.
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\bibitem{tfhe2016}
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I.~Chillotti, N.~Gama, M.~Georgieva, and M.~Izabach\`{e}ne, ``Faster
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Fully Homomorphic Encryption: Bootstrapping in less than 0.1
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Seconds,'' \textit{ASIACRYPT}, 2016.
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\end{thebibliography}
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