Rotating frames from quantum deformed spacetime
Du\v{s}an {\DJ}or{\dj}evi\'c, Dragoljub Go\v{c}anin

TL;DR
This paper demonstrates that noncommutative geometry induces a rotation in spacetime frames, affecting charged matter dynamics, and suggests potential experimental tests via Sagnac interferometry to measure noncommutativity effects.
Contribution
It shows that spacetime noncommutativity can be interpreted as a transition to a rotating frame, providing a novel link between quantum spacetime structure and observable rotational effects.
Findings
Charged scalar and spinor equations mimic those in a rotating frame.
The rotation rate depends on the noncommutative scale and charge.
Potential experimental detection via Sagnac interferometry.
Abstract
In a sense of deformation quantization, noncommutative (NC) geometry introduces a quantum structure of spacetime. Using the twist-deformation formalism, we show that the dynamical effects of spacetime noncommutativity can amount to a transition to a rotating frame of reference. In particular, we study the dynamics of charged matter (scalars and spinors) on the background of Melvin's electric universe in the framework of NC gauge field theory. Melvin's electric/magnetic universe is a static, axially symmetric solution of the Einstein-Maxwell equations, representing a parallel bundle of self-gravitating electric/magnetic flux. Due to its axial symmetry, it allows for a very special kind of Killing twist that does not deform the metric itself but only the gauge field and the matter fields. Focusing on the perturbative NC equations of motion for charged scalars and Dirac spinors coupled to…
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Taxonomy
TopicsGeophysics and Sensor Technology
