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Impact of solar storms on high altitude long endurance unmanned aircraft and airship design and operations

Published online by Cambridge University Press:  03 February 2016

L. R. Newcome
L. R. Newcome*
Affiliation:
SRA Adroit Center, Alexandria, VA, USA
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Abstract

This paper applies existing information on solar storms to unmanned aviation; no new research data is presented. The purpose of this paper is to alert the unmanned aviation community to the potential hazards posed by solar storms, to familiarise it with the effects of solar storms and how to mitigate them, and to encourage research on solar storm effects on high altitude long endurance (HALE) aircraft and airship design and operations. As unmanned aircraft and airships move increasingly into high altitude (50,000+ft), endurance (24+ hr) roles, they will become vulnerable to the effects of space weather, specifically that of solar storms. Although solar storms are commonly associated with their impact on satellites, they affect the routing and timing of airline flights flying for six to eight hours at 30,000 to 40,000ft. Operating twice as high and with flight times twice as long (or longer) than those of airliners, HALE aircraft and airships occupy a middle zone of vulnerability, being more so than airliners but less so than satellites. A key difference however is that satellites are designed for space weather, whereas some current HALE vehicles are not. The paper concludes that unmanned HALE aircraft and airships can be one to three orders of magnitude more vulnerable to solar storms than a trans-Pacific airliner.

Type
Research Article
Information
The Aeronautical Journal , Volume 110 , Issue 1111 , September 2006 , pp. 623 - 626
Copyright
Copyright © Royal Aeronautical Society 2006 

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References

1. Bowen, I.S., Millikan, R.A. and Neher, H.V. New light on the nature and origin of the incoming cosmic rays, Physical Review, June 1938, 53, pp 855–861.Google Scholar
2. Dyer, C.S. Radiation Effects on Spacecraft & Aircraft, 2001, QinetiQ.Google Scholar
3. Dyer, C.S. and Rodgers, D. Effects on Spacecraft & Aircraft Electronics, 1998, DERA.Google Scholar
4. Dyer, C.S. and Truscott, P.R. Cosmic radiation effects on avionics, Microprocessors and Microsystems, 1999, 22, pp 477–83.Google Scholar
5. Lai, A. Mitigating techniques for electronics in single event upset environments, Military Embedded Systems, January 2006.Google Scholar
6. Lim, M.K. Cosmic rays: are air crew at risk? Occupational and Environmental Medicine, 2002, 59, pp 428–432.Google Scholar
7. Newell, H.E. Beyond the Atmosphere: Early Years of Space Science, 1980, NASA, Washington, DC.Google Scholar
8. Suplee, C. A stormy star, National Geographic Magazine, July 2004, 206, (1), pp 2–33.Google Scholar