Models of Exotic Interferometer Cross-Correlations in Emergent Space-Time
Craig Hogan, Ohkyung Kwon

TL;DR
This paper develops a Lorentz invariant model for cross-correlations in interferometers arising from emergent space-time, predicting an exotic imaginary cross spectrum linked to quantum entanglement of geometrical states.
Contribution
It introduces a novel Lorentz invariant framework for modeling interferometer cross spectra based on emergent space-time from quantum entanglement, with specific observable signatures.
Findings
Predicts an exotic imaginary broad band cross spectrum.
Links the frequency structure to interferometer layout.
Provides a theoretical basis for interpreting Holometer data.
Abstract
A Lorentz invariant framework is developed to model the cross spectrum of two interferometers in a space-time that emerges from a Planck scale quantum system with exact causal symmetry and holographic spacelike rotational correlations. Space-time relationships between world lines are generated by entanglement of geometrical states on causal diamonds. The entanglement is tied to a unique observable signature: an exotic imaginary broad band cross spectrum, with a frequency structure determined by the layout of the interferometers. The models will be used to interpret data from the reconfigured Fermilab Holometer, and for conceptual design of future experiments.
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