The Unified Holographic Master Action: Resolving Microscopic Unitarity, Quantum Chaos, and Emergent Spacetime in 𝑑𝑆4/𝐢𝐹𝑇3 via Non-Hermitian 𝑇𝑇̅-Flows

The Unified Holographic Master Action Resolving Microscopic Unitarity, Quantum Chaos, and Emergent Spacetime in 𝑑𝑆4/𝐢𝐹𝑇3 via Non-Hermitian 𝑇𝑇̅-Flows Dr. Theodor HeutschiIndependent Researcher, Lucerne, SwitzerlandDate: November 2026 AbstractA fundamental challenge in extending holographic principles to realistic de Sitter cosmologies (dSβ‚„, Ξ› > 0) is maintaining microscopic unitarity during the analytical continuation Ξ» ↦ -iπœ†π‘‘π‘† of T TΜ„-deformed boundary field theories, which yields a non-Hermitian Hamiltonian. In this paper, we analyze this problem within pseudo-Hermitian quantum mechanics, proving that the de Sitter Hamiltonian obeys a pseudo-PT symmetry, (PT) H (PT)⁻¹ = H†. We formulate precise conditions for unitarity: (C1) a positive-definite metric operator Ξ· = π‘’βˆ’π‘„; (C2) absence of exceptional points (EPβ‚‚); and (C3) temporal consistency. We verify hypothesis (C1) by explicitly constructing Ξ· in a solvable T TΜ„-deformed scalar oscillator. To operationalize (C2), we introduce a higher-order kinetic framework combining NLS smoothing with Jerk (dΒ³K/dtΒ³) and Snap (d⁴K/dt⁴ = 0) analyses. This pinpoints the operative Tipping Point at t_jerk = 3.033 ms, providing a universal dimensionless lead-time ratio π›₯π‘‘π‘ π‘Žπ‘“π‘’π‘”π‘’π‘Žπ‘Ÿπ‘‘ = (3/5)𝑑𝐸𝑃2 (+1.967 ms lead time) before eigenvector collapse. Furthermore, we construct the Unified Holographic Master Action (Section 4.1), unifying pseudo-Hermitian unitarity, quantum extremal surfaces, and emergent Einsteinian dynamics. This work provides a mathematically and numerically complete solution to all core open problems (O1, O2, O3).

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-07
DOI
https://doi.org/10.5281/zenodo.24044990
Primary Topic
Black Holes and Theoretical Physics
Type
preprint
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preprint

The Unified Holographic Master Action: Resolving Microscopic Unitarity, Quantum Chaos, and Emergent Spacetime in 𝑑𝑆4/𝐢𝐹𝑇3 via Non-Hermitian 𝑇𝑇̅-Flows

Theodor Heutschi
1 links
Zenodo (CERN European Organization for Nuclear Research)
Black Holes and Theoretical Physics
preprint

The Unified Holographic Master Action: Resolving Microscopic Unitarity, Quantum Chaos, and Emergent Spacetime in 𝑑𝑆4/𝐢𝐹𝑇3 via Non-Hermitian 𝑇𝑇̅-Flows

Theodor Heutschi
preprint en

Abstract

The Unified Holographic Master Action Resolving Microscopic Unitarity, Quantum Chaos, and Emergent Spacetime in 𝑑𝑆4/𝐢𝐹𝑇3 via Non-Hermitian 𝑇𝑇̅-Flows Dr. Theodor HeutschiIndependent Researcher, Lucerne, SwitzerlandDate: November 2026 AbstractA fundamental challenge in extending holographic principles to realistic de Sitter cosmologies (dSβ‚„, Ξ› > 0) is maintaining microscopic unitarity during the analytical continuation Ξ» ↦ -iπœ†π‘‘π‘† of T TΜ„-deformed boundary field theories, which yields a non-Hermitian Hamiltonian. In this paper, we analyze this problem within pseudo-Hermitian quantum mechanics, proving that the de Sitter Hamiltonian obeys a pseudo-PT symmetry, (PT) H (PT)⁻¹ = H†. We formulate precise conditions for unitarity: (C1) a positive-definite metric operator Ξ· = π‘’βˆ’π‘„; (C2) absence of exceptional points (EPβ‚‚); and (C3) temporal consistency. We verify hypothesis (C1) by explicitly constructing Ξ· in a solvable T TΜ„-deformed scalar oscillator. To operationalize (C2), we introduce a higher-order kinetic framework combining NLS smoothing with Jerk (dΒ³K/dtΒ³) and Snap (d⁴K/dt⁴ = 0) analyses. This pinpoints the operative Tipping Point at t_jerk = 3.033 ms, providing a universal dimensionless lead-time ratio π›₯π‘‘π‘ π‘Žπ‘“π‘’π‘”π‘’π‘Žπ‘Ÿπ‘‘ = (3/5)𝑑𝐸𝑃2 (+1.967 ms lead time) before eigenvector collapse. Furthermore, we construct the Unified Holographic Master Action (Section 4.1), unifying pseudo-Hermitian unitarity, quantum extremal surfaces, and emergent Einsteinian dynamics. This work provides a mathematically and numerically complete solution to all core open problems (O1, O2, O3).

Zenodo (CERN European Organization for Nuclear Research)
Black Holes and Theoretical Physics
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