Measuring the Casimir Force with a Commercial MEMS Accelerometer
POSTER
Abstract
The Casimir Effect is a physical manifestation of quantum fluctuations of the electromagnetic vacuum. When two metal plates are placed closely together, typically much less than a micron, the long wavelength modes between them are frozen out, giving rise to a net attractive force between the plates, scaling as d^-4 (or d^-3 for a spherical-planar geometry) even when they are not electrically charged. In this work we show that by modifying a post-release MEMS accelerometer, similar to the one in your phone, we can actually measure this effect in ambient conditions. This device is a step towards leveraging the Casimir Effect for cheap, sensitive, room temperature quantum metrology.
*This work is funded by the National Science Foundation grant no. 1708283, the Engineering Research Centers Program of the National Science Foundation through NSF (11) (12) 16 Cooperative Agreement under Grant EEC-0812056, Grant EEC-1647837, and Grant ECCS-1708283, and the DARPA Atoms to Product (A2P) Program/Air Force Research Laboratory (AFRL) contract no. FA8650-15-C-7545.
Presenters
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Alex Stange
- Boston University