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Non-markovian quantum dynamics

Authors: DESVAUX, G. J. Y.; Hope 'n Mind;

Non-markovian quantum dynamics

Abstract

" Non-Markovian Quantum Dynamics " A Complete and Falsifiable Framework Beyond the Lindblad Structural Assumption Author: G.J.Y. DESVAUX - Hope 'n Mind SASU - ResearchORCID: 0009-0008-9813-4627A continuation work of: https://zenodo.org/records/19010313 & https://zenodo.org/records/19102132 Abstract We present a complete re-derivation of non-Markovian open quantum system dynamics. This work introduces and rigorously formalizes the "Lindblad Trap": the methodological error of presupposing GKSL dissipator structure inside a memory integral, which structurally fails in the non-Markovian regime. By deriving the memory superoperator directly from the microscopic Hamiltonian without postulating Lindblad form at any time slice we establish a general framework that yields the GKSL generator strictly as a Markov-limit corollary.This deposit provides the theoretical foundation for: exact integro-differential master equations, CP-divisibility conditions via Stinespring construction, a faithful geometric measure of non-Markovianity, and an exact kernel-level criterion for pure dephasing (non-perturbative). To ensure absolute scientific rigor, every theoretical claim carries either a rigorous proof or an explicit [UNDERIVABLE] flag. The formalism is extended to N-body ensembles sharing a common bath, predicting collective memory effects and bath-mediated entanglement with no analogue in instantaneous Lindblad collective decay. The 85/15 Falsifiability Breakdown True to the principle of Popperian falsifiability, this framework is dissected into what can be independently verified without a laboratory (85%), and what strictly requires experimental quantum hardware (15%). 🟢 85% Theoretical & Computational Falsifiability (Requires only math & standard compute) This portion of the work is fully exposed in the public deposit. It can be falsified, replicated, or refuted by any mathematician or theoretical physicist with access to standard computing resources: Logical Consistency: Verification of all proofs and the explicit identification of 6 conceptual pitfalls (Appendix A). The "Underivable" Flags: Testing our claims that Super-Carnot efficiency and quantum gravity connections cannot be derived from this framework. Numerical Replication (H1–H6): 15,000 Monte-Carlo simulations of the spin-boson model. Algorithms, parameters, and expected thresholds are provided for independent replication. The Non-Lindblad Kernel Structure (H6): A mathematical prediction that reconstructed memory superoperators cannot be mapped to GKSL generators a tautological impossibility in standard frameworks, but a testable prediction here. 🔴 15% Experimental Falsifiability (Requires Lab Access) Hypotheses H7 through H10 require access to quantum hardware (IBM/Google superconducting qubits, IonQ trapped ions, or NV centers). Complete experimental protocols, including SNR thresholds, bootstrap confidence intervals, and decision rules, are detailed in the public framework: H7: Detection of eternal non-Markovian channels missed by standard BLP measures. H8: Collective memory enhancement in 5-qubit common-bath setups. H9: Bath-mediated entanglement generation (vs. Markovian control). H10: Noise spectroscopy predicting non-Markovianity. Practical Verification: The MAXENT-Kernel Tool To prevent the scientific community from wasting computational resources on "Lindblad-Trap" simulations which assume structural forms that are fundamentally broken in the non-Markovian regime we have developed and released an open-source verification tool. 🔗 Tool Repository: MAXENT-Kernel on GitHub 🔗 Tool DOI: 10.5281/zenodo.19500872 What this tool does: It allows researchers to partially bypass the need for massive, expensive computational clusters to test non-Markovian kernel structures. By using Maximum Entropy (MAXENT) reconstructions, one can verify the existence of non-Lindblad memory structures from accessible data (e.g., noise spectroscopy) without running full, flawed Markovian approximations. How it relates to this deposit: The MAXENT-Kernel tool is the practical implementation of the theoretical framework presented in this deposit (specifically bridging H10 and the kernel-level criteria). The code is open and free to use for basic verification. However, the rigorous mathematical proofs of why this method converges, the exact derivation of the error bounds, and the theoretical justifications of the kernel mappings are contained in the restricted calculations of this current deposit. Intellectual Property & Access Rights The theoretical framework, falsification protocols, and conceptual mappings (the 85%) are released to the scientific community to ensure transparency and allow for refutation or validation. However, the explicit mathematical derivations of the exact memory superoperators, the complete computational algorithms solving the NZ kernel equations, and the closed-form expressions of the criteria constitute protected intellectual property of Hope 'n Mind SASU, developed outside the academic framework.t. 📝 NDA Required: To access the restricted calculations, interested parties (academic or private) must download, sign, and return the NDA_Hope_n_Mind.pdf included in this deposit. ⚖️ Academic vs. Commercial Boundary: The License_Academic_vs_Commercial_Boundaries.pdf file explicitly defines where academic research rights end and commercial exploitation rights begin. Reading the framework is free; using the derived kernels requires a specific agreement. Keywords Non-Markovianity Memory Kernel Open Quantum Systems Lindblad Trap CP-divisibility Falsifiability Quantum Error Correction Quantum Metrology Call to the Scientific Community "Am not a believer, just need to know."We formalize for others not because we believe we are right, but because we want to know and knowing requires that others can verify, replicate, or refute. If you have access to quantum hardware and wish to test H7-H10, or if you are a mathematical physicist aiming to solve the general kernel-level criterion open problem, please initiate contact through the proper NDA channel provided in the deposit files. Files in this Deposit Non-Markovian Quantum Dynamics.pdf Theoretical Framework & Falsification Protocols NDA_Hope_n_Mind.pdf Non-Disclosure Agreement to request access to full calculations (To be signed and returned) License_Academic_vs_Commercial.pdf Exact delineation of usage rights******************************************************************************************************* NON-DISCLOSURE AGREEMENT Academic Collaboration Disclosing Party Receiving Party Legal Name: Hope 'n Mind SASU Name: Representative: Guillaume Desvaux Title / Position: Role: President-Founder Institution / Affiliation: Registration: RCS Brest, SIREN 938 261 310 Institutional Address: Address: 10 Rue Amiral Vallon, 29200 Brest, France Contact Information: This Non-Disclosure Agreement (the “Agreement”) is effective as of the date of the last signature below. 1. Purpose The Receiving Party is being provided with certain Confidential Information solely for the following purpose: Permitted Purpose: Any use of the Confidential Information outside the Permitted Purpose is strictly prohibited unless the Disclosing Party gives prior written consent. 2. Confidential Information “Confidential Information” means any non-public information disclosed by the Disclosing Party to the Receiving Party, whether in oral, written, electronic, visual, or any other form, including but not limited to: data, materials, know-how, trade secrets, source code, technical specifications, research results, business plans, financial data, client lists, and proprietary methods; information marked as confidential; oral disclosures identified as confidential at the time of disclosure and confirmed in writing within five business days. Confidential Information does not include information that: becomes publicly available through no breach of this Agreement; was already lawfully known to the Receiving Party before disclosure, as shown by written records; is independently developed without reference to the Confidential Information; is lawfully received from a third party without restriction. 3. Receiving Party Obligations The Receiving Party shall: keep all Confidential Information strictly confidential; not disclose it to any third party without prior written consent; use it only for the Permitted Purpose; protect it with at least the same degree of care used for its own confidential information, and never less than reasonable care; restrict access to personnel who need to know for the Permitted Purpose; apply appropriate physical and digital security measures, including passwords and encryption where appropriate; require any employee, contractor, or affiliate with access to be bound by confidentiality obligations at least as protective as this Agreement. 4. Prohibited Conduct The Receiving Party shall not: decompile, disassemble, or reverse engineer any source code, algorithm, product, or process; attempt to derive underlying ideas, structure, composition, or technical principles; use the Confidential Information to compete with, bypass, or unfairly benefit from the Disclosing Party; disclose the Confidential Information to any person who is not authorized under this Agreement. 5. Legal Disclosure If disclosure is required by law, court order, or competent governmental authority, the Receiving Party may disclose only the minimum required information, provided that it notifies the Disclosing Party within 48 hours, unless prohibited by law. 6. Breach Notification The Receiving Party shall notify the Disclosing Party immediately, and in any event within 48 hours, after becoming aware of any unauthorized use, access, or disclosure of the Confidential Information, and shall cooperate fully in any remedial action or legal proceeding. 7. Term The confidentiality obligations under this Agreement shall continue for five years from the Effective Date. If any Confidential Information qualifies as a trade secret under applicable law, protection shall continue for as long as that information remains a trade secret. 8. Return or Destruction Upon written request by the Disclosing Party, or immediately upon termination of the Permitted Purpose, the Receiving Party shall: return all materials containing Confidential Information; destroy all copies, notes, extracts, and derivative materials; certify in writing within thirty days that the destruction has been completed, except for one retained legal archive copy if required by law. 9. No License No license or other rights are granted under this Agreement, except the limited right to use the Confidential Information for the Permitted Purpose. All intellectual property rights remain the exclusive property of the Disclosing Party. 10. Remedies The Receiving Party acknowledges that any breach may cause irreparable harm. The Disclosing Party shall be entitled to seek: injunctive relief; monetary damages; consequential losses, where permitted by law; recovery of legal costs and attorney fees, where permitted by law; any other remedy available under applicable law. 11. Academic Collaboration The Receiving Party may publish independent research results only if such publication does not disclose Confidential Information. Before publication, the Receiving Party shall provide the Disclosing Party with a 60-day review period to identify sensitive information or potential patent issues. If applicable, published results shall acknowledge the Disclosing Party’s contribution, subject to the Disclosing Party’s prior written approval of any wording that refers to its Confidential Information. 12. Multi-Party Work If this collaboration involves more than two parties, each party shall ensure that any person or entity under its control who receives Confidential Information is bound by obligations consistent with this Agreement. Each party remains fully responsible for compliance by its employees, contractors, and affiliates. 13. Data Protection If Confidential Information includes personal data, the Receiving Party shall comply with the GDPR and any other applicable data protection laws, and shall execute any required data processing documentation. 14. Governing Law and Jurisdiction This Agreement shall be governed by and construed in accordance with French law. Any dispute arising out of or in connection with this Agreement shall be subject to the exclusive jurisdiction of the Commercial Court of Brest, France. For international disputes, the parties may mutually agree in writing to ICC arbitration. 15. Miscellaneous This Agreement constitutes the entire agreement between the parties regarding its subject matter. Any amendment must be in writing and signed by both parties. If any provision is held invalid or unenforceable, the remaining provisions shall remain in full force and effect. No waiver shall be valid unless in writing. The existence and terms of this Agreement shall remain confidential, except where disclosure is required by law. Disclosing Party Receiving Party Hope 'n Mind SASU By: Guillaume Desvaux By: Title: President-Founder Title: Date: Date: Signature: Signature: Acknowledgment Both parties confirm that they have read, understood, and agree to this Agreement. Each party acknowledges that it has had the opportunity to seek independent legal advice. Done in duplicate, one copy for each party.

Keywords

Quantum decoherence, Open, 1, Non‑Markovianity measures, Numerical quantum simulation, Non-Markovianity, Time‑nonlocal evolution, Power‑law memory, Quantum dynamical maps, measure, Complete positivity, Non-Markovian, Open quantum systems, quantum, CP-divisibility, Falsifiability, Nakajima-Zwanzig equation, Memory, Lindblad, Non‑Markovian quantum dynamics, Kraus representation, f noise, Geometric, Memory kernels, Exponential and oscillatory kernels, Runge-Kutta, Generalized master equation, kernel, Nakajima-Zwanzig, Non‑ergodic processes, systems, Nakajima–Zwanzig equation

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selected citations
These citations are derived from selected sources.
This is an alternative to the "Influence" indicator, which also reflects the overall/total impact of an article in the research community at large, based on the underlying citation network (diachronically).
BIP!Citations provided by BIP!
popularity
This indicator reflects the "current" impact/attention (the "hype") of an article in the research community at large, based on the underlying citation network.
BIP!Popularity provided by BIP!
influence
This indicator reflects the overall/total impact of an article in the research community at large, based on the underlying citation network (diachronically).
BIP!Influence provided by BIP!
impulse
This indicator reflects the initial momentum of an article directly after its publication, based on the underlying citation network.
BIP!Impulse provided by BIP!
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