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2017 | OriginalPaper | Buchkapitel

10. Some Ethical Constraints on Near-Earth Resource Exploitation

verfasst von : James S. J. Schwartz, Tony Milligan

Erschienen in: Yearbook on Space Policy 2015

Verlag: Springer Vienna

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Abstract

One of the most common and enduring justifications for space exploration is that resources are limited here but plentiful elsewhere. Exploration has the potential to enable humanity to access the vast store of resources throughout our solar system. Recent discussion (driven to some extent by U.S. legislation and by speculation about the future role of the private sector in space) has tended to focus on what we shall call “near-Earth resources” (NERs), which include those of the Moon and near-Earth asteroids (NEAs). They include: potentially vast stores of water, iron, and platinum-group metals among the NEA population; so-called ‘peaks of eternal light’, i.e. places of uninterrupted sunlight (for solar energy collection) and crater areas in more or less permanent darkness (able to harbour water ice) on the Moon; Helium-3 (He3) in the lunar regolith; and the relatively banal resource of terrestrial orbital niches. What is often lost in the enthusiasm concerning such NERs is that, in spite of the immensity of space, only a small percentage of the NEA population is profitably accessible in the absence of distant, futuristic technology; only so much of the lunar surface (or elevated areas just above it) is permanently illuminated (or shadowed); the He3 concentration in the lunar regolith is very low, geographically differentiated and reduces with depth (the regolith on asteroids is also likely to be less mature and so He3 concentration levels are likely to be even lower); and, as is already well-known, there are only so many available orbital allocations. These practical realities suggest that issues of sustainability will not vanish during at least the early stages of space exploitation, and perhaps at all stages for the foreseeable future. They do not support unrelenting and unregulated utilisation and consumption. In fact, quite the opposite.

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Fußnoten
1
The difficulties of securing a workable international agreement are considerable and are an important driver for the recent Spurring Private Enterprise and Competitive Entrepreneurship (SPACE) Act signed into United States law in November 2015. For a norm-based approach see Laura Delgado-Lopez (2015) Beyond the Moon Agreement: norms of responsible behavior for private sector activities on the Moon and celestial bodies. Space Policy. 32: 6–8. For a more norms-plus-regulation approach see Fabio Tronchetti (2014) Private Property Rights on Asteroid Resources: Assessing the Legality of the ASTEROIDS Act. Space Policy. 30: 193–196 and the partner article Fabio Tronchetti (2015) The Space Resource Exploration and Utilization Act: A Move Forward or a Step Back? Space Policy. 34: 6–10.
 
2
See, e.g., Pilchman, D (2015) Three Ethical Perspectives on Asteroid Mining. In Galliot, J (ed.) Commercial Space Exploration: Ethics, Policy and Governance, Burlington, VT: Ashgate, pp. 135–147.
 
3
Yárnoz, D, Sanchez, J, McInnes, C (2013) Easily Retrievable Objects Among the NEO Population. Celestial Mechanics and Dynamical Astronomy 116: 367–388.
 
4
Elvis, M (2014) How Many Ore-bearing Asteroids? Planetary and Space Science 91: 20–26.
 
5
Elvis’ estimates assume a maximum LEO to NEA Δv of 4.5 km/s. For the number of PGM candidates his calculation assumes (1) that approximately 1/50 of the NEA population are of the appropriate type and concentration; (2) that approximately 2.5 % of this population can be accessed from LEO at Δv ≤ 4.5 km/s; (3) that a minimum diameter of 100 m is necessary for profitable return and extraction; and (4) that there are approximately 20,000 NEAs of diameter ≥100 m. Thus, 20,000 × 0.025 × 0.02 = 10. For the number of water candidates his calculation assumes (1) that approximately 3.1 % of the NEA population are of the appropriate type and concentration; (2) that approximately 3 % of this population can be accessed from LEO at Δv ≤ 4.5 km/s; (3) that a minimum diameter of 18 m is necessary for profitable return and extraction; and (4) that there are approximately 107 NEAs of diameter ≥18 m. Thus, 107 × 0.03 × 0.031 = 9300.
 
6
Elvis, M, Milligan, T, Krolikowski, A (forthcoming) The Peaks of Eternal Light: A Near-term Property Issue on the Moon.
 
7
McGovern, J, Bussey, D, Greenhaven, B, et al. (2013) Mapping and Characterization of non-Polar Permanent Shadows on the Lunar Surface. Icarus 223: 566–581.
 
8
Crawford, I (2015) Lunar Resources: A Review. Progress in Physical Geography 39: 137–167.
 
9
Ibid., 144–145.
 
10
Ibid.
 
11
Milligan, T (2013) Scratching the Surface: The Ethics of Helium-3 Extraction. Paper presented at the 8th IAA Symposium on the Future of Space Exploration: Towards the Stars, Torino, Italy, 3–5 July 2013. Crawford (2015) takes into account a variety of additional energy costs in extraction and transportation which puts the annual destructiveness even higher, also making the process economically questionable.
 
12
Schwartz, J (2015) Fairness as a Moral Grounding for Space Policy. In Cockell, C (ed.) The Meaning of Liberty Beyond Earth, Heidelberg, London and New York: Springer, pp. 69–89. Milligan, T (2015) Rawlsian Deliberation About Space Settlement. In Cockell, C (ed.) Human Governance Beyond Earth – Implications for Liberty, Heidelberg, London and New York: Springer, pp. 9–22.
 
13
Schwartz, op. cit.
 
14
It might be objected that space tourism could be defended on capability-building grounds. But so could a wide array of other human missions. There is nothing uniquely beneficial about space tourism as far as any duty we might have to extend human life is concerned.
 
15
Schwartz, J (2014) Prioritizing Scientific Exploration: A Comparison of the Ethical Justifications for Space Development and for Space Science. Space Policy 30: 202–208.
 
16
Milligan, T (2013), op. cit.
 
17
Counterexamples include the deliberate impacting of spacecraft to perform seismic and other analyses, such as the Saturn V third-stage seismic study impacts (Apollo 13 onward), and the LCROSS lunar impactor.
 
18
We thank Christopher Newman for discussion on this point.
 
19
For an interesting discussion of some of the legal issues involved in the related activity of space-based advertising, see O’Brien, Z (2015) Advertising in Space: Sales at the Outer Limits. In Galliot, J (ed) Commercial Space Exploration: Ethics, Policy and Governance, Burlington, VT: Ashgate, pp. 91–106.
 
20
An obvious model here would be the Norwegian Oil Fund, the Oljefondet, currently heading towards a total value of 1 trillion euros and arguably the largest stock-holder in Europe. Only a portion of the profits from the fund are disbursed annually.
 
21
Hartley, D (2012) Guarding the Final Frontier: The Future Regulations of the International Seabed Authority. Temple International and Comparative Law Journal 26: 335–366.
 
22
Which is not to say that no environmental concerns arise in space. In addition to well-known concerns about debris production, NEA exploitation raises concerns about the safety of NEA trajectories and of discarded tailing, and lunar resource exploitation raises concerns about disrupting regolith (which could have deleterious effects on unshielded equipment on the lunar surface).
 
23
Nelson, J (2005) The Contemporary Seabed Mining Regime: A Critical Analysis of the Mining Regulations Promulgated by the International Seabed Authority. Colorado Journal of International Environmental Law and Policy 16: 27–75.
 
24
For a more optimistic discussion of an ISA-like governance in space, see Pinault, L (2015) Towards a World Space Agency. In Cockell, C (ed.) Human Governance Beyond Earth, Heidelberg, London and New York: Springer, 2015, pp. 173–196.
 
Metadaten
Titel
Some Ethical Constraints on Near-Earth Resource Exploitation
verfasst von
James S. J. Schwartz
Tony Milligan
Copyright-Jahr
2017
Verlag
Springer Vienna
DOI
https://doi.org/10.1007/978-3-7091-4860-0_10

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