Everything Fuzzy_From Atoms to Gravity Memory - Version 2.0

“Everything Fuzzy_From Atoms to Gravity Memory” presents three complementary experimental blueprints that harness controllable wave-packet delocalization—“fuzziness”—to probe novel collapse-gate physics. First, a cold-atom fountain interferometer uses adjustable optical-lattice depth to sweep atomic motional widths and detect any residual phase shifts attributable to a hypothesized gravitational-memory channel. Second, two spatially separated lattice-trapped atoms each interrogate one half of an entangled photon pair; deviations from factorized decoherence reveal nonlocal memory effects via entanglement monogamy. Finally, we introduce a speculative architecture in which logical states are encoded in narrow versus broad wave-packets, enabling “in-mode” quantum logic that sidesteps electronic feed-forward. Together these testbeds offer a clear pathway from tabletop cold-atom and photonic platforms to quantitative bounds—or potential discovery—of gravity-mediated collapse dynamics.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-08-04
DOI
https://doi.org/10.5281/zenodo.16740062
Primary Topic
Quantum Mechanics and Applications
Type
article
Field-Weighted Citation Impact
0.00
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article

Everything Fuzzy_From Atoms to Gravity Memory - Version 2.0

Zenodo (CERN European Organization for Nuclear Research)
Quantum Mechanics and Applications
article

Everything Fuzzy_From Atoms to Gravity Memory - Version 2.0

article en

Abstract

“Everything Fuzzy_From Atoms to Gravity Memory” presents three complementary experimental blueprints that harness controllable wave-packet delocalization—“fuzziness”—to probe novel collapse-gate physics. First, a cold-atom fountain interferometer uses adjustable optical-lattice depth to sweep atomic motional widths and detect any residual phase shifts attributable to a hypothesized gravitational-memory channel. Second, two spatially separated lattice-trapped atoms each interrogate one half of an entangled photon pair; deviations from factorized decoherence reveal nonlocal memory effects via entanglement monogamy. Finally, we introduce a speculative architecture in which logical states are encoded in narrow versus broad wave-packets, enabling “in-mode” quantum logic that sidesteps electronic feed-forward. Together these testbeds offer a clear pathway from tabletop cold-atom and photonic platforms to quantitative bounds—or potential discovery—of gravity-mediated collapse dynamics.

Zenodo (CERN European Organization for Nuclear Research)
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Quantum Mechanics and Applications
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