Space Law

Ad Astra Per Aspera – “To the stars through difficulties”

Carlton Hemphill, MJLST Staffer

With upcoming elections and the ongoing pandemic on the minds of many, it’s easy to get lost in the negatives of 2020. However, one shining star of a historic event took place on May 30, 2020, NASA astronauts once again launched from U.S. soil, and for the first time on commercially produced and maintained spacecraft. The mission to the International Space Station (ISS) went as well as anyone could have hoped for: uneventful. It sounds ironic to describe such a monumental moment as being “uneventful,” but in the context of strapping humans to the tip of a rocket and blasting them into space, “uneventful” is good. It is also a testament to how far the privatization of space exploration has come. SpaceX, the company responsible for the successful launch of NASA astronauts to the ISS, did not start out with success. Many of their early launch attempts of the Falcon 1 ended in disaster, nearly putting the company out of business. However, with the help of government contracts SpaceX was able to continue researching and developing their rockets to the point of being an industry leader.

What about the economy? Good news for the U.S. economy and taxpayers alike.

Besides allowing for this milestone of American science and engineering to occur, government contracts for commercial space exploration prove to be economically beneficial. Prior to the May 30th mission, NASA was paying a premium to launch astronauts on Russian spacecraft, and virtually all commercial satellite launches had been outsourced to Russia and China. It appeared as if the United States was out of the space game. With the then existing technology, domestic aerospace companies were unable to match the prices offered by foreign competitors. The economic incentives provided by government contracts to domestic companies such as SpaceX, have reversed this trend. They have allowed companies to invest in research that has led to tremendous cost savings, such as a reusable first stage rocket engine, and increased reliability and safety. Domestic companies are now able to offer safe and reliable space travel cheaper than foreign competitors. This has once again shifted power back to the United States, with SpaceX controlling the market for commercial satellites, as well as the future launches of NASA astronaut missions. NASA plans to continue using commercial spacecraft for its next mission to the ISS. The mission, named SpaceX Crew–1, is slotted for November 14, 2020, and will bring three NASA astronauts and one Japanese mission specialist to the ISS. So, stay tuned, and stay excited!

Is there more to commercial space exploration than satellites and astronauts? Sure there is.

The idea of sending paying customers into space is nothing new and has been talked about since space travel first became a reality. The recent success of commercializing space has reignited talk about profiting from those curious to venture out of this world (especially with the way 2020 has gone). NASA has even gotten on board with economizing space and is planning on allowing “private astronauts” to spend up to 30 days on the ISS for the low cost of $35,000 per night, plus shipping and handling (i.e. launch costs for commercial spacecraft). It seems that the end goal of both the government and private companies is to stimulate a space economy. While this concept might initially seem hard to imagine, one need only look to the evolution of the aviation industry for a reality check.

Of course, when a space economy becomes reality, there will be a pressing need for increased laws and regulations. While space travel has been around for over half a century, and a good body of laws pertaining to space already exist, the concept of commercialized space travel is still relatively new and uncharted territory. Lawmakers will most likely turn to the aviation industry for guidance on how to regulate this growing field. As technology advances and propels people further into previously uncharted territory, the law must follow hand in hand and evolve to the changing circumstances.

 


Keeping Pace with Crimes in Space

Katherin Nixon, MJLST Staffer

At the end of August, something peculiar happened. Something extraterrestrial. No, NASA did not discover aliens on Mars (although that would have been peculiar and extraterrestrial too). Instead, the first crime was allegedly committed in Space—by a human being. Anne McClain was on a six-month mission aboard the International Space Station (“ISS”) when she accessed her estranged spouse’s bank account using NASA’s computer network. McClain has since been accused of identity theft and improper access to private financial records. Regardless of her innocence or guilt, this raises two important issues for law-oriented earthlings: (1) what laws govern Space; and (2) who has jurisdiction?

Among the laws that govern Space, two are especially noteworthy in this case. According to Article VIII of the Outer Space Treaty of 1967, “A State Party to the Treaty on whose registry an object launched into outer space is carried shall retain jurisdiction and control over such object, and over any personnel thereof, while in outer space or on a celestial body.” This would seem to suggest the United States maintains jurisdiction in this case. But, it is important to remember the crime was committed aboard the ISS. On January 29, 1998, fifteen governments came together to sign the International Space Station Intergovernmental Agreement (“IGA”). As the name indicates, this agreement governs all things ISS. Article 22 of the IGA states, “Canada, the European Partner States, Japan, Russia, and the United States may exercise criminal jurisdiction over personnel in or on any flight element who are their respective nationals.” Since McClain is a United States citizen—and the alleged crime was committed against another United States citizen—the United States has jurisdiction over this case.

However, what if the crime was committed against say—a Japanese citizen or a Russian citizen? This is the entry point for a black hole. Consider this hypothetical offered by Michelle Hanlon, professor of air and space law at the University of Mississippi: “Astronaut A from Country A stole a watch from Astronaut B from Country B, and it happened in a part of the ISS that belonged to Country C.” (Doesn’t this feel like the Space version of Civil Procedure?) In that situation, the IGA would require the different countries to come together in order to discuss their prosecutorial interests. Assuming the three countries could come to an agreement on whose jurisdiction governs, there would not be much of an issue.

Traveling further down the black hole, what happens when Space tourism takes off? With Space tourism, the discussion would involve private citizens and private companies instead of government employees and government entities. As noted by Loren Grush and The Verge, “[I]f someone from the U[nited] S[tates] gets hurt on a private Japanese space hotel, along with other passengers from Spain and Singapore, it’s unclear exactly how to proceed.” The Outer Space Treaty would likely be the start. Yet, countries with companies interested in Space tourism should come together to discuss a new agreement. The new agreement could be modeled after the IGA, but should include an added level of specificity.

As it turns out, keeping pace with crimes in space will be no easy task. Luckily, this will not be a pressing issue anytime in the near future. For now, it is an interesting thing to ponder as our presence in Space grows. The McClain case—despite its relative simplicity—serves as a preview for the more complicated cases that will eventually come.


Who Gets to Speak for Earth? Thoughts on the Anniversary of the Arecibo Message

Will Dooling, MJLST Staffer

November 16th marks the 43rd anniversary of the Arecibo message, an attempt to broadcast a powerful radio signal from the Arecibo Radio Telescope in Puerto Rico to the heart of the Messier 13 galaxy, more than 25,000 light years away. The Arecibo message was largely ceremonial, or experimental, no one seriously expects to hear back. However, the experiment posed interesting questions about how, exactly, humans ought to go about broadcasting messages to extraterrestrials, and who gets to speak for humanity.

If these questions seem far-fetched, that is only because we, as a society, have grown less ambitious in our hopes for space exploration. In the heady days of the early space race, these questions were seriously considered by NASA and the UN. The Arecibo Message was not a lone experiment: both the Pioneer and Voyager space probes, launched at about the same time as the Arecibo message, carried plaques designed to be easily deciphered by whoever, or whatever, would happen upon them in the future. Four decades later, well into the 21st century, we have the first signs of a robust private space industry and serious proposals in place for mining asteroids and lunar tourism but we still have not resolved the questions posed by the Arecibo Message. Who gets to speak for humanity? Should we even be broadcasting right now?

Currently, several large-scale projects are in place with the primary purpose of locating extraterrestrial life in solar systems beyond our own. By far the most ambitious are the continuing efforts of the SETI (Search for Extraterrestrial Intelligence) Institute. SETI is a United States nonprofit organization funded almost entirely by private charitable donations. Some of its largest donors include tech giants William Hewlitt, David Packard, and Paul Allen. SETI largely devotes its time to hunting for radio signals using telescope arrays all over the world. SETI uses this approach because it is relatively easy to hunt for unusual radio signals. A few nations have tried more direct attempts: NASA’s space-based Kepler telescope, and a related French mission called COROT, both launched in part to analyze the chemical composition of planets in nearby solar systems, to see if they could detect chemical compounds that could only form on planets with complex biospheres. FAST (the Five-hundred-meter Aperture Spherical Telescope), completed in 2016, is the largest conventional radio receiver on earth, it was built by China in part to hunt for extraterrestrial radio sources in a manner similar to the US’s SETI.

All these are attempts to locate extraterrestrial life. What should we do if we find any, and should we be sending any more messages in the meantime? The past few years have seen a renewed interest in actively contacting extraterrestrials via Arecibo-like radio broadcasts. (See for example 2017’s Tromsø broadcast from a radio observatory in Norway to the nearby red dwarf star GJ 273). There have even been proposed commercial broadcasts where customers could pay for the novel experience of having personal messages broadcast into space. This increased interest in broadcasting has provoked some controversy: In 2016, a group of prominent “futurists” including astronomer Lucianne Walkowicz and Tesla CEO Elon Musk signed and circulated a letter objecting to any active attempts to contact extraterrestrial life. The letter expressed concern that the content of any deliberate communications should result from international consensus not “a decision based upon the wishes of a few individuals with access to powerful communications equipment.” The letter called for “vigorous international debate by a broadly representative body prior to engaging further in this activity.” It opened with an even more dire observation: “We know nothing of ETI’s [Extraterrestrial Intelligence’s] intentions and capabilities, and it is impossible to predict whether ETI will be benign or hostile.”

Ultimately, active communication with extraterrestrial life is an issue rather like the militarization of space and climate change. It is an international problem that requires international regulatory solutions. Individual actors have little incentive to self-regulate: the presence of any single unregulated actor makes the regulation ineffective. Neither the United Nations Committee on the Peaceful Uses of Outer Space nor the United Nations Office for Outer Space Affairs has taken a position on attempts to broadcast to extraterrestrial civilizations, though they could,and perhaps they should.

It is possible this is not an issue worth considering. It is possible that we are alone in the universe and there is nothing out there to hear us, through this would raise troubling questions of its own. It would mean humanity was a freak exception in an otherwise empty universe. It would mean that every other planet, around every other star, was completely devoid of life. It would be, in a word, weird. The alternative, only slightly less weird, is that something out there has the potential to hear us someday.  In the meantime, perhaps we should engage in “vigorous international debate” on this issue while it is still merely speculative.


In Space We Trust: Regulate the Race

By: Hannah Payne, MJLST Staffer

In 1999, the UN General Assembly launched “World Space Week,” an annual celebration observed from October 4th (the date of Sputnik’s launch in 1957) to October 10th (the day The Outer Space Treaty entered into force in 1967). This year’s theme was “Space Unites the World.” The UN said the theme “celebrates the role of space in bringing the world closer together.” Unfortunately, the words ring hollow in light of the U.S.’s Space Force plans, as well as the recent escalation of inter-planetary militarization by China, Russia and the EU. Additionally, activities of SpaceX and others raise concerns about privatization, space pollution and the plans of the uber-wealthy to leave the world behind. These forces threaten to marginalize the awe-inspiring exploration of space into a scheme concerned only with war, profit, and advancing inequality. The dominance of such interests calls for a coherent system of global space regulation.

Some have observed that many recent activities violate the 1967 Outer Space Treaty, which declared: “The exploration and use of outer space . . . shall be carried out for the benefit and in the interests of all countries, irrespective of their degree of economic or scientific development, and shall be the province of all mankind.” The treaty also states that space and all celestial bodies are unowned and open to exploration by all. The U.S. and over 100 countries signed and ratified it, and America did not reserve the right to alter its obligations, as it often does in agreements. However, with no real international enforcement mechanism and our ceaseless profit-seeking, countries have—and will continue to—disregard the goals of the 1967 agreement. Last year, Ted Cruz expressed excitement that “the first trillionaire will be made in space.” He proposed amending the treaty to foster commercialization – and correct its erroneous assumption that worthy goals exist besides wealth and power. His motive seems to be formalistic, as was Congress’ in 2015 when it declared in the Commercial Space Launch Competitiveness Act that “the United States does not, by enactment of this Act, assert sovereignty . . . exclusive rights . . . or ownership of, any celestial body[,]” but in the same act granted U.S. citizens the right to own and sell any “space resource.” Though the U.S. track record of treaty violations makes their disregard of the agreement perhaps unsurprising, the serious consequences of space militarization and privatization call for critical advancement in space regulation.

From an environmental law perspective, the language of the 1967 treaty evokes the seldom-used Public Trust Doctrine (PTD). Traced back to the Roman era, the Public Trust Doctrine is described as “requir[ing] government stewardship of the natural resources upon which society . . . depends for continued existence.” The PTD places the government/sovereign as the trustee, obligated to protect the rights of the public/beneficiary in the trust, which is comprised of things like navigable waterways. It has mostly been applied to water rights, and successfully reclaimed property for the “public good” in Illinois and California. However, in 2012 the Supreme Court suggested that the PTD is no stronger than state common law. Even so, the doctrine should be remembered by those who think the privileged cannot, by right, hoard or destroy resources – including those in space. In the 1970s, Joseph Sax argued for the PTD’s use as sweeping environmental common law. Some have since theorized about the extension of the PTD to space. These scholars identify issues such as the lack of a sovereign to act as trustee. That problem would not likely be solved by allowing every country to exert self-interested sovereignty in space. At least no one has been so bold as to outright claim the moon – yet.

The PTD is just one tool that may be useful in designing a peaceful move forward. The Expanse, a near-future science fiction series in which humanity has colonized the solar system, offers a thought-provoking look ahead. Earth and the moon are governed by the UN. Mars is a sovereign as well, and the asteroid belt a colonial structure with fractured governance. Space is highly commercialized and militarized, and personal opportunity is hard to come by – but humanity has avoided self-destruction. Their global governance allows for some cooperation between Earth and Mars in space. Depending on one’s dreams of the future, the situation represents an overpopulated, inefficiently run hellscape – or a less-bad option out of the possibilities that now seem likely. It begs the question – how do we expand while avoiding astronomical inequality and self-destruction?

Perhaps it is nearly impossible, but Earth needs real, global regulation of outer space. A weak U.N. cannot do it; private companies and wealthy countries should not be given free reign to try. Last month, the U.N. held the First United Nations Conference on Space Law and Policy.  It’s good to see the international community ramping up these discussions. Hopefully, the PTD’s underlying philosophy of equitable preservation will be central to the conversation. Done right, the exploration of space could be the most inspiring, community-building, and even profitable experience for humanity. If approached thoughtfully, inclusively, carefully –  we could have much more than just a Space Force.


Privatizing the ISS, Deregulating Space Travel, and Making Money

Jon Watkins, MJLST Staffer

 

To many, space feels more exciting than it has been in years. SpaceX launched the Falcon Heavy recently to great fanfare and YouTube’s second-biggest live stream ever; the stream peaked at over 2.3 million concurrent viewers. In a move which is perhaps intended to ride the coattails of this popularity, the Trump administration recently announced a new policy intended to bolster the domestic space industry through deregulation and commercialization. While information discussing what the administration specifically wants to do is somewhat limited, some clues do exist. One of these clues is a NASA internal document which allegedly contains a proposal to turn the International Space Station over to private ownership by 2024.

Coverage of the ISS proposal tends to fall along predictably partisan lines- National Review is head-over-heels for the proposal, while Vox is strongly against it. However, both accounts fail to discuss whether the proposal would actually be legal. National Review suggests that private companies that pay the U.S.’s share of operations on the space station would automatically be permitted to conduct research on board. However, this is anything but clear. The ISS is governed by an inter-governmental agreement (IGA) that each of the fifteen governments involved in the ISS are signatories; Memoranda of Understanding (MOUs) between NASA and each other Space Agency in addition to several contractual and non-contractual agreements between space agencies. The UN Outer Space Treaty and other documents are incorporated into the IGA.

Articles 5 and 9 of the IGA vindicate National Review to some extent- utilization rights and jurisdiction are indeed derived from the provision of goods to the ISS. Article 9(3)(a) of the IGA in particular also seems to imply that private entities selected by partners (like NASA) may use “user elements” of the ISS, even though other private entities would not be able to do so. This probably makes it possible for NASA to transfer their use rights to a private entity, at least insofar as NASA has use rights over a portion of the ISS. However, NASA hasn’t actually provided that much of the ISS– while Russia owns the Zvezda, Pirs, Polsk, and Rassvet modules, NASA only owns the Zarya module outright, and shares ownership of the Destiny, Kibo, and Columbus modules with other agencies. This means that NASA has exclusive rights over a tiny portion of the ISS, and any private entity which purchased NASA’s rights would be forced to share all systems on the station in the same way NASA does currently.

Limiting the user rights to the portions owned by NASA isn’t the only limitation which would be faced by a private entity which were to purchase NASA’s rights in the ISS- the IGA and MOUs are filled with fairly detailed restrictions on behavior and research on the ISS, of which one of the most important is Article 9(5): “Each Partner shall assure access to and use of its Space Station elements to the other Partners in accordance with their respective allocations.” This is essentially an anti-monopolization provision, which is reasonable in the context of an international cooperative project, but may be a highly unappealing provision for a private entity. As another example, Article 11.6 of the MOU between NASA and the Russian Space Agency states that “the entire crew will operate under a single timeline for performance of all operations and utilization activities.” This is a similarly unappealing provision for a private entity which is interested in operating on its own schedule and performing its own research. It is unclear what private entity would want to operate under these restrictions, and no private entity has yet stated that they intend to do so.

Additionally, in what is likely a minor technicality, Article 16.3 of the MOU between NASA and the Russian Space Agency states that “the Parties undertake to grant high priority to their Space Station programs in developing their budgetary plans.” The Trump Administration’s allegedly expressed intent to eliminate government funding for the ISS may violate this provision of the MOU, since it means ISS funding is clearly not a “high priority.”

To be completely fair to the Trump Administration, the path they’ve chosen here is at least predictable. Much of the discussion of permits for switching launchpads in the announcement was referenced earlier in Gwynne Shotwell’s speech in October at the National Space Council, and the general trajectory of the space industry since the second Bush administration has been towards deregulation and commercialization. The Bush administration stated in the NASA Authorization Act of 2005 that NASA should “develop a sustained human presence on the Moon . . . as a stepping stone,” which has more than a facial similarity to the Trump administration’s refocus on developing a lunar base. The Obama administration was likely forced to defund some of these more expensive projects with the NASA Authorization Act of 2010 right after a major recession, but the Obama administration’s 2010 space policy purported to “[lean] farther forward in support of U.S. business interests than any previous space policy,” and recommended that the Federal Government “Minimize, as much as possible, the regulatory burden for commercial space activities.”

Deregulation and commercialization of the American space industry are therefore clearly nothing new. However, what is new are fairly aggressive proposals to use private rockets to get human payloads into space. Private rockets, an external safety report states, are insufficiently safe and an optimistic proposal to privatize NASA’s share of the ISS, a proposal which is likely legal under the international agreements governing the ISS.


Extending the Earth’s Life to Make It Off-World: Will Intellectual Property Law Allow Climate Change to Go Unchecked?

Daniel Green, MJLST Staffer

The National Aeronautics and Space Administration (NASA) recently discovered seven Earth-like planets. Three of these planets are even located the specific distance from the star, Trappist-1, in order to be considered in the proposed “Goldilocks zone” necessary to sustain life, thereby bringing about the conversation of whether a great migration for humanity is in order such as seen in movies of the last ten years such as Passengers, The Martian, Interstellar, even Wall-E. Even Elon Musk and Stephen Hawking have made statements that the human race needs to leave earth before the next extinction level event occurs. The possibility that these planets may be inhabitable presents some hope for a future to inhabit other planets.

Sadly, these planets are forty light years away (or 235 trillion miles). Although relatively near to Earth in astronomical terms, this fact means that there exists no possibility of reaching such a planet in a reasonable time with present technology despite the fact that NASA is increasing funding and creating institutes for such off worldly possibilities. As such, humankind needs to look inward to extend the life of our own planet in order to survive long enough to even consider such an exodus.

Admittedly, humanity faces many obstacles in its quest to survive long enough to reach other planets. One of the largest and direst is that of climate change. Specifically, the rise in the temperature of the Earth needs to be kept in check to keep it within bounds of the two-degree Celsius goal before 2100 C.E. Fortunately, technologies are well on the way of development to combat this threat. One of the most promising of these new technologies is that of solar climate engineering.

Solar climate engineering, also known as solar radiation management, is, essentially, a way to make the planet more reflective in order to block sunlight and thereby deter the increase in temperature caused by greenhouse gases. Though promising, Reynolds, Contreras, & Sarnoff predict that this new technology may be greatly hindered by intellectual property law in Solar Climate Engineering and Intellectual Property: Toward a Research Commons.

Since solar climate engineering is a relatively new scientific advancement, it can be greatly improved by the sharing of ideas. However, the intellectual property laws run directly contrary to this, begging the question as to why would anyone want to hinder technology so vital to the Earth’s survival. Well the answer lies in numerous reasons including the following three:

  • Patent “thickets” and the development of an “anti-commons”: This problem occurs when too many items in the same technological field are patented. This makes patents and innovations extremely difficult to patent around. As such, it causes scientific advancement to halt since patented technologies cannot be built upon or improved.
  • Relationship to trade secrets: Private entities that have financial interests in funding research may refuse to share advancements in order to protect the edge it gives them in the market.
  • Technological lock in: Broad patents at the beginning of research may force others to rely on technologies within the scope of the patent when working on future research and development. Such actions may ingrain a certain technology into society even though a better alternative may be available but not adopted.

There is no need to despair yet though since several steps can be taken to combat barriers to the advancement of solar climate engineering and promote communal technological advancement such as:

  • State interventions: Government can step in so as to ensure that intellectual property law does not hinder needed advancements for the good of humanity. They can do this in numerous action such as legislative and administrative actions, march-in rights, compulsory licensing, and asserting a control over funding.
  • Patent pools and pledges: Patent pools allow others to use one’s patents in development with the creation of an agreement to split the proceeds. Similarly, patent pledges, similarly, limit the enforcement of a patent holder by a promise in the form of a legally binding commitment. Though patent pools have more limitations legally, both of these incentivize the concept of sharing technology and furthering advancement.
  • Data commons: Government procurement and research funding can promote systematic data sharing in order to develop a broadly accessibly repository as a commons. Such methods ideally promote rapid scientific advancement by broadening the use and accessibility of each advancement through the discouragement of patents.

Providing that intellectual property laws do not stand in the way, humanity may very well have taken its first steps in extending its time to develop further technologies to, someday, live under the alien rays of Trappist-1.


EmDrives: The End of Newtonian Physics?

Peter Selness, MJLST Staffer

The EmDrive has been the center of much controversy over the past decade, and rightfully so.  But what exactly is an EmDrive, and why does it have the scientific community at odds with one another over the underlying science behind it?  The EmDrive is a type of propulsion system that was first designed by Roger Shawyer in 2001.  Essentially, it is a RF resonant cavity thruster that relies on electro magnetic radiation projected into the cavity of a cone to produce thrust.

The EmDrive was met with no small amount of criticism when first proposed because it is what is known as a propellantless propulsion system in that it consumes no fuel when producing thrust.  Not only does it consume no fuel, however, it also appears to only produce force in one direction, thus contradicting Newton’s third law of “for every action there is an equal and opposite reaction.”  Such a proposition has been compared to standing on the deck of a sailboat and pushing on the mast to propel it across a lake, or the old adage of “pulling yourself up by your bootstraps.”  The implications of such a device means that our understanding of physics as it relates to Newton’s third law (which has been relied upon for centuries) is either not entirely understood yet by humanity, or is completely wrong; which is largely why the EmDrive has received such criticism from the scientific community.

And yet, there are multiple confirmed reports of EmDrive testing resulting in this unexplainable thrust that have arisen independently from Roger Shawyer.  Even NASA conducted testing on EmDrives in 2014 and reported measuring a thrust produced by the device.  A similar experiment was then carried out by NASA again in 2015 to correct for some reported errors from the first test, but thrust was surprisingly recorded again despite the corrections.  Also, an EmDrive paper has finally been accepted by peer review by the American Institute of Aeronautics and Astronautics, granting the technology more authority from critics.

Interestingly enough, legal developments have also granted significant legitimacy to the EmDrive.  Roger Shawyer currently has three patents granted on the EmDrive, while two more are still going through the patent process.  Being granted three patents from the UK IP Office means that the physics behind the EmDrive has been thoroughly examined and was found to not violate the laws of physics, as such a violation would inevitably have lead to the patent applications being denied.  Furthermore, Shawyer’s most recent patent, as of October 12th, was filed more than 18 months ago, allowing the patent office to disclose the information contained to the public.  Such a public disclosure should in turn allow for greater scrutiny of Shawyer’s more recent efforts in developing the EmDrive.

The implications of the EmDrive being accepted as a legitimate technology are immense.  First of all, a working propellantless propulsion system would allow for future space craft to be much lighter and cheaper without requiring large amounts of rocket fuel for each take off.  It also would allow for much faster space travel, possibly allowing humans to reach the outer limits of our solar system in a matter of years and Mars within only a few months.  Furthermore, outside its space propulsion systems applications, there’s really no limit to what it may be applied to.

Despite passing several hurdles in recent years, however, the EmDrive is still a long way from leading us to interstellar travel.  The testing conducted by NASA, while showing positive results, also recorded thrust of a force just slightly higher than the magnitude of error for the experiment.  Also, while this positive result allowed it to pass peer review, that does not necessarily mean that the technology is sound and will not later be found to have flaws.  In all likelihood, the chances of a new technology being discovered that, for the first time, violates the laws of physics as we have known them for hundreds of years is a far less likely result than finding some sort of experimental error in the technology.  But maybe, just maybe, this could be the end of Newtonian physics as we know it.


Westward (And Then Some) Expansion: One Theory of Property Rights on the Moon and Mars

Jordan Rude, MJLST Staffer

Recently a friend of mine received, for his birthday, a deed to one acre of land on Mars. That’s right—he is the proud owner of property located approximately 34 million miles from Earth. This is possible thanks to the efforts of various (and often interconnected) websites such as Buy Mars, Buy Planet Mars, Lunar Registry, and Lunar Land. While selling extraterrestrial property is not a recent development (see here and here), and there does not appear to be any recent lawsuits regarding this practice, these methods still deserve scrutiny. With the rapid advancement of technology in recent decades and increasing participation by private companies in space programs (SpaceX recently tested a Mars-capable rocket), human settlement on the Moon and Mars is becoming a possibility (albeit a distant one) within our lifetimes. At that point, property ownership will become an important and possibly contentious issue. For the millions of people who have bought land on the Moon and Mars, the question of whether their claims will be recognized in such a situation is a not insignificant one.

Some of these websites claim to have legal standing for their ownership of property on Mars. Consider Buy Mars (owned by Lunar Land). Under the heading “Lunar Land’s Legal Right To Offer Planet Mars Land,” the site makes reference to the U.N. Outer Space Treaty of 1967 as well as the tradition “dating back to early U.S. settlers” of staking a claim on surveyed land through the U.S. Office of Claim Registries. The Outer Space Treaty has been previously discussed by this blog (in a different context). Suffice it to say that this treaty prohibits countries from claiming ownership of land on Mars and other extraterrestrial property, but says nothing about individuals or corporations. Thus, the argument would be that Buy Mars, because it is not a sovereign nation, is not subject to the treaty specifically prohibiting claims of ownership on Mars.

Beyond the lack of a direct prohibition, Buy Mars also claims historical precedent as an affirmative justification. This reference to historical precedent is problematic for two reasons: first, the U.S. Office of Claim Registries does not exist, and likely never existed; and second, this is not an accurate statement of the process by which the West was settled. In fact, the federal government sold the land—first as townships and other large plots, and later in smaller, more affordable plots, before finally offering land for free under the Homestead Act of 1862 (see Michael C. Blumm & Kara Tebeau, Antimonopoly in American Public Land Law, 28 Geo. Envtl. L. Rev. 155, 165–71 (Winter 2016)). That is, the federal government owned the land it sold to speculators and other settlers (though this ownership came more or less from the government declaring it to be so, not dissimilar to what Buy Mars has done). So, because the U.S. government does not own land on Mars that it could sell to Buy Mars (to then sell to us), on its face the claimed historical precedent is not in fact proof of the legality of the process.

However, setting aside the flaws in Buy Mars’ formulation of the argument, let’s assume that the principles of westward expansion can be applied to property on Mars—would this type of claim survive a legal challenge?

Most likely it would not. Construing the westward expansion analogy narrowly, the U.S. government would have to first own land on Mars and then distribute it to corporations like Lunar Land or individuals. This is clearly prohibited by the Outer Space Treaty. That being said, if a company like SpaceX lands on Mars, the Outer Space Treaty would potentially not restrict its ability to claim land. At that point, it is unclear what the legal policies governing ownership would be. In that situation, a process loosely similar to westward expansion could be utilized, wherein a larger entity (in this case a large company) distributes land to newcomers. The key difference between the Buy Mars argument and SpaceX landing on Mars would be the latter company’s physical presence on the planet—an important aspect of making such property claims and the most likely way to get around the Outer Space Treaty. This could be extremely lucrative for SpaceX but problematic for those who have already purchased land on Mars. Ultimately, the websites currently offering land on the Moon or Mars do not have legal standing to do so, and any person who bought such land is unlikely to find legal protections should the need arise. The law in this field is very uncertain, if it exists at all, and the day may come where a true answer is needed.

Of course, the legal implications of this process should not deter you from investing in extraterrestrial property for the fun of it. My friend’s deed comes from Buy Planet Mars, whose website makes quite clear, in the FAQ section, that the deed is “a novel gift and for entertainment purposes only.”


Geostationary Earth Orbit: Property for the Space Age

Ian Blodger, MJLST Note & Comment Editor

The past several years have seen great advances in space based technology and exploration. Most recently, scientists used the LIGO to prove the existence of gravitational waves. While the two detectors used to make this discovery were located in the United States, scientists have plans to deploy more advanced and precise measuring tools in space, likely in Geostationary Earth Orbit (GEO). GEO’s unique properties make it a perfect choice for this and similar satellite technology. Essentially, GEO is an orbital path around Earth where satellites remain in a fixed position above a specific point on Earth. This aspect of GEO makes it easier for the satellite to communicate with Earth based operations because the satellite operator does not need tracking technology to follow the satellite, but can simply build a stationary receiver. One additional result of GEO is that satellites that enter this orbital path remain there forever unless they are pushed out of orbit somehow. This is distinct from satellites in Low Earth Orbit (LEO) where satellites are not fixed above one point on Earth and remain for only a few years. This gives GEO satellites an additional advantage of reducing costs over the long term because operators do not need to replace them with the same frequency as LEO satellites. With the special conditions and long term cost savings of GEO, it is no wonder that more and more satellite operators and manufacturers are interested in placing a satellite in GEO.

One issue that will become more important as satellite operators continue to utilize GEO’s special attributes is the issue of property rights. Currently, satellite operators who place a satellite in GEO have no property right over that orbital position. In my Note “Reclassifying Geostationary Earth Orbit as Private Property: Why Natural Law and Utilitarian Theories of Property Demand Privatization,” recently published in Volume 17 of the University of Minnesota Journal of Law Science & Technology, I argue that this lack of a defined property right is both contrary to the underlying theoretical assumptions of various space treaties, and that granting a property right would be a good idea from a utilitarian perspective.

Allowing individuals to obtain property rights over a region of space makes sense from a natural law perspective. The various space treaties cite natural law for the proposition that an individual cannot own space, likening the vast emptiness to the sea. Under traditional natural law theory, the sea is not subject to homesteading and other means of property acquisition because it is so large and is not capable of being contained. However, Grotius, the natural law philosopher most responsible for this theory argued that when an area of the sea was slightly separated and could be wholly controlled, then property rights could exist.

While space generally is more like the uncontrollable sea, GEO is more akin to small inlets capable of control. First, GEO only comprises a small area of space; if satellites are too close to Earth or too far, they will not maintain their synchronicity with the planet’s rotation. Second, objects placed in this orbit will remain in a fixed position relative to the Earth. This is different than a ship on top of the ocean that moves with the waves and tides relative to shore. Finally, individuals who place satellites in orbit expend large amounts of money and energy to do so, and therefore meet the labor requirement expressed by both Grotius and Locke’s theories of property.

Granting property rights over certain portions of GEO makes sense from a utilitarian approach as well. This approach to property looks to see whether leaving things in common causes more harm than benefits. In this case, the tragedy of the commons has caused large costs and dangers that could be rectified by allowing GEO property rights. First, without property rights, individuals have little incentive to ensure their satellites leave orbit after failure. Under the current approach to GEO, satellite operators have little incentive to move their satellites to a graveyard orbit following failure because they can obtain another, similar, GEO position and do not have to worry about selling the inhabited position at a loss. With property rights over these positions, there would be a great incentive to move the satellite to a graveyard orbit to secure the best price for the position. Second, because no satellite operator has a property right which is harmed by space debris in the area, manufacturers create a race to the bottom in terms of quality parts, which in turn results in malfunctions and potentially more debris in the area. This leads to debris defense costs, such as special plating to deflect debris, that add up over the long term. Thus, a utilitarian approach to property yields the same result as the natural law: satellite operators should obtain a property right over GEO.

This is an interesting and fast moving area of law, and the decisions we make now can have great impacts on the future of space operations, especially considering debris in GEO will remain there forever.


Name that Star

Quang Trang, MJLST Staffer

For space lovers out there, the opportunity to name a star after a loved one sounds like a nice romantic gift for Valentine’s Day. The issue of whether this is actually allowed is somewhere between yes and no.

The main authority in naming astronomical objects is the International Astronomical Union (IAU). The goal of the IAU when formed in 1919 is to “to promote and safeguard the science of astronomy in all of its aspect through international cooperation.” Part of the IAU’s authority in its scientific mission promoting and safeguarding astronomy is the duty of being “the arbiter of planetary and satellite nomenclature.” In normal English, the IAU is the organization that decided Pluto does not qualify to be a planet.

Although the IAU is the leading authority in astronomical nomenclature, the organization still refuses to commercialize outer space by selling the rights to name space objects, such as stars. Due to the IAU being an international scientific organization, it does not have the authority nor the interest in outlawing such a practice. There are many services that would allow you to pick an unregistered star and name it for a fee. However, these multiple services are unrelated and have different databases. Essentially, a star you named with one service may be already be registered under a different name with a different service. Prominent star-naming services such as the International Star Registry are aware of its unofficial status. Rocky Mosele of ISR said “I think people are OK that it’s not official. I’m sure of it. I know because customers call again and again and again.” The ISR’s claims to not mislead any of its customers because it never once claimed to be official.

With each registration costing as much as fifty dollars, one might ask why the IAU does not participate in such a business. The organization would be an industry leader with the ability to give these registered names official status. The proceeds could be used to fund various projects. After receiving many requests to from private individuals to name stars, the IAU explains its policy to stay out of such an enterprise: Thus like true love and many other of the best things in human life, the beauty of the night sky is not for sale, but is free for all to enjoy.