Constraints on Spatially Oscillating Sub-mm Forces from the Stanford Levitated Microsphere Experiment Data
arXiv:1708.02117 · doi:10.1103/PhysRevD.96.104002
Abstract
A recent analysis by one of the authors\cite{Perivolaropoulos:2016ucs} has indicated the presence of a signal of spatially oscillating new force residuals in the torsion balance data of the Washington experiment. We extend that study and analyse the data of the Stanford Optically Levitated Microsphere Experiment (SOLME) \cite{Rider:2016xaq} (kindly provided by the authors of \cite{Rider:2016xaq}) searching for sub-mm spatially oscillating new force signals. We find a statistically significant oscillating signal for a force residual of the form where is the distance between the macroscopic interacting masses (levitated microsphere and cantilever). The best fit parameter values are , . Monte Carlo simulation of the SOLME data under the assumption of zero force residuals has indicated that the statistical significance of this signal is at about level. Private communication with members of the SOLME group has indicated that this previously unnoticed signal is most probably due to a systematic effect (diffraction of non-Gaussian tails of the laser beam). Thus it can only be useful as an upper bound of the amplitude of new spatially oscillating forces on sub-mm scales. Assuming gravitational origin emerging from a fundamental modification of the Newtonian potential of the form , we evaluate the source integral and obtain a bound for . Thus, we get no useful constraints on the modified gravity parameter . However, the constraints on the general phenomenological parameter can be useful in constraining other fifth force models related to dark energy (chameleon oscillating potentials etc).
15 pages, 12 Figures. References added/updated. The Mathematica files used for the numerical analysis and the production of the figures may be downloaded from http://leandros.physics.uoi.gr/solme/
References in corpus (26)
- Tests of the Gravitational Inverse-Square Law below the Dark-Energy Length Scale
- Millikelvin cooling of an optically trapped microsphere in vacuum
- Particle Physics Implications of a Recent Test of the Gravitational Inverse Square Law
- f(R) Gravity and Chameleon Theories
- Testing General Relativity with stellar orbits around the supermassive black hole in our Galactic center
- Cosmological perturbations and structure formation in nonlocal infrared modifications of general relativity
- Improved constraints on non-Newtonian forces at 10 microns
- Strongly Coupled Chameleon Fields: New Horizons in Scalar Field Theory
- Search for Millicharged Particles Using Optically Levitated Microspheres
- Probing Dark Energy with Atom Interferometry
- A Compendium of Chameleon Constraints
- Invariant quantities in the scalar-tensor theories of gravitation
- Generalised Quadratic Curvature, Non-Local Infrared Modifications of Gravity and Newtonian Potentials
- Non-local gravity and comparison with observational datasets
- On the cancellation of Newtonian singularities in higher-derivative gravity
- Chameleon dark energy models with characteristic signatures
- A general solution in the Newtonian limit of f(R)- gravity
- Brane world corrections to Newton's law
- Stability of Schwarzschild singularity in non-local gravity
- Atomic Interferometry Test of Dark Energy
- Ghost and singularity free theories of gravity
- Brane worlds in gravity with auxiliary fields
- Quantum Gravity inspired nonlocal gravity model
- Newtonian Potential and Geodesic Completeness in Infinite Derivative Gravity
- Is there a connection between "dark" and "light" physics?
- Micro-orbits in a many-branes model and deviations from Newton's law
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