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AbstractAbstract
[en] There are several networks of precision quantum sensors in existence, including networks of atomic clocks, magnetometers, and gravitational wave detectors. These networks can be re-purposed for searches of exotic physics, such as direct dark matter searches. Here we explore a detection strategy for macroscopic dark matter objects with such networks using the matched-filter technique. Such "clumpy" dark matter objects would register as transients sweeping through the network at galactic velocities. As a specific example, we consider a network of atomic clocks aboard the Global Positioning System (GPS) satellites. We apply the matched-filter technique to simulated GPS atomic clock data and study its utility and performance. The analysis and the developed methodology have a discovery reach up to three orders of magnitude above the previous GPS results and have a wide applicability to other networks of quantum sensors.
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Source
Available from: http://dx.doi.org/10.1140/epjqt/s40507-020-00081-9; AID: 5
Record Type
Journal Article
Journal
EPJ Quantum Technology; ISSN 2196-0763;
; v. 7(1); p. 1-33

Country of publication
ATOMIC CLOCKS, BLOCH WALL, COMPUTER NETWORKS, COUPLING CONSTANTS, DATA PROCESSING, ELECTRIC UTILITIES, GLOBAL POSITIONING SYSTEM, LAGRANGIAN FIELD THEORY, LEAST SQUARE FIT, NONLUMINOUS MATTER, PERFORMANCE, SCALAR FIELDS, SENSITIVITY, SENSORS, SIGNAL-TO-NOISE RATIO, SIMULATION, SPECTRAL SHIFT, TRANSIENTS
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