The UNIFIED HOLOGRAPHIC MASTER ACTION

The UNIFIED HOLOGRAPHIC MASTER ACTION Bridging Four-Dimensional Bulk Gravity, Three-Dimensional Cutoff Dynamics, and Non-Hermitian Quantum Evolution Dr. Theodor Heutschi Independent Researcher Research framework connected to dS₄/CFT₃ and non-Hermitian T T̄ flows Date: 9. November 2026 AbstractThis note constructs a unified variational framework linking four-dimensional bulk gravity to a three-dimensional cutoff theory, while treating non-Hermitian boundary evolution as a constrained quantum sector. The central object is a bulk-plus-boundary action with the Gibbons–Hawking–York term, local counterterms, matter fields, and a finite-cutoff boundary deformation by a quadratic stress-tensor operator. The radial Hamilton–Jacobi equation supplies the precise bridge between the bulk canonical momentum and the boundary stress tensor.The construction is deliberately conservative. A local gravitational action does not, by itself, prove the existence of a positive metric operator for a non-Hermitian boundary Hamiltonian, nor does it imply a universal numerical coefficient in a four-dimensional cosmological scaling law. Pseudo-Hermiticity, spectral reality, exceptional-point avoidance, and higher-derivative early-warning diagnostics are therefore stated as additional conditions on the quantum theory, not falsely presented as automatic Euler–Lagrange consequences. The result is a coherent master action and a derivation of its classical and boundary equations, together with a clear list of what remains model-dependent. 1. Scope, conventions, and logical statusWe work in four bulk dimensions with Lorentzian signature (−,+,+,+), and a timelike three-dimensional cutoff hypersurface Σ_c with induced metric γ_ij. The bulk Newton constant is G₄ and κ₄² ≡ 8πG₄. Coordinates have dimensions of length, ℏ = c = 1, and the action is dimensionless.[G₄] = L², [Λ₄] = L⁻², [Tᵢⱼ] = L⁻³, [TᵢⱼTᵢⱼ] = L⁻⁶. (1.1)Building upon the methodological groundwork and the 𝑇𝑇̅-deformation programme developed in earlier frameworks (Heutschi, 2026a,b), this note constructs a unified variational framework linking four-dimensional bulk gravity to a three-dimensional cutoff theory, while treating non-Hermitian boundary evolution as a constrained quantum sector.The phrase “T T̄-deformation” has a canonical meaning in two dimensions. In three dimensions there is no unique universally accepted determinant operator with all the special properties of the 2D T T̄ composite. We therefore define an explicit quadratic stress-tensor deformation and keep its normalization parameter free. This is essential for dimensional and mathematical honesty.Three levels of statements are distinguished throughout: (i) identities following from the displayed action and variational principle; (ii) conditional statements requiring a specified boundary quantum theory and spectrum; and (iii) phenomenological diagnostics that require numerical or experimental calibration. (...)

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-09
DOI
https://doi.org/10.5281/zenodo.24084255
Primary Topic
Black Holes and Theoretical Physics
Type
preprint
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preprint

The UNIFIED HOLOGRAPHIC MASTER ACTION

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

The UNIFIED HOLOGRAPHIC MASTER ACTION

Theodor Heutschi
preprint en

Abstract

The UNIFIED HOLOGRAPHIC MASTER ACTION Bridging Four-Dimensional Bulk Gravity, Three-Dimensional Cutoff Dynamics, and Non-Hermitian Quantum Evolution Dr. Theodor Heutschi Independent Researcher Research framework connected to dS₄/CFT₃ and non-Hermitian T T̄ flows Date: 9. November 2026 AbstractThis note constructs a unified variational framework linking four-dimensional bulk gravity to a three-dimensional cutoff theory, while treating non-Hermitian boundary evolution as a constrained quantum sector. The central object is a bulk-plus-boundary action with the Gibbons–Hawking–York term, local counterterms, matter fields, and a finite-cutoff boundary deformation by a quadratic stress-tensor operator. The radial Hamilton–Jacobi equation supplies the precise bridge between the bulk canonical momentum and the boundary stress tensor.The construction is deliberately conservative. A local gravitational action does not, by itself, prove the existence of a positive metric operator for a non-Hermitian boundary Hamiltonian, nor does it imply a universal numerical coefficient in a four-dimensional cosmological scaling law. Pseudo-Hermiticity, spectral reality, exceptional-point avoidance, and higher-derivative early-warning diagnostics are therefore stated as additional conditions on the quantum theory, not falsely presented as automatic Euler–Lagrange consequences. The result is a coherent master action and a derivation of its classical and boundary equations, together with a clear list of what remains model-dependent. 1. Scope, conventions, and logical statusWe work in four bulk dimensions with Lorentzian signature (−,+,+,+), and a timelike three-dimensional cutoff hypersurface Σ_c with induced metric γ_ij. The bulk Newton constant is G₄ and κ₄² ≡ 8πG₄. Coordinates have dimensions of length, ℏ = c = 1, and the action is dimensionless.[G₄] = L², [Λ₄] = L⁻², [Tᵢⱼ] = L⁻³, [TᵢⱼTᵢⱼ] = L⁻⁶. (1.1)Building upon the methodological groundwork and the 𝑇𝑇̅-deformation programme developed in earlier frameworks (Heutschi, 2026a,b), this note constructs a unified variational framework linking four-dimensional bulk gravity to a three-dimensional cutoff theory, while treating non-Hermitian boundary evolution as a constrained quantum sector.The phrase “T T̄-deformation” has a canonical meaning in two dimensions. In three dimensions there is no unique universally accepted determinant operator with all the special properties of the 2D T T̄ composite. We therefore define an explicit quadratic stress-tensor deformation and keep its normalization parameter free. This is essential for dimensional and mathematical honesty.Three levels of statements are distinguished throughout: (i) identities following from the displayed action and variational principle; (ii) conditional statements requiring a specified boundary quantum theory and spectrum; and (iii) phenomenological diagnostics that require numerical or experimental calibration. (...)

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