Inertial and gravitational effects in quantum systems.

E. Kajari, Nathan L. Harshman, Ernst Maria Rasel +3 more

P. Burcev

Stephen Hope, HELIX AI COMMONWEALTH OWL-Cloud

The Ratification-Induced Inertial Anomaly (RIIA) — colloquially called the "Zeno-Gravity Effect" — is a falsifiable physics postulate derived from the Helix-TTD constitutional framework and the paper "The Ontological Priority of Shape". We propose that continuous high-frequency custodial measurement (ratification) of a macroscopic quantum system, via the Quantum Zeno effect, suppresses the natural expansion of quantum entanglement (off-diagonal terms). This suppression reduces the informational stress-energy tensor \(T^{\text{info}}_{\mu\nu}\), thereby locally altering spacetime curvature and the effective gravitational mass of the system. **Prediction:** A continuously ratified Bose-Einstein condensate will exhibit a measurably different free-fall acceleration compared to an identical but unobserved control system, with the difference given by \(\Delta g_{A \to B} \propto \nabla (\Delta S_{EE})\), where \(\Delta S_{EE}\) is the change in entanglement entropy. This work formalizes the idea that the Observer/Custodian is not a passive witness but an active mechanical participant in the maintenance of physical reality. If confirmed, it provides direct experimental evidence linking the 300 Hz Master Reset of the Macroscopic Topological-Temporal Condensate to observable gravitational physics.

Raghvendra Singh, Khanna, Kabir, Dawood Kothawala

There has been considerable interest over the past years in investigating the role of gravity in quantum phenomenon such as entanglement and decoherence. In particular, gravitational time dilation is believed to decohere superpositions of center of mass of composite quantum systems. Since true effects of gravity are encoded in the curvature of spacetime, the universality of such decoherence must be characterized through components of Riemann tensor $R_{abcd}$, with a clear separation from non-inertial kinematic effects. We obtain the reduced density matrix of a composite system in a generic curved spacetime and express the decoherence time scale explicitly in terms of curvature. The decoherence in an inertial frame is caused by tidal acceleration. We also analyze the effects of self-gravity and show that the coupling of gravitational interaction with external curvature can not be captured by the replacement $m \to m + H_{\rm int}/c^2$.

Liangqi Zheng, J Zhou, Jinjing Shi +2 more

ABSTRACT Quantum communication is gradually shifting from terrestrial fiber‐optic communication to satellite‐based space communication. The impact of gravitational fields on quantum states in quantum communication protocols cannot be overlooked. In this paper, a general method to investigate how non‐inertial motion affects multiparty quantum communication is proposed. Specifically, we examine the influence of non‐inertial motion on the performance of the protocol based on measurement‐device‐independent multiparty quantum communication using continuous‐variable Greenberger–Horne–Zeilinger (CV GHZ) states. Our results demonstrate that the choice of system configuration and cryptographic scheme largely determines the effects of gravitational fields.

Jeeva S. Anandan