Gravitational wave detection by bounded cold electronic plasma in a long pipe
arXiv:1310.3949 · doi:10.1007/s10773-009-0181-0
Abstract
We intend to propose an experimental sketch to detect gravitational waves (GW) directly, using an cold electronic plasma in a long pipe. By considering an cold electronic plasma in a long pipe, the Maxwell equations in 3+1 formalism will be invoked to relate gravitational waves to the perturbations of plasma particles. It will be shown that the impact of GW on cold electronic plasma causes disturbances on the paths of the electrons. Those electrons that absorb energy from GW will pass through the potential barrier at the end of the pipe. Therefore, crossing of some electrons over the barrier will imply the existence of the GW.
14 pages, 5 figures
References in corpus (8)
- A 3+1 perspective on null hypersurfaces and isolated horizons
- Electromagnetic fields in curved spacetimes
- The general relativistic MHD dynamo equation
- On inhomogeneous magnetic seed fields and gravitational waves within the MHD limit
- Search for quantum transducers between electromagnetic and gravitational radiation: A measurement of an upper limit on the transducer conversion efficiency of yttrium barium copper oxide
- Proposed observations of gravity waves from the early Universe via "Millikan oil drops"
- Indirect Visibility of Gravitational Waves in Magnetohydrodynamic Plasmas
- New directions for gravity-wave physics via "Millikan oil drops"