A large-scale magnetic shield with 10^6 damping at mHz frequencies
arXiv:1501.07861 · doi:10.1063/1.4919366
Abstract
We present a magnetically shielded environment with a damping factor larger than one million at the mHz frequency regime and an extremely low field and gradient over an extended volume. This extraordinary shielding performance represents an improvement of the state of the art in damping the difficult regime of very low-frequency distortions by more than an order of magnitude. This technology enables a new generation of high precision measurements in fundamental physics and metrology, including searches for new physics far beyond the reach of accelerator-based experiments. We discuss the technical realization of the shield with its improvements in design.
arXiv comment7 pages, 5 figures, 1 table
References in corpus (8)
- CPT Violation and the Standard Model
- An Improved Experimental Limit on the Electric Dipole Moment of the Neutron
- Electric Dipole Moments of Nucleons, Nuclei, and Atoms: The Standard Model and Beyond
- Constraints on Spin-Dependent Short-Range Interaction between Nucleons
- A magnetically shielded room with ultra low residual field and gradient
- Test of Lorentz invariance with spin precession of ultracold neutrons
- Minimizing magnetic fields for precision experiments
- Nonlinear magneto-optical rotation with modulated light in tilted magnetic fields
Cited by in corpus (12)
- Minimizing magnetic fields for precision experiments
- Optimal Inverse Design of Magnetic Field Profiles in a Magnetically Shielded Cylinder
- New high-sensitivity searches for neutrons converting into antineutrons and/or sterile neutrons at the European Spallation Source
- A New Cryogenic Apparatus to Search for the Neutron Electric Dipole Moment
- Field-deployable Quantum Memory for Quantum Networking
- Magnetic shielding and exotic spin-dependent interactions
- The `n2EDM MSR' -- a very large magnetically shielded room with an exceptional performance for fundamental physics measurements
- The PanEDM Neutron Electric Dipole Moment Experiment at the ILL
- A Highly Drift-stable Atomic Magnetometer for Fundamental Physics Experiments
- A magic magnetic field to measure the neutron electric dipole moment
- Magnetic field effects on the proton EDM in a continuous all-electric storage ring
- Casimir-Polder interaction of neutrons with metal or dielectric surfaces