AwaitingLaunch_1397728623369
AwaitingLaunch_1397728623369
AwaitingLaunch_1397728623369
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ActaAstronauticaVol. 71, 2012, pp.119-128;<br />
FilippoGraziani et al., “A space standards application<br />
to university-class microsatellites: The UNISAT<br />
experience”, ActaAstronauticaVol. 66, No. 9-10, 2010,<br />
pp. 1534-1543; ShinchiNakasuka et al., “Evolution<br />
from education to practical use in University of<br />
Tokyo's nano-satellite activities”,<br />
ActaAstronauticaVo. 66, No. 7-8, 2010, pp.1099-<br />
1105; K. Thyagarajan et al., “University small satellite<br />
program-ANUSAT”, ActaAstronauticaVol. 56, No. 1-9,<br />
2005, pp.89-97.<br />
96. FilippoGraziani et al., “A space standards application<br />
to university-class microsatellites: The UNISAT<br />
experience”, ActaAstronauticaVol. 66, No. 9-10, 2010,<br />
pp. 1534-1543.<br />
97. Ibid.<br />
98. Shin-Ichiro Nishida and Satomi Kawamoto, “Strategy<br />
for capturing of a tumbling space debris”,<br />
ActaAstronautica Vol. 68, No. 1-2, 2011, pp. 113-120.;<br />
N.N. Smirnov et al., “Impact of debris particles on<br />
space structures modeling”, ActaAstronauticaVol. 67,<br />
No. 3-4, 2010, pp. 333-343.; R. Walker et al.,<br />
“Sensitivity of long-term orbital debris environment<br />
evolution to the deployment of nan-satellite<br />
swarms”, ActaAstronauticaVol. 51, No. 1-9, 2002,<br />
pp.439-449.<br />
99. N.N. Smirnov et al., “Impact of debris particles on<br />
space structures modeling”, ActaAstronauticaVol. 67,<br />
No. 3-4, 2010, pp. 333-343<br />
100. Marco M. Castronuovo, “Active space debris<br />
removal-A preliminary mission analysis and design”,<br />
ActaAstronauticaVol. 69, No. 9-10, 2011: 848-859.<br />
101. Ibid.; L.T. DeLuca et al., “Active space debris removal<br />
by a hybrid propulsion module”, ActaAstronautica<br />
Vol. 91, 2013, pp. 20-33; J.-C. Liou and Nicholas L.<br />
Johnson, “A sensitivity study of the effectiveness of<br />
active debris removal in LEO”, ActaAstronauticaVol.<br />
64, No. 2-3, 2009, pp.236-243; J.-C. Liou et al.,<br />
“Controlling the growth of future LEO debris<br />
populations with active debris removal”,<br />
ActaAstronauticaVol. 66, No. 5-6, 2010, pp.648-653.<br />
102. Shin-Ichiro Nishida and Satomi Kawamoto, “Strategy<br />
for capturing of a tumbling space debris”,<br />
ActaAstronautica Vol. 68, No. 1-2, 2011, pp. 113-120.<br />
103. FilippoGraziani et al., “A space standards application<br />
to university-class microsatellites: The UNISAT<br />
experience”, ActaAstronauticaVol. 66, No. 9-10, 2010,<br />
pp. 1534-1543<br />
104. Michael J. Singer and John T. Musacchio, “An<br />
International Environment Agreement for space<br />
debris mitigation among asymmetric nations”,<br />
ActaAstronauticaVol. 68, No. 1-2, 2011, pp. 326-337.<br />
105. Shin-Ichiro Nishida et al., “Soace debris removal<br />
system using a small satellite”, ActaAstronauticaVol.<br />
65, No. 1-2, 2009, pp.95-102.<br />
106. The following comments are directed at Part II,<br />
Section 4 of the September 16, 2013 version of the<br />
EU's proposed International Code of Conduct for<br />
Outer Space Activities.<br />
107. See third draft of the International Code of Conduct<br />
presented by the European Union on 5 June 2012 in<br />
Vienna, Austria,<br />
http://www.consilium.europa.eu/media/1696642/1<br />
2_06_05_coc_space_eu_revised_draft_working__d<br />
ocument.pdf.<br />
108. See draft treaty submitted by the Russian Federation<br />
and China to the Conference on Disarmament, 12<br />
February 2008.<br />
http://www.reachingcriticalwill.org/images/docume<br />
nts/Disarmamentfora/cd/2008/documents/Draft%20PPWT.pdf<br />
109. United Nations Institute for Disarmament Research<br />
(UNIDIR) has organised meetings on development<br />
of an ICoC in Malaysia, Ethiopia, Ukraine, Mexico,<br />
Kazakhstan, and Thailand. More information can be<br />
found on UNIDIR's website,<br />
http://www.unidir.ch/programmes/emergingsecurity-threats/facilitating-the-process-for-thedevelopment-of-an-international-code-of-conductfor-outer-space-activities.<br />
110. M. Listner, Geopolitical Challenges to Implementing<br />
the Code of Conduct for Outer Space Activities<br />
(2012), E-International relations, June 26, 2012<br />
111. J. Wingard, The Battle for Cooperation in Space<br />
(2012), Deutsche Welle, June 14, 2012.<br />
112. Department of Industry, Innovation, Science,<br />
Research and Tertiary Education (DIISTRE),<br />
Australia's Satellite Utilisation Policy,<br />
Commonwealth of Australia, Canberra.<br />
113. In alphabetical order, the space faring nations for<br />
the purposes of this essay are: Canada, China,<br />
France, Germany, India, Iran, Israel, Japan, North<br />
Korea, Pakistan, Russia, South Korea, Taiwan,<br />
Ukraine, the United Kingdom and the United States.<br />
Nations that aspire to become spacefaring include<br />
Brazil, Nigeria, Turkey and Vietnam. Some nations<br />
not listed above have space agencies or space<br />
offices that coordinate their national and<br />
international space engagement activities, manage<br />
investment in ground infrastructure, and<br />
synchronise national requirements for access to<br />
satellite-based services. The member states of the<br />
European Space Agency (ESA) not mentioned above<br />
are not considered to be space faring for the<br />
purposes of this paper.<br />
236 | Awaiting Launch: Perspectives on the Draft ICoC for Outer Space Activities