Who Owns the Asteroids? The Legal Vacuum in Space Mining

<v Speaker 1>Welcome to Bedtime Astronomy. Explore the wonders of the cosmos
<v Speaker 1>with our soothing Bedtime Astronomy podcast. Each episode offers a
<v Speaker 1>gentle journey through the stars, planets, and beyond, perfect for
<v Speaker 1>unwinding after a long day. Let's travel through the mysteries
<v Speaker 1>of the universe as you drift off into a peaceful
<v Speaker 1>slumber under the night sky.
<v Speaker 2>Imagine imagine a gold rush, but instead of pickaxes, mules,
<v Speaker 2>and dusty riverbeds in California, you have autonomous spacecraft, ion thrusters,
<v Speaker 2>and high powered lasers. Right, And instead of a stream,
<v Speaker 2>the gold is moving it roughly twenty thousand miles per
<v Speaker 2>hour in the absolute vacuum of space.
<v Speaker 3>And here is the kicker to that whole scenario. There
<v Speaker 3>is no sheriff, there is no mayor, There isn't even
<v Speaker 3>a map exactly.
<v Speaker 2>We are taking a deep dive today into something that
<v Speaker 2>sounds well, it sounds like science fiction, but it has quietly,
<v Speaker 2>almost deceptively, become a business reality as of this very month,
<v Speaker 2>February twenty twenty six. We are talking about asteroid mining.
<v Speaker 3>Yeah, and we are just looking at the cool rockets
<v Speaker 3>or the stock prices. We're looking at a pretty fascinating
<v Speaker 3>stack of research, specifically a new paper out this month
<v Speaker 3>and Act to Astronautica by doctor Anna Marie Brennan from
<v Speaker 3>the University of Waikato in New Zealand.
<v Speaker 2>And this paper is essentially a fire alarm. It's a
<v Speaker 2>wake up call saying, hey, that technology is ready, the
<v Speaker 2>companies are launching, the hardware is in the void. But
<v Speaker 2>the rule book we lost the rule book forty years ago.
<v Speaker 3>Which is exactly the core conflict we are unpacking for
<v Speaker 3>you today. It's this massive race between engineering, which is
<v Speaker 3>moving at warp speed, and international diplomacy, which is moving
<v Speaker 3>at the speed.
<v Speaker 2>Of the un which is to say, glacial, very glacial. Right,
<v Speaker 2>So here is our mission for this deep dive. We
<v Speaker 2>are going to walk you through the actual hardware operating
<v Speaker 2>right now, not the plans, not the CGI renderings, but
<v Speaker 2>the actual metal in space. Then we're going to pivot
<v Speaker 2>to the why why are people freaking out about the
<v Speaker 2>legal side?
<v Speaker 3>And finally we're going to look at the proposed solutions
<v Speaker 3>to stop space from becoming a literal wild West.
<v Speaker 2>And sticking with us is totally worth it because doctor
<v Speaker 2>Brennan introduces a concept called irreparable breakage. It sounds like
<v Speaker 2>a warranty clause you'd find on a toaster, but it's
<v Speaker 2>actually this profound philosophical argument about whether humans have the
<v Speaker 2>right to destroy a celestial body. It flips the whole
<v Speaker 2>script on environmentalism.
<v Speaker 3>I love that concept. We will definitely get there, but
<v Speaker 3>first let's ground this for the listener, because I think
<v Speaker 3>a lot of people hear asteroid mining and they think
<v Speaker 3>of that movie Armageddon, or they think of distant futures
<v Speaker 3>like the expanse. But the source material makes it incredibly
<v Speaker 3>clear that this is happening right now.
<v Speaker 2>It really is. As of February twenty twenty six, we
<v Speaker 2>have moved past the PowerPoint phase. We are in the
<v Speaker 2>hardware phase. The research points to two specific commercial players
<v Speaker 2>that are defining this landscape right now, astro Forge and
<v Speaker 2>Carmen Plus are.
<v Speaker 3>Let's start with astro Forge because this isn't a government agency,
<v Speaker 3>this isn't some multinational defense contract. This is a startup.
<v Speaker 2>So what are they actually doing up there right now?
<v Speaker 3>So ashquart is really interesting because they are laser focused
<v Speaker 3>pun intended on refining platinum group metals. Their current mission,
<v Speaker 3>which is highlighted heavily in. The research is called vestry,
<v Speaker 3>and the operational objective here is huge. They are attempting
<v Speaker 3>a landing on a metallic asteroid.
<v Speaker 2>Let's pause on that word, a landing, because historically, when
<v Speaker 2>NASA goes to an asteroid, like the Osiris REX mission
<v Speaker 2>to Benu a few years back, it's usually a touch
<v Speaker 2>and go maneuver. They high five the asteroid, grab some dust,
<v Speaker 2>and leave.
<v Speaker 3>Exactly a touch and go is brief. Vestry is designed
<v Speaker 3>to land and stay. It implies permanence, and technically, physically
<v Speaker 3>that is.
<v Speaker 2>A nightmare because of the gravity.
<v Speaker 3>Right, you have to understand the environment. You are trying
<v Speaker 3>to land on a rotating rock with almost zero gravity.
<v Speaker 3>If you push a drill down into the surface, Newton's
<v Speaker 3>third law kicks in and the physics of it just
<v Speaker 3>pushes your spacecraft up in a way.
<v Speaker 2>It's like trying to drill a hole in a wall
<v Speaker 2>while you're floating in the middle of a swimming pool.
<v Speaker 3>That is a perfect analogy. You need anchoring, you need
<v Speaker 3>active stabilization, you need harpoons or gripping mechanisms and astro forges.
<v Speaker 3>Is attempting this on a shoe string budget compared to NASA.
<v Speaker 2>And then you have the other player, Carmen plus B.
<v Speaker 2>Their profile is slightly different, but equally ambitious.
<v Speaker 3>Right yeah, Carmen plus is focused on the recovery of
<v Speaker 3>a multi kilogram sample. Now put that in perspective. NASA's
<v Speaker 3>Osyrus rex brought back about one hundred and twenty grams.
<v Speaker 3>That was considered a massive historic success.
<v Speaker 2>Right.
<v Speaker 3>Carmen plus wants kilograms. Their mission is essentially a proof
<v Speaker 3>of concept for zero gravity expivation. They aren't just scraping
<v Speaker 3>the surface. They want to dig. They want to prove
<v Speaker 3>that industrial extraction processes can actually work in a microgravity environment.
<v Speaker 2>This is where the economic context from the research gets
<v Speaker 2>a little scary to me. The paper makes a really
<v Speaker 2>sharp point about budgets. When NASA or the ESA does this,
<v Speaker 2>they have billions of dollars, They have teams of thousands,
<v Speaker 2>every single line of code, they have a redundancy. On
<v Speaker 2>top of redundancy.
<v Speaker 3>If a valve fails on a NASA probe, there are
<v Speaker 3>usually two backup valves exactly.
<v Speaker 2>But these startups, they are operating on what the industry
<v Speaker 2>calls shoe string budgets.
<v Speaker 3>Which you know, in aerospace terms, is still millions of dollars,
<v Speaker 3>but compared to a state agency, it's nothing, and that
<v Speaker 3>matters for you, the listener because of the risk calculus.
<v Speaker 3>When you are a startup burning venture capital cash, you
<v Speaker 3>have a runway, You have a finite amount of time
<v Speaker 3>to show results before the money runs out and the
<v Speaker 3>lights go off. That creates immense systemic pressure to cut corners.
<v Speaker 3>Maybe you skip that third backup valve. Maybe you shorten
<v Speaker 3>the simulation testing period by a month to make a
<v Speaker 3>launch window.
<v Speaker 2>So you have high speed projectiles, explosives, heavy drills, all
<v Speaker 2>operated by companies that are basically racing against bankruptcy.
<v Speaker 3>That is the cocktail, and that brings us directly to
<v Speaker 3>doctor Brennan's research. She argues that because these are private
<v Speaker 3>companies with profit motives, not scientific agencies with prestige and
<v Speaker 3>safety motives, the probability of something going wrong, reckless behavior, accidents,
<v Speaker 3>corner cutting is just vastly higher.
<v Speaker 2>Okay, so let's say something goes wrong or honestly, even
<v Speaker 2>if it goes perfectly right. This leads us to the
<v Speaker 2>environmental framework, which I found to be the most brain
<v Speaker 2>breaking part of the reading.
<v Speaker 3>It is deeply counterintuitive, forces you to completely rethink what
<v Speaker 3>nature actually is completely.
<v Speaker 2>Because usually when we talk about environmental protection, we are
<v Speaker 2>talking about biology. We are talking about saving the whales,
<v Speaker 2>or protecting the rainforest from logging, or keeping mercury out
<v Speaker 2>of the water table so kids don't get sick.
<v Speaker 3>Biological receptors, things that can feel pain, get sick or die.
<v Speaker 2>Right, But an asteroid is a dead rock in a vacuum.
<v Speaker 2>There are no whales, there is no water table, there
<v Speaker 2>isn't even air. So the skeptical listener might be asking,
<v Speaker 2>who cares? Why do we need environmental regulations for a
<v Speaker 2>lump of nickel floating in the void.
<v Speaker 3>That's the standard counter argument. You can't pollute a dead rock.
<v Speaker 3>If I smash a rock in my backyard, nobody calls
<v Speaker 3>the EPA. But doctor Brennan introduces that term we mentioned earlier,
<v Speaker 3>irreparable breakage.
<v Speaker 2>Break that down for us, because this is the absolute
<v Speaker 2>crux of the argument.
<v Speaker 3>So irreparable breakage is the idea that the asteroid itself
<v Speaker 3>has inherent physical integrity. To mine it, to extract the
<v Speaker 3>iron or the water or the platinum, you have to
<v Speaker 3>destroy it. You are fundamentally altering its mass, its orbit,
<v Speaker 3>its physical structure. You are turning a mountain into gravel.
<v Speaker 3>Once you process an asteroid, it is gone. You can
<v Speaker 3>never ever put it back together.
<v Speaker 2>It's the humpty dumpty rule of astrophysics exactly.
<v Speaker 3>And the argument doctor Brennan makes is that even without biology,
<v Speaker 3>these bodies have three distinct types of non monetary value
<v Speaker 3>that we are destroying. We are trading these values for cash,
<v Speaker 3>and once the trade is made, we can't reverse it.
<v Speaker 2>Let's walk through those three pillars, because this really changes
<v Speaker 2>how you look at the night sky.
<v Speaker 3>The first is scientific value. Think of an asteroid not
<v Speaker 3>as a rock, but as a library. These rocks are
<v Speaker 3>four point five billion years old. They are the leftovers,
<v Speaker 3>the crumbs from the formation of the Solar system. They
<v Speaker 3>hold pristine isotopic data that tells us how Earth was formed,
<v Speaker 3>where our water came from, maybe even where the basic
<v Speaker 3>chemical ingredients for life came from.
<v Speaker 2>So if you grind it up to make iPhone parts.
<v Speaker 3>You've erased the library. You've burned the history books to
<v Speaker 3>keep the house warm. We might get some platinum out
<v Speaker 3>of it, but we lose the knowledge of our own
<v Speaker 3>origins forever.
<v Speaker 2>That's a powerful image. What's a second pillar.
<v Speaker 3>Cultural value? This one is a bit more abstract, but
<v Speaker 3>think about it. Certain celestial bodies hold a specific status
<v Speaker 3>in human heritage or imagination. We name them, we track them.
<v Speaker 3>They are part of the landscape of our system. If
<v Speaker 3>we just erase them from the sky, we are altering
<v Speaker 3>the environment that humanity has looked up at from millennia.
<v Speaker 3>And the third pillar, the third is the one that
<v Speaker 3>I think will resonate most with the tech savvy crowd
<v Speaker 3>or the sci fi fans. Future economic or habitat value.
<v Speaker 2>This is the sci fi angle. But the physics are
<v Speaker 2>completely real.
<v Speaker 3>The physics are solid. There is a strong, long theoretical
<v Speaker 3>argument that near Earth asteroids anya's are the best real
<v Speaker 3>estate we will ever have. You don't live on an asteroid,
<v Speaker 3>you live in it, right. Hollow it out, yes, you
<v Speaker 3>hollow it out, spin it up to create centripetal force
<v Speaker 3>that mimics gravity, and use the thick, rocky shell as
<v Speaker 3>a shield against cosmic radiation.
<v Speaker 2>Because radiation is the big killer in space. If you
<v Speaker 2>build a tin Can space station, you just get cooked.
<v Speaker 2>But if you have ten meters of solid rock between you.
<v Speaker 3>And the Sun, you are safe. So the argument is,
<v Speaker 3>if we pulverize these bodies now for immediate resource gratification.
<v Speaker 3>If we grind them into dust to get the metal
<v Speaker 3>out today, we are destroying the potential real estate of
<v Speaker 3>future human settlement tomorrow.
<v Speaker 2>So by mining them for raw materials now, we might
<v Speaker 2>be destroying the only viable housing for our great grandchildren.
<v Speaker 3>Exactly, we are stripping the copper wiring out of the
<v Speaker 3>house before we've even moved in. It's a classic short
<v Speaker 3>term gain for a long term lost scenario, and.
<v Speaker 2>The biggest example of this risk. The crown jewel of
<v Speaker 2>the problem is Psyche.
<v Speaker 3>Oh Psyche, the queen of the asteroid belt.
<v Speaker 2>Tell us about Psyche. Why is this one rock so
<v Speaker 2>intensely important?
<v Speaker 3>It's a beast. It's not just a rock, we believe,
<v Speaker 3>it's the exposed core of a proto planet that was
<v Speaker 3>destroyed billions of years ago. Imagine a planet like Mars,
<v Speaker 3>but strip away all the crust and the mantle, leaving
<v Speaker 3>just the raw iron nickel core. That's Psyche. The scientific
<v Speaker 3>value is incalculable. It's a literal window into the center
<v Speaker 3>of a planet. We can't drill to the center of Earth,
<v Speaker 3>but we can fly to Psyche. But undercurrent laws, under
<v Speaker 3>current laws, Psyche is just a rock. There is absolutely
<v Speaker 3>no legal distinction between Psyche and some random piece of
<v Speaker 3>gravel tumbling past Mars. If Astra Forge or Carmen Plus
<v Speaker 3>or anyone else at the propulsion to get there and
<v Speaker 3>the drills to cut it, they could legally turn that
<v Speaker 3>protoplanetary core into paper clips.
<v Speaker 2>That is the first mover problem, doctor Brennan WARN's about
<v Speaker 2>there's no mechanism to say stop this one as a
<v Speaker 2>national park.
<v Speaker 3>Right. We have UNESCO World Heritage Sites on Earth. We
<v Speaker 3>protect the Pyramid, we protect Antarctica, we even protect shipwrecks
<v Speaker 3>like the Titanic. But in space it's first come, first served.
<v Speaker 3>If you can catch it, you can keep it.
<v Speaker 2>I want to pivot to the other environmental fear, which
<v Speaker 2>is less about preserving the rock itself and more about
<v Speaker 2>protecting what's around it, The debris issue, the kinetic hazard. Right.
<v Speaker 2>The fear is that if these budget constrained startups start
<v Speaker 2>blasting rocks apart, they create a cloud of shrapnel a
<v Speaker 2>shotgun blast in space, and that debris could hit other
<v Speaker 2>probes or satellites or even other mining craft.
<v Speaker 3>Now, this is a very valid concern in low earth
<v Speaker 3>orbit or Leo. That's where all our satellites are, and
<v Speaker 3>it's incredibly crowded. We worry about the Kessler syndrome. There
<v Speaker 3>a chain reaction of collisions that traps us on Earth.
<v Speaker 3>But here regarding the amsteroid belt, we actually need to
<v Speaker 3>push back a little bit on the paper, or at
<v Speaker 3>least add some crucial astrophysical context.
<v Speaker 2>We have to do the math.
<v Speaker 3>We have to do the math. Doctor Brennan raises the
<v Speaker 3>debris concern, and legally she is right. We need liability
<v Speaker 3>rules for it. If I break a rock and it
<v Speaker 3>hits your spaceship, obviously pay for it. But astrophysically, the
<v Speaker 3>physical risk of that actually happening is incredibly.
<v Speaker 2>Low because space is just big.
<v Speaker 3>It is mind bogglingly big. When you see asteroids in
<v Speaker 3>movies like in The Empire Strikes Back, Hans Solo is
<v Speaker 3>dodging rocks every two seconds, it's this chaotic field of
<v Speaker 3>flying stones. In reality, even in the densest part of
<v Speaker 3>the main asteroid belt, the average distance between objects is
<v Speaker 3>about one million kilometers.
<v Speaker 2>One million kilometers that is two and.
<v Speaker 3>A half times the distance from the Earth to the Moon.
<v Speaker 3>So you could explode an asteroid, turn it into a
<v Speaker 3>million pieces, and the chance of one of those pieces
<v Speaker 3>hitting another asteroid or another spacecraft is statistically negligible.
<v Speaker 2>So the debris cloud just dissipates, It.
<v Speaker 3>Just floats away into the void. It becomes literal dust
<v Speaker 3>in the wind. The spatial volume is so vast that
<v Speaker 3>dispersal happens almost immediately.
<v Speaker 2>So the space debris argument for asteroids is a bit
<v Speaker 2>of a red hair.
<v Speaker 3>It's not a zero risk, but compared to the legal
<v Speaker 3>risk of someone stealing a planet's core, it's minor. The
<v Speaker 3>vacuum of space is a very forgiving place for dust.
<v Speaker 3>The real problem isn't the dust. It's the lawyers.
<v Speaker 2>It's always the lawyers. Let's get into that, the jurisdictional vacuum,
<v Speaker 2>because this is where the rubber really meets the road.
<v Speaker 2>If I am the CEO of a mining company today,
<v Speaker 2>what laws do I actually have to follow?
<v Speaker 3>You are looking at a mishmash, that is the technical
<v Speaker 3>legal term. You have a stack of contradictory treaties that
<v Speaker 3>have no enforcement power and national laws that might not
<v Speaker 3>be recognized by anyone else.
<v Speaker 2>Lay them out for us. Where does this whole legal
<v Speaker 2>framework start?
<v Speaker 3>Okay, the grandfather of them all is the Outer Space
<v Speaker 3>Treaty of nineteen sixty seven. The ost This was written
<v Speaker 3>during the absolute height.
<v Speaker 2>Of the Cold War, so the vibe was basically, please
<v Speaker 2>don't put dukes on the Moon.
<v Speaker 3>Precisely, it was about preventing a supervillain base. It states
<v Speaker 3>clearly that no nation can claim sovereignty over a celestial body.
<v Speaker 3>The US cannot plan a flag on Mars and say
<v Speaker 3>this is now America. The Soviet Union couldn't claim the Moon.
<v Speaker 3>It was entirely about keeping the peace between the superpowers.
<v Speaker 2>But it doesn't say anything about elon Musk, and.
<v Speaker 3>That is the massive loophole. It is completely silent on
<v Speaker 3>private corporations. It says nations can't own space, it doesn't
<v Speaker 3>explicitly forbid a private company from extracting resources. It's an
<v Speaker 3>interpretive gray area wide enough to fly a starship through.
<v Speaker 2>So they tried to fix this later, right, yeah, because
<v Speaker 2>they realized the gap.
<v Speaker 3>They did in nineteen seventy nine they drafted the Moon Agreement.
<v Speaker 3>This is often called the Communist Manifesto of space law,
<v Speaker 3>mostly by its critics. It declared space resources the common
<v Speaker 3>heritage of mankind.
<v Speaker 2>That sounds lovely on paper, What does it actually mean.
<v Speaker 3>In practice, it basically said, if you mine it, you
<v Speaker 3>have to share the benefits with everyone. You can't just
<v Speaker 3>keep the gold, you have to distribute the wealth to
<v Speaker 3>all nations, specifically developing nations. It called for a strict
<v Speaker 3>international regime to govern any exploitation.
<v Speaker 2>Let me guess the US and Russia didn't love that idea.
<v Speaker 3>They hated it. The major spacefaring nations absolutely refused to
<v Speaker 3>sign it. They argued it would instantly kill the incentive
<v Speaker 3>for commercial investment. Why would I spend billions of dollars
<v Speaker 3>in risk bankruptcy to go to an asteroid if I
<v Speaker 3>have to give the profit away to a country that
<v Speaker 3>didn't invest anything. So in international law, if the big
<v Speaker 3>players don't sign a treaty, it's basically just a nice
<v Speaker 3>piece of paper. It holds no customary weight.
<v Speaker 2>So we have a Cold War relic that's way too vague,
<v Speaker 2>and a socialist utopia treaty that nobody actually.
<v Speaker 3>Signed exactly, and into that void steps the United States
<v Speaker 3>Congress with the Space Act of twenty fifteen. This was
<v Speaker 3>a total mic drop. The US unilaterally passed a federal
<v Speaker 3>law saying if an American citizen or an American company
<v Speaker 3>recovers a resource from an asteroid, they own it period.
<v Speaker 2>That feels incredibly aggressive. That feels like finding a loophole
<v Speaker 2>in the Outer Space Treaty and just ripping it wide open.
<v Speaker 3>It is aggressive. It stands in direct tension with the
<v Speaker 3>spirit of those international treaties. And what it effectively created
<v Speaker 3>is a flag of convenience system for space, like with shipping.
<v Speaker 3>Exactly like shipping. You know how cruise ships register in
<v Speaker 3>Panama or Liberia to avoid strict taxes and labor laws. Now,
<v Speaker 3>space mining companies incorporate in the US or Luxembourg because
<v Speaker 3>Luxembourg passed a similar law just to get legal protection
<v Speaker 3>for their mining activities.
<v Speaker 2>But this creates a massive liability gap globally.
<v Speaker 3>It is the ultimate lawyer's nightmare. Imagine the scenario. An
<v Speaker 3>American company, Astroforge, lands on an asteroid. A Chinese company
<v Speaker 3>arrives three days later and says, actually, we claim this.
<v Speaker 3>The American company says, according to the US Space Act,
<v Speaker 3>it's ours. The Chinese company says, we didn't sign the
<v Speaker 3>US Space Act. We don't recognize your domestic law. Who
<v Speaker 3>do you call.
<v Speaker 2>There's no space.
<v Speaker 3>Police, there is no court, there is no arbiter. If
<v Speaker 3>that dispute turns kinetic, if someone pushes someone else's rover
<v Speaker 3>or cuts a fuel line, there is no framework to
<v Speaker 3>resolve it other than brute force or diplomatic shouting matches
<v Speaker 3>back on Earth.
<v Speaker 2>This is exactly why doctor Brennan is screaming for a
<v Speaker 2>new paradigm.
<v Speaker 3>We need a referee, right, and the model she proposes
<v Speaker 3>in the Act to Astronautica paper is really interesting. She
<v Speaker 3>points to the ocean. Specifically, she points to the International
<v Speaker 3>Seabed Authority or ISO.
<v Speaker 2>The ISA manages the deep ocean floor, right, the stuff
<v Speaker 2>outside any specific country's.
<v Speaker 3>Borders direct the global commons. The logic is parallel. The
<v Speaker 3>deep ocean belongs to no one, just like space. So
<v Speaker 3>the ISA was created to issue permits, monitor pollution, and
<v Speaker 3>ensure that deep sea mining doesn't destroy the ocean ecosystem.
<v Speaker 3>Doctor Brennan says, copy paste this for space. Create a
<v Speaker 3>World Space Authority.
<v Speaker 2>What would that realistically look like?
<v Speaker 3>She outlines three main pillars. First, an independent international monitoring
<v Speaker 3>mechanism essentially space inspectors. Second, mandatory environmental impact assessments or
<v Speaker 3>EIAs before you're even allowed to launch, And third, an
<v Speaker 3>adjudicatory body for dispute resolution a space court.
<v Speaker 2>It sounds totally logical on paper standard as the rule,
<v Speaker 2>but and this is a massive butt. We have to
<v Speaker 2>look at how the ISIC is actually doing down here
<v Speaker 2>on Earth because my understanding is that deep sea mining
<v Speaker 2>regulation is a bit of a mess right now.
<v Speaker 3>Spoiler alert. It is not going great. The ISA has
<v Speaker 3>struggled significantly, and we have a very specific example of
<v Speaker 3>this failure that doctor Brennan highlights in her analysis, the
<v Speaker 3>Naru incident of twenty twenty one.
<v Speaker 2>Naru is a tiny island nation in the Pacific. How
<v Speaker 2>did they break the system?
<v Speaker 3>They utilized a legal loophole called the two year rule.
<v Speaker 3>They basically sent a formal letter to the ISA saying,
<v Speaker 3>we are ready to mine. We have a corporate partner
<v Speaker 3>ready to go. You have exactly two years to finalize
<v Speaker 3>the comprehensive rulebook. If you don't, we're going to start
<v Speaker 3>mining under whatever provisional incomplete rules exist right now.
<v Speaker 2>They held a gun to the head of the UN regulator.
<v Speaker 3>They absolutely did. The intent was to force the slow
<v Speaker 3>bureaucracy to move faster and did it work. No, The
<v Speaker 3>deadline passed. The international community still couldn't agree on the
<v Speaker 3>draft exploitation regulations. There was just too much infighting, too
<v Speaker 3>many conflicting interests between environmentalists, mining companies, and nation starts.
<v Speaker 2>So if we can't even agree on how to mind
<v Speaker 2>manganese nodules on our own planet in the ocean, which
<v Speaker 2>is relatively accessible.
<v Speaker 3>What chance do we really have of agreeing on a
<v Speaker 3>framework for the asteroid belt. That is the sobering reality
<v Speaker 3>check of this entire paper. The ISA model is fragile,
<v Speaker 3>It is inherently reactive. It gets paralyzed by politics. Doctor
<v Speaker 3>Brennan's proposal is arguably the most ethical solution, but the
<v Speaker 3>NARU precedent suggests it might be a practical failure.
<v Speaker 2>It feels like we are watching a slow motion car
<v Speaker 2>crash between two totally different eras. We have twenty first
<v Speaker 2>century technology lasers, AI ion drives, and we are trying
<v Speaker 2>to govern it with mid twentieth century bureaucracy.
<v Speaker 3>That's the defining characteristic of this era. The engineering is
<v Speaker 3>succeeding and the diplomacy is failing. We have companies like
<v Speaker 3>Astrophors that can calculate an intercept trajectory and land on
<v Speaker 3>a dime in deep space. But we have diplomats who
<v Speaker 3>can't agree on a single paragraph of text in two years.
<v Speaker 2>So where does this leave us? If the treaties are
<v Speaker 2>broken and the ISA model is gridlocked, what happens next month?
<v Speaker 2>Next year?
<v Speaker 3>We enter the phase of technological determinism, which means what exactly,
<v Speaker 3>it means the technology decides the rules, not the other
<v Speaker 3>way around. Doctor Brennan discusses the concept of forced legal evolution.
<v Speaker 3>History teaches us that laws for new frontiers like the
<v Speaker 3>Wild West or even the early Internet usually aren't written
<v Speaker 3>in advance. They are written after the disaster.
<v Speaker 2>We didn't have seat belt laws until people started flying
<v Speaker 2>through windshields. We didn't have the Titanic safety regulations lifeboat
<v Speaker 2>rules until the ship actually sank.
<v Speaker 3>Exactly. The prediction here is that we are heading for
<v Speaker 3>a Wild West scenario, a gold rush where the mechanics
<v Speaker 3>of extraction precede the establishment of order. The companies like
<v Speaker 3>Astroforge and Carmen Plus are going to go, they are
<v Speaker 3>going to mine, they are going to create facts on
<v Speaker 3>the ground or facts in the void, and eventually, inevitably
<v Speaker 3>something will.
<v Speaker 2>Happen, a collision, a massive claim dispute over a platinum deposit.
<v Speaker 3>Or maybe they destroy a scientifically priceless body like Psyche,
<v Speaker 3>and then only in the aftermath of that irreversible loss,
<v Speaker 3>the inner national community will finally wake up, convene and
<v Speaker 3>write the laws.
<v Speaker 2>It's a completely reactive system. We are essentially waiting for
<v Speaker 2>the catastrophe to prompt the legislation.
<v Speaker 3>It's a dangerous way to run a solar system. The
<v Speaker 3>final synthesis of all this material is pretty stark. Without
<v Speaker 3>immediate intervention, the preservation of our cosmic heritage, the scientific data,
<v Speaker 3>the cultural value is currently left entirely to the discretion
<v Speaker 3>of profit driven entities.
<v Speaker 2>We are trusting the fox to guard the henhouse simply
<v Speaker 2>because the fox is the only one who bought a spaceship.
<v Speaker 2>That's it.
<v Speaker 3>That is the perfect summary. The divergence between the engineering
<v Speaker 3>success of missions like Vestry and the absolute failure of
<v Speaker 3>diplomatic instruments ensures that the immediate future of the solar
<v Speaker 3>system will be determined not by treaties but by capability.
<v Speaker 3>If you can do it, you will do it.
<v Speaker 2>It really puts the Vestry mission in a new light
<v Speaker 2>for me. It's not just a cool tech demo anymore.
<v Speaker 2>It's a stress test. Of whether we can be responsible
<v Speaker 2>stewards of a completely new environment.
<v Speaker 3>And right now the out we are venturing into a
<v Speaker 3>new environment with very old habits. The technology has evolved,
<v Speaker 3>but our governance remains strictly terrestrial.
<v Speaker 2>So here's the thought I want to leave you with today.
<v Speaker 2>We often think of space as out there, separate from us.
<v Speaker 2>But the materials in those asteroids, the iron, the water,
<v Speaker 2>the carbon, that's the exact same stuff we are made of.
<v Speaker 2>When we talk about irreparable breakage, we aren't just talking
<v Speaker 2>about breaking a rock. We are talking about breaking the
<v Speaker 2>history of where we came from. If we burn the
<v Speaker 2>library of the Solar system just to fuel the economy
<v Speaker 2>of the twenty first century, what will the twenty second
<v Speaker 2>century think of us?
<v Speaker 3>Are we explorers or are we just locusts with better rockets?
<v Speaker 2>That is the question. Thanks for joining us for this analysis.
<v Speaker 2>Keep looking up and maybe keep an eye on what
<v Speaker 2>they're doing with those lasers.
<v Speaker 4>See on the next one.
<v Speaker 2>School last
<v Speaker 4>Us