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A Bundle Isomorphism Relating Complex Velocity to Quantum Fisher Operators
arXiv
Authors: Jorge Meza-Domínguez
Year
2026
Paper ID
48885
Status
Preprint
Abstract Read
~2 min
Abstract Words
145
Citations
N/A
Abstract
We show that averaging matter dynamics over stochastic gravitational fluctuations gives rise to a complex velocity field η_μ = π_μ - i u_μ living as a section of the pullback bundle E = π2*\(T*M\to \mathcal{C}\times M\). We prove that η_μ is isomorphic, via the Schrödinger representation, to the symmetric logarithmic derivative (SLD) operator L_μ on the Hilbert space mathcal{H}x = L2\(mathcal{C}\), up to a trace-zero projection. This isomorphism widetilde{mathcal{T}}:Γ\(E / sim\to Γmathcal{L}\) is a bundle isomorphism preserving the flat U(1) connection proved in cite{meza2026topological} and the quantum Fisher metric. The quantum Fisher information metric gμνFS is expressed directly in terms of η_μ as gμνFS = - frac{4m2}{hbar2}Relangle \(η_μ - langle η_μrangleη_ν - langle η_νrangle\rangle_{\mathcal{P}}\). The holonomy of η_μ is quantized, leading to topological phases observable in atom interferometry.
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- We show that averaging matter dynamics over stochastic gravitational fluctuations gives rise to a complex velocity field η_μ = π_μ - i u_μ living as a section of the pullback...
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