Lunar laser ranging in infrfared at hte Grasse laser station
arXiv:1704.06443 · doi:10.1051/0004-6361/201628590
Abstract
For many years, lunar laser ranging (LLR) observations using a green wavelength have suffered an inhomogeneity problem both temporally and spatially. This paper reports on the implementation of a new infrared detection at the Grasse LLR station and describes how infrared telemetry improves this situation. Our first results show that infrared detection permits us to densify the observations and allows measurements during the new and the full Moon periods. The link budget improvement leads to homogeneous telemetric measurements on each lunar retro-reflector. Finally, a surprising result is obtained on the Lunokhod 2 array which attains the same efficiency as Lunokhod 1 with an infrared laser link, although those two targets exhibit a differential efficiency of six with a green laser link.
References in corpus (7)
- Lunar Laser Ranging Tests of the Equivalence Principle
- Interferometer Techniques for Gravitational-Wave Detection
- Lunar laser ranging: the millimeter challenge
- Long-term degradation of optical devices on the moon
- Laser Ranging to the Lost Lunokhod~1 Reflector
- Lunar Eclipse Observations Reveal Anomalous Thermal Performance of Apollo Reflectors
- Laser Ranging for Gravitational, Lunar, and Planetary Science
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