A Philosopher's Blog

Terraforming & Abortion

Posted in Ethics, Philosophy by Michael LaBossiere on December 23, 2015
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 (Photo credit: Wikipedia)

While terraforming and abortion are both subjects of moral debate, they would seem to have little else in common. However, some of the moral arguments used to justify abortion can be used to justify terraforming. These arguments will be given due consideration.

Briefly put, terraforming is the process of making a planet more earthlike. While this is still mostly a matter of science fiction, serious consideration has been given to how Mars, for example, might be changed to make it more compatible with terrestrial life. While there are some moral concerns with terraforming dead worlds, the main moral worries involve planets that already have life—or, at the very least, real potential for the emergence of life. If a world needs to be terraformed for human habitation, such terraforming is likely to prove harmful or even fatal for the indigenous life. For example, changing the atmosphere of a world to match that of earth would probably be problematic for whatever was breathing the original atmosphere. While it can be argued that there might be cases in which terraforming benefits the local life, I will focus on terraforming that exterminates the local life. I call this terminal terraforming.

One way to look at such terminal terraforming is to consider it as analogous to abortion. As will be shown, there are some important differences between the two—but for now I will focus on the moral similarities.

One stock type of argument in favor of the moral acceptability of abortion is the status argument. While these arguments take various forms, the gist is that the termination of a pregnancy is morally acceptable on the grounds that the woman has a superior moral status to the aborted entity (readers are free to use whichever term they prefer—I am endeavoring to use neutral terms to avoid begging the question). This sort of argument is very similar to the sort used by St. Aquinas and St. Augustine to morally justify killing plants and animals for food. Roughly put, humans are better than animals, so it is acceptable for us to harm them when we need to do so.

This argument can be pressed into use to justify terminal terraforming: if the indigenous life has less moral status than the terraforming species, then this would provide the grounds for arguing that the terraforming is morally acceptable.

The status argument has numerous variations. One common version uses the notion of rights—the rights of the woman outweigh the rights (if any) of the aborted entity. This is because the woman has the superior moral status. This argument is also commonly used to justify killing animals for food or sport—while they have some rights (maybe), the rights of humans’ trump those of animals.

In the case of terraforming, a similar sort of appeal to rights could be used to justify terminal terraforming. For example, if humans need to expand to a world that has only single-celled life, then the rights of humans would outweigh the rights of those creatures.

Another common version uses the notion of utilitarianism: the interests, happiness and unhappiness of the woman is weighed against the interests, happiness and unhappiness of the aborted entity. Those favoring this argument note that the interests, happiness and unhappiness of the woman far outweigh that of the aborted entity—usually because it lacks the capacities of an adult. Not surprisingly, this sort of argument is also used to justify the killing of animals. For example, it is often argued that the happiness people get from eating meat outweighs the unhappiness of the animals that are to be eaten.

As with the other status arguments, this can also be used to justify terraforming. As with all utilitarian arguments, it would involve weighing the happiness and unhappiness of the involved parties. If the life on the planet to be terraformed had less capacities than humans in regard to happiness and unhappiness (such as world whose highest form of life is the alien equivalent of algae), then it would be morally acceptable for humans to terraform that world. Or so it could be argued.

The status argument is sometimes itself supported by an argument focusing on the difference between actuality and potentiality. While the entity to be aborted is a potential person (on some views), it is not an actual person. Since the woman is an actual person, she has the higher status. The philosophical discussions of the potential versus the actual are rather old and are a matter of metaphysics. However, the argument can be made without a journey into the metaphysical realm simply by using the intuitive notions of potentiality and actuality. For example, an actual masterpiece of painting has higher worth than the blank canvas and unused paint that constitute a potential masterpiece. This sort of argument can also be used to justify terraforming on worlds whose lifeforms are not (yet) people and also, obviously enough, on worlds that merely have the potential of producing life.

While the analogy between the two has merit, there are some rather obvious ways to try to break the comparison. One obvious point is that in the case of abortion, the woman is the “owner” of the body where the aborted entity used to live. It is this relation that is often used to morally warrant abortion and to provide a moral distinction between a woman choosing to have an abortion and someone else who kills the product of conception.

When humans arrive to terraform a world that already has life, the life that lives there already “owns” the world and hence humans cannot claim that special relation that would justify choosing to kill. Instead, the situation would be more similar to killing the life within another person and this would presumably change the ethics of the situation.

Another important difference is that while abortion (typically) kills just one entity, terraforming would (typically) wipe out entire species. As such, terraforming of this sort would be analogous to aborting all pregnancies and exterminating the human race—as opposed to the termination of some pregnancies. This moral concern is, obviously enough, the same as the concern about human caused extinction here on earth. While people are concerned about the death of individual entities, there is the view that the extermination of a species is something morally worse than the death of all the individuals (that is, the wrong of extinction is not merely a sum of the wrong of all the individual deaths.

These considerations show that the analogy does have obvious problems. That said, there still seems to be a core moral concern that connects abortion and terraforming: what (if anything) morally justifies killing on the grounds of (alleged) superior moral status?


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Interstellar, Science & Fantasy

Posted in Aesthetics, Philosophy, Religion, Science by Michael LaBossiere on August 12, 2015

Although I like science fiction, I did not see Interstellar until fairly recently—although time is such a subjective sort of thing. One reason I decided to see it is because some have claimed that the movie should be shown in science classes, presumably to help the kids learn science. Because of this, I expected to see a science fiction movie. Since I write science fiction, horror and fantasy stuff, it should not be surprising that I get a bit obsessive about genre classifications. Since I am a professor, it should also not be surprising that I have an interest in teaching methods. As such, I will be considering Interstellar in regards to both genre classifications and its education value in the context of science. There will be spoilers—so if you have not seen it, you might wish to hold off reading this essay.

While there have been numerous attempts to distinguish between science and fantasy, Roger Zelazny presents one of the most brilliant and concise accounts in a dialogue between Yama and Tak in Lord of Light. Tak has inquired of Yama about whether a creature, a Rakshasa, he has seen is a demon or not. Yama responds by saying, “If by ‘demon’ you mean a malefic, supernatural creature, possessed of great powers, life span and the ability to temporarily assume any shape — then the answer is no.  This is the generally accepted definition, but it is untrue in one respect. … It is not a supernatural creature.”

Tak, not surprisingly, does not see the importance of this single untruth in the definition. Yama replies with “Ah, but it makes a great deal of difference, you see.  It is the difference between the unknown and the unknowable, between science and fantasy — it is a matter of essence.  The four points of the compass be logic, knowledge, wisdom, and the unknown.  Some do bow in that final direction.  Others advance upon it.  To bow before the one is to lose sight of the three.  I may submit to the unknown, but never to the unknowable”

In Lord of Light, the Rakshasa play the role of demons, but they are aliens—the original inhabitants of a world conquered by human colonists. As such, they are natural creatures and fall under the domain of science. While I do not completely agree with Zelazny’s distinction, I find it appealing and reasonable enough to use as the foundation for the following discussion of the movie.

Interstellar initially stays safely within the realm of science-fiction by staying safely within the sphere of scientific speculation regarding hypersleep, wormholes and black holes. While the script does take some liberties with the science, this is fine for the obvious reason that this is science fiction and not a science lecture. Interstellar also has the interesting bonus of having contributed to real science regarding the appearance of black holes. That aspect would provide some justification for showing it (or some of it) in a science class.

Another part of the movie that would be suitable for a science class are the scenes in which Murph thinks that her room might be haunted by a ghost. Cooper, her father, urges her to apply the scientific method to the phenomenon. Of course, it might be considered bad parenting for a parent to urge his child to study what might be a dangerous phenomenon in her room. Cooper also instantly dismisses the ghost hypothesis—which can be seen as being very scientific (since there has been no evidence of ghosts) to not very scientific (since this might be evidence of ghosts).

The story does include the point that the local school is denying that the moon-landings really occurred and the official textbooks support this view. Murph is punished at school for arguing that the moon landings did occur and is rewarded by Cooper. This does make a point about science denial and could thus be of use in the classroom.

Rather ironically, the story presents its own conspiracies and casts two of the main scientists (Brand and Mann) as liars. Brand lies about his failed equation for “good” reasons—to keep people working on a project that has a chance and to keep morale up. Mann lies about the habitability of his world because, despite being built up in the story as the best of the scientists, he cannot take the strain of being alone. As such, the movie sends a mixed-message about conspiracies and lying scientists. While learning that some people are liars has value, this does not add to the movie’s value as a science class film. Now, to get back to the science.

The science core of the movie, however, focuses on holes: the wormhole and the black hole. As noted above, the movie does stick within the realm of speculative science in regards to the wormhole and the black hole—at least until near the end of the movie.

It turns out that all that is needed to fix Brand’s equation is data from inside a black hole. Conveniently, one is present. Also conveniently, Cooper and the cool robot TARS end up piloting their ships into the black hole as part of the plan to save Brand. It is at this point that the movie moves from science to fantasy.

Cooper and TARS manage to survive being dragged into the black hole, which might be scientifically fine. However, they are then rescued by the mysterious “they” (whoever created the wormhole and sent messages to NASA).

Cooper is transported into a tesseract or something. The way it works in the movie is that Cooper is floating “in” what seems to be a massive structure. In “reality” it is nifty blend of time and space—he can see and interact with all the temporal slices that occurred in Murph’s room. Crudely put, it allows him to move in time as if it were space. While it is also sort of still space. While this is rather weird, it is still within the realm of speculative science fiction.

Cooper is somehow able to interact with the room using weird movie plot rules—he can knock books off the shelves in a Morse code pattern, he can precisely change local gravity to provide the location of the NASA base in binary, and finally he can manipulate the hand of the watch he gave his daughter to convey the data needed to complete the equation. Weirdly, he cannot just manipulate a pen or pencil to just write things out. But, movie. While a bit absurd, this is still science fiction.

The main problem lies with the way Cooper solves the problem of locating Murph at the right time. While at this point I would have bought the idea that he figured out the time scale of the room and could rapidly check it, the story has Cooper navigate through the vast time room using love as a “force” that can transcend time. While it is possible that Cooper is wrong about what he is really doing, the movie certainly presents it as if this love force is what serves as his temporal positioning system.

While love is a great thing, there are no even remotely scientific theories that provide a foundation for love having the qualities needed to enable such temporal navigation. There is, of course, scientific research into love and other emotions. The best of current love science indicates that love is a “mechanical” phenomena (in the philosophical sense) and there is nothing to even suggest that it provides what amounts to supernatural abilities.

It would, of course, be fine to have Cooper keep on trying because he loves his children—love does that. But making love into some sort of trans-dimensional force is clearly fantasy rather than science and certainly not suitable for a science lesson (well, other than to show what is not science).

One last concern I have with using the movie in a science class is the use of what seem to be super beings. While the audience learns little of the beings, the movie does assert to the audience that these beings can obviously manipulate time and space. They create the wormhole, they pull Cooper and TARS from a black hole, they send Cooper back in time and enable him to communicate in stupid ways, and so on. The movie also tells the audience the beings are probably future humans (or what humanity becomes) and that they can “see” all of time. While the movie does not mention this, this is how St. Augustine saw God—He is outside of time. They are also clearly rather benign and show demonstrate that that do care about individuals—they save Cooper and TARS. Of course, they also let many people die needlessly.

Given these qualities, it is easy to see these beings (or being) as playing the role of God or even being God—a super powerful, sometimes benign being, that has incredible power over time and space. Yet is fine with letting lots of people die needlessly while miraculously saving a person or two.

Given the wormhole, it is easy to compare this movie to Star Trek: Deep Space Nine. This show had wormhole populated by powerful beings that existed outside of our normal dimensions. To the people of Bajor, these beings were divine and supernatural Prophets. To Star Fleet, they were the wormhole aliens. While Star Trek is supposed to be science fiction, some episodes involving the prophets did blur the lines into fantasy, perhaps intentionally.

Getting back to Interstellar, it could be argued that the mysterious “they” are like the Rakshasa of Lord of Light in that they (or whatever) have many of the attributes of God, but are not supernatural beings. Being fiction, this could be set by fiat—but this does raise the boundary question. To be specific, does saying that something that has what appear to be the usual supernatural powers is not supernatural make it science-fiction rather than fantasy? Answering this requires working out a proper theory of the boundary, which goes beyond the scope of this essay. However, I will note that having the day saved by the intervention of mysterious and almost divinely powerful beings does not seem to make the movie suitable for a science class. Rather, it makes it seem to be more of a fantasy story masquerading as science fiction.

My overall view is that showing parts of Interstellar, specifically the science parts, could be fine for a science class. However, the movie as a whole is more fantasy than science fiction.


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Asteroid Mining & Death from Above

Posted in Business, Ethics, Law, Philosophy, Science by Michael LaBossiere on October 17, 2014

Having written before on the ethics of asteroid mining, I thought I would return to this subject and address an additional moral concern, namely the potential dangers of asteroid (and comet) mining. My concern here is not with the dangers to the miners (though that is obviously a matter of concern) but with dangers to the rest of us.

While the mining of asteroids and comets is currently the stuff of science fiction, such mining is certainly possible and might even prove to be economically viable. One factor worth considering is the high cost of getting material into space from earth. Given this cost, constructing things in space using material mined in space might be cost effective. As such, we might someday see satellites built right in space from material harvested from asteroids. It is also worth considering that the cost of mining materials in space and shipping them to earth might also be low enough that space mining for this purpose would be viable. If the material is expensive to mine or has limited availability on earth, then space mining could thus be viable or even necessary.

If material mined in space is to be used on earth, the obvious problem is how to get the material to the surface safely and as cheaply as possible. One approach is to move an asteroid close to the earth to facilitate mining and transportation—it might be more efficient to move the asteroid rather than send mining vessels back and forth. One obvious moral concern about moving an asteroid close to earth is that something could go wrong and the asteroid could strike the earth, perhaps in a populated area. Another obvious concern is that the asteroid could be intentionally used as a weapon—perhaps by a state or by non-state actors (such as terrorists). An asteroid could do considerable damage and would provide a “clean kill”, that is it could do a lot of damage without radioactive fallout or chemical or biological residue. An asteroid might even “accidentally on purpose” be dropped on a target, thus allowing the attacker to claim that it was an accident (something harder to do when using actual weapons).

Given the dangers posed by moving asteroids into earth orbit, this is clearly something that would need to be carefully regulated. Of course, given humanity’s track record accidents and intentional misuse are guaranteed.

Another matter of concern is the transport of material from space to earth. The obvious approach is to ship material to the surface using some sort of vehicle, perhaps constructed in orbit from materials mined in space. Such a vehicle could be relatively simple—after all, it would not need a crew and would just have to ensure that the cargo landed in roughly the right area. Another approach would be to just drop material from orbit—perhaps by surrounding valuable materials with materials intended to ablate during the landing and with a parachute system for some basic braking.

The obvious concern is the danger posed by such transport methods. While such vehicles or rock-drops would not do the sort of damage that an asteroid would, if one crashed hard into a densely populated area (intentionally or accidentally) it could do considerable damage. While such crashes will almost certainly occur, there does seem to be a clear moral obligation to try to minimize the chances of such crashes. The obvious problem is that such safety matters would tend to increase cost and decrease convenience. For example, having the landing zones in unpopulated areas would reduce the risk of a crash into an urban area, but would involve the need to transport the materials from these areas to places where it can be processed (unless the processing plants are built in the zone). As another example, payload sizes might be limited to reduce the damage done by crashes. As a final example, the vessels or drop-rocks might be required to have safety systems, such as backup parachutes. Given that people will cut costs and corners and suffer lapses of attention, accidents are probably inevitable. But they should be made less likely by developing rational regulations. Also of concern is the fact that the vessels and drop-rocks could be used as weapons (as a rule, any technology that can be used to kill people will be used to kill people). As such, there will need to be safeguards against this. It would, for example, be rather bad if terrorist were able to get control of the drop system and start dropping vessels or drop-rocks onto a city.

Despite the risks, if there is profit to be made in mining space, it will almost certainly be done. Given that the resources on earth are clearly limited, access to the bounty of the solar system could be good for (almost) everyone. It could also be another step form humanity away from earth and towards the stars.


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Terraforming Ethics

Posted in Ethics, Philosophy, Science by Michael LaBossiere on August 27, 2014

J’atorg struggled along on his motile pods, wheezing badly as his air sacs fought with the new air. He cursed the humans, invoking the gods of his people. Reflecting, he cursed the humans by invoking their gods. The gods of his people had proven weak: the bipeds had come and were transforming his world into an environment more suitable for themselves, showing their gods were stronger. The humans said it would take a long time for the world to fully change, but J’atorg could already see, taste and smell the differences. He did not know who he hated more: the hard-eyed humans who were destroying his world or the soft-eyed humans who poured forth words about “rights”, “morality” and “lawsuits” while urging patience. He knew that his people would die, aside from those the humans kept as curiosities or preserved to assuage their conscience with cruel pity.

English: Terraforming

English: Terraforming (Photo credit: Wikipedia)

Terraforming has long been a staple in science fiction, though there has been some practical research in more recent years.  In general terms, terraforming is transforming a planet to make it more earthlike. Typically, the main goal of terraforming is to make an alien world suitable for human habitation by altering its ecosystem. Since this process would tend to radically change a world, terraforming does raise ethical concerns.

The morally easiest scenario is one in which a lifeless, uninhabited (including non-living creatures) planet (or moon) is to be terraformed. If Mars is lifeless and uninhabited, it would fall into this category. The reason why this sort of scenario is the morally easiest is that there would be no beings on the world to be impacted by the terraforming. As such, there would be no rights violated, no harms inflicted, etc. As such, terraforming of such a planet would seem to be morally acceptable.

One obvious counter is to argue that a planet has moral status of its own, distinct from that of the sort of beings that might inhabit a world. Intuitively, the burden of proof for this status would rest on those who make this claim since inanimate objects do not seem to be the sort of entities that can be wronged.

A second obvious counter is to argue that an uninhabited world might someday produce inhabitants. After all, the scientific account of life on earth involves life arising from non-life by natural processes. If an uninhabited world is terraformed, the possible inhabitants that might have arisen from the world would never be.

While arguments from potentiality tend to be weak, they are not without their appeal. Naturally, the concern for the world in question would be proportional to how likely it is that it would someday produce inhabitants of its own. If this is unlikely, then the terraforming would be of less moral concern. However, if the world has considerable potential, then the matter is clearly more serious. To reverse the situation, we certainly would not have wanted earth to be transformed by aliens to fit themselves if doing so would have prevented our eventual evolution. As such, to act morally, we would need to treat other worlds as we would have wanted our world to be treated.

The stock counter to such potentiality arguments is that the merely potential does not morally outweigh the actual. This is the sort of view that is used to justify the use of resources now even when doing so will make them unavailable to future generations. This view does, of course, have its own problems and there can be rather serious arguments regarding the status of the potential versus that of the actual.

If a world has life or is otherwise inhabited (I do not want to assume that all inhabitants must be life in our sense of the term), then the morality of terraforming becomes more complicated. After all, the inhabitants of a world would seem likely to have some moral status. Not surprisingly, the ethics of terraforming an inhabited world are very similar to those of altering an environment on earth through development or some other means. Naturally enough, the stock arguments about making species extinct would come into play here as well. As on earth, the more complex the inhabitants, the greater the moral concern—assuming that moral status is linked to complexity. After all, we do not balk at eliminating viruses or bacteria, but are sometimes concerned when higher forms of life are at stake.

If the inhabitants are people (albeit non-human), then the matter is even more complicated and would bring into play the stock arguments about how people should be treated. Despite the ethical similarities, there are some important differences when it comes to terraforming ethics.

One main difference is one of scale: bulldozing a forest to build condos versus changing an entire planet for colonizing. The fact that the entire world is involved would seem to be morally significant—assuming that size matters.

There is also another important difference, namely the fact that the world is a different world. On earth, we can at least present some plausible ownership claim. Asserting ownership over and alien world is rather more problematic, especially if it is already inhabited.

Of course, it can be countered that we are inhabitants of this universe and hence have as good a claim to alien worlds as our own—after all, it is our universe. Also, there are all sorts of clever moral justifications for ownership that people have developed over the centuries and these can be applied to ownership of alien worlds. After all, the moral justifications for taking land from other humans can surely be made to apply to aliens. To be consistent we would have to accept that the same arguments would morally justify aliens doing the same to us, which we might not want to do. Or we could simply go with a galactic state of nature where profit is the measure of right and matters are decided by the space sword. In that case, we must hope that we have the biggest sword or that the aliens have better ethics than we do.


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The Ethics of Asteroid Mining

Posted in Business, Environment, Ethics, Philosophy by Michael LaBossiere on April 27, 2012
Asteroid mining spacecraft

Asteroid mining spacecraft (Photo credit: Wikipedia)

While asteroid mining is still the stuff of science fiction, Google’s Larry Paige, James Cameron and a few others have said they intend to get into the business. While this might seem like a crazy idea, asteroid mining actually has significant commercial potential. After all, the asteroids are composed of material that would be very useful in space operations. Interestingly enough, one of the most valuable components of asteroids would be water. While water is cheap and abundant on earth, putting into orbit is rather expensive. As for its value in space, it can be converted into liquid oxygen and liquid hydrogen-both of which are key fuels in space vessels. There is also the fact that humans need water to survive, so perhaps someday people will be drinking asteroid water in space (or on earth as a fabulously wasteful luxury item). Some asteroids also contain valuable metals that could be economically mined and used in space  or earth (getting things down is far cheaper than getting things up).

Being a science fiction buff, it is hardly surprising that I am very much in favor of asteroid mining-if only for the fact that it would simply be cool to have asteroid mining occurring in my lifetime. That said, as a philosopher I do have some ethical concerns about asteroid mining.

When it comes to mining, asteroid or otherwise, a main points of moral concern are the impact on the environment and the impact on human health and well being. Mining on earth often has a catastrophic effect on the environment in terms of the direct damage done by the excavating and the secondary effects from such things as the chemicals used in the mining process. These environmental impacts in turn impact the human populations in various ways, such as killing people directly in disasters (such as when retaining walls fail and cause deaths through flooding) and indirectly harming people through chemical contamination.

On the face of it, asteroid mining seems to have a major ethical advantage over terrestrial mining. After all, the asteroids that will be mined are essentially lifeless rocks in space. As such, there will most likely be no ecosystems to damage. While the asteroids that are mined will be destroyed, it seems rather difficult to argue that destroying an asteroid to mine it would be wrong. After all, it is literally just a rock in space and mining it, as far as is known, would have no environmental impact worth noting. In regards to the impact on humans, since asteroid mining takes place in space, the human populations of earth will be safely away from any side effects of mining. As such, asteroid mining seems to be morally acceptable on the grounds that it will almost certainly do no meaningful environmental damage.

It might be objected that the asteroids should still be left alone, despite the fact that they are almost certainly lifeless and thus devoid of creatures that could even be conceivably harmed by the mining. While I am an environmentalist, I do find it rather challenging to find a plausible ground on which to argue that lifeless asteroids should not be mined. After all, most of my stock arguments regarding the environment involve the impact of harms on living creatures (directly or indirectly).

That said, a case could be made that the asteroids themselves have a right not to be mined. But, that would seem to be a rather difficult case to plausible make. However, some other case could be made against mining them, perhaps one based on the concern of any asteroid environmentalists regarding these rocks.

In light of the above arguments, it would seem that there are not any reasonable environmentally based moral arguments against the mining of the asteroids. That could, of course, change if ecosystems were found on asteroids or if it turned out that the asteroids performed an important role in the solar system (this seems unlikely, but not beyond the realm of possibility).

Naturally, the moral concerns regarding asteroid mining are not limited to the environmental impact (or lack thereof) of the mining. There are also the usual concerns regarding the people who will be working in the field. Of course, that is not specific to asteroid mining and hence I will not address the ethics of labor here, other than to say the obvious: those working in the field should be justly compensated.

One moral concern that does interest me is the matter of ownership of the asteroids. What will most likely happen is that everything will play out as usual:  those who control the big guns and big money will decide who owns the rocks. If it follows the usual pattern, corporations will end up owning the rocks and will, with any luck, exploit them for significant profits.  Of course, that just says what will probably happen, not what would be morally right.

Interestingly enough, the situation with the asteroids nicely fits into the state of nature scenarios envisioned by thinkers like Hobbes and Locke: there are resources in abundance with no effective authority (“space police”) over them -at least not yet. Since there are no rightful owners (or, put another way, we are all potentially rightful owners), it is tempting to claim that they are they for the taking: that is, an asteroid belongs to whoever, in Locke’s terms, mixes their labor with it and makes it their own (or more likely their employer’s own). This does have a certain appeal. After all, if my associates and I construct a robot ship that flies out to asteroid and mines it, we seem to have earned the right to that asteroid through our efforts. After all, before our ship mined it for water and metal, these valuable resources were just drifting in space, surrounded by rock. As such, it would seem that we would have the right to grab as many asteroids as we can-as would our competitors.

Of course, Locke also has his proviso: those who take from the common resources must leave as much and as good for others. While this proviso has been grotesquely violated on earth, the asteroids provide us with a new opportunity (presumably to continue to grotesquely violate that proviso) to consider how to share (or not) the resources in the asteroids.

Naturally, it might be argued that there is no obligation to leave as much and as good for others in space and that things should be on a strict first grab, first get approach. After all, the people who get their equipment into space would have done the work (or put up the money) and hence (as argued above) would be entitled to all they can grab and use or sell. Other people are free to grab what they can, provided that they have access to the resources needed to reach and mine the asteroids. Naturally, the folks who lack the resources to compete will end up, as they always do, out of luck and poor.

While this has a certain appeal, a case can be made as to why the resources should be shared. One reason is that the people who reach the asteroids to mine them did not do so by creating the means out of nothing. After all, reaching the asteroids will be the result of centuries of human civilization that made such technology possible. As such, there would seem to be a general debt owed to humanity and paying this off would involve also contributing to the general good of humanity. Naturally, this line of reasoning can be countered by arguing that the successful miners will benefit humanity when their profits “trickle down” from space.

Second, there is the concern for not only the people who are alive today but also for the people to be. To use an analogy, think of a buffet line: the mere fact that I am first in line does not seem to give me the right to devour everything I can with no regard for the people behind me. It also does not give me the right to grab whatever I cannot eat myself so I can sell it to those who just happened to be behind me in line. As such, these resources should be treated in a similar manner, namely fairly and with some concern for those who are behind the first people in line.

Fortunately, space is really big and there are vast resources out there that will help with the distribution of said resources. Of course, the same used to be said of the earth and, as we expand, we will no doubt find even the solar system too small for our needs.

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Posted in Philosophy, Science by Michael LaBossiere on September 4, 2011
Stephen Hawking NASA 50th (200804210001HQ)

Image by nasa hq photo via Flickr

While not as popular as the debate about whether there are aliens or not, the debate about whether aliens would be hostile or not is rather interesting. Some scientists, such as Stephen Hawking, take the view that aliens might well be like us-that is, rather hostile. Others have claimed that they would be peaceful. These folks often use various stock argument. One is that any race advanced enough to cross the stars would have advanced beyond bad behavior. While the debate is current theoretical, it can obviously be approached rationally.

One approach is the method of analogy. Since we have not encountered any aliens (as far as we know), we have a sample set of one intelligent species, namely our own. Since we are rather hostile, the logical inference is that other intelligent races would also be hostile. Of course, this argument is exceptionally weak since the sample consists of one species on one planet. Other species could be quite different. However, a sample of one is better than a sample of none, hence the best conclusion would seem to be that aliens are probably hostile like us.

Another approach is to consider the conditions that would need to be met for a race to be able to travel from star to star and how this would impact their behavior.

As noted above, one stock argument is that aliens would be peaceful because they would need to be advanced and advanced races would be peaceful. On the face of it, both premises can be challenged. First, it might be the case (as some sci-fi writers have speculated) that interstellar travel can be done with a very low level of technology and we just failed to make that discovery. Second, a race might acquire advanced technology by means other than advancement (such as finding it in a crashed ship). Third there seems to be no correlation between technological level and peacefulness. After all, humans have not shown any tendency to be more peaceful-we just have more advanced ways of hurting and killing each other. While alien races might be different, there is no foundation for the claim that advances in technology must correlate with increases in peacefulness.

Another stock argument is that a race would need to survive past the crisis of self-destruction and also become unified in order to master interstellar travel. Such a race, some argue, would have learned peace. While this has some appeal, the argument is easy enough to counter. First, there are various ways a race could get past the crisis of self-destruction without being peaceful. For example, if the race was unified by war prior to this crisis it could still be quite hostile. As another example, a race that is far more collective than humans could be unified, but unified against the rest of the universe in a very hostile way.

Another stock argument is that interstellar conquest and war would not be feasible because of the distance and cost. This, of course, does not show that aliens are not hostile-it just shows that they would have little or no way to act on that hostility. However, it is easy enough to imagine ways around these problems. Perhaps war and conquest would be feasible. After all, getting an entire planet would probably be worth the cost of getting to it and conquering a world might require sending only one ship and the right equipment (like an automated factory that could build a robotic fleet and army on Mars and attack earth with locally built forces). Another possibility is a race that is desperate and needs another world to survive, regardless of the cost (which is a classic sci-fi plot device). Or perhaps there are races that would send a weapon to exterminate us, perhaps out of xenophobia.


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