Lasers for Satellite Uplinks and Downlinks
Abstract
The use of Light Amplification by Stimulated Emission of Radiation (i.e., LASERs or lasers)
by the U.S. Department of Defense is not new and includes laser weapons guidance, laser-aided
measurements, even lasers as weapons (e.g., Airborne Laser). Lasers in support of telecommunications
is also not new. The use of laser light in fiber optics shattered thoughts on communications bandwidth
and throughput. Even the use of lasers in space is no longer new. Lasers are being used for
satellite-to-satellite crosslinking. Laser communication can transmit orders-of-magnitude more
data using orders-of-magnitude less power and can do so with minimal risk of exposure to the
sending and receiving terminals. What is new is using lasers as the uplink and downlink between
the terrestrial segment and the space segment of satellite systems. More so, the use of lasers to
transmit and receive data between moving terrestrial segments (e.g., ships at sea, airplanes in
flight) and geosynchronous satellites is burgeoning. This manuscript examines the technological
maturation of employing lasers as the signal carrier for satellite communications linking terrestrial
and space systems. The purpose of the manuscript is to develop key performance parameters (KPPs) to inform
U.S. Department of Defense initial capabilities documents (ICDs) for near-future satellite acquisition and
development. By appreciating the history and technological challenges of employing lasers rather than
traditional radio frequency sources for satellite uplink and downlink signal carrier, this manuscript
recommends ways for the U.S. Department of Defense to employ lasers to transmit and receive high
bandwidth, large-throughput data from moving platforms that need to retain low probabilities of
detection, intercept, and exploitation (e.g., carrier battle group transiting to a hostile area of operations,
unmanned aerial vehicle collecting over adversary areas). The manuscript also intends to identify
commercial sector early-adopter fields and those fields likely to adapt to laser employment for
transmission and receipt.
Description
The article of record as published may be found at http://dx.doi.org/10.3390/sci2030071
Rights
This publication is a work of the U.S. Government as defined in Title 17, United States Code, Section 101. Copyright protection is not available for this work in the United StatesCollections
Related items
Showing items related by title, author, creator and subject.
-
Richard Hamming Award for Interdisciplinary Achievement, March 7, 2022
Gartner, Scott S. (Monterey, California, Naval Postgraduate School, 2022-03-07);Dr. Orescanin’s work on uncertainty quantification is the most promising path toward integration of new AI/ML synthetic products into the Fleet Numerical Meteorology and Oceanography Center (FNMOC) operations. He teamed ... -
Free Electron Laser material damage studies
McGinnis, Roger D.; Thomson, R. W.; Short, L. R.; Herbert, A.; Lampiris, D.; Christodoulou, A.; Colson, W. B.; Shinn, M. D.; Neil, G.; Benson, S.; Gubeli, J.; Evans, R.; Jordan, K. (Monterey, California. Naval Postgraduate School, 2000-11); NPS-PH-01-001Today's surface ships are faced with an increased vulnerability to anti-ship cruise missiles, due to a change from operating in open oceans to primarily operating in the world's littorals. One possible solution to counter ... -
The Mobile CubeSat Command and Control (MC3) Ground Station Network: An Overview and Look Ahead
Minelli, Giovanni; Magallanes, Lara; Weitz, Noah; Rigmaiden, David; Horning, James; Newman, James; Scott, Mark; Brady, Sean; Watkins, Chiffon; Christensen, Jacob; Buttars, Chad; Beus, Ryan; Oakden, Riley (AIAA/USU, 2019);The Mobile CubeSat Command and Control (MC3) ground station network is a Department of Defense (DoD)-led effort to build common-use infrastructure supporting communications and mission operations of small satellites for a ...