The International Space Station As A Model Of Multinational Cooperation
What is actually up there
The International Space Station is, physically: 109 meters long (roughly the size of an American football field with the end zones), 73 meters wide, 420,000 kilograms, orbiting at about 400 km altitude, circling Earth every 90 minutes. That's 16 sunrises and sunsets per day. It has a pressurized volume equivalent to a six-bedroom house. It is powered by solar arrays with a wingspan wider than a Boeing 747. It has housed continuous human presence since November 2, 2000 — as of this writing, over 25 years without a single empty day.
It was assembled in orbit, piece by piece, over more than a decade, using the Space Shuttle and Russian Proton and Soyuz rockets. First module: Zarya, Russian-built but American-funded, launched November 1998. Connected to it a few weeks later: Unity, the first American node. Then Zvezda, the Russian service module, in 2000. Then the US Destiny lab. Then the European Columbus lab. Then the Japanese Kibo lab. Then the Canadian Dextre robotic arm. Dozens of modules, trusses, solar arrays, docking ports, airlocks — each one built by a different country's contractors, shipped up separately, mated in zero gravity using systems none of them could test fully on Earth.
That is a staggering engineering feat. What's more staggering is that it worked.
Who's involved, and what each brings
NASA (United States). Primary partner. Funded the majority of early construction. Provided the Destiny laboratory module, major truss segments, the Harmony and Tranquility nodes, the Cupola observation deck. Operates Mission Control Houston. Currently provides crew via SpaceX Crew Dragon and previously via the Space Shuttle.
Roscosmos (Russia). Primary partner. Provided Zarya, Zvezda, the Pirs and Poisk docking modules, the Rassvet mini-research module, and until the arrival of Crew Dragon in 2020, the only crewed vehicle capable of reaching the station — the Soyuz. For nearly a decade (2011–2020), every human going to the ISS, American or otherwise, rode a Russian rocket from Kazakhstan. Let that sink in. Mission Control Moscow runs in parallel with Houston.
JAXA (Japan). Provided Kibo, the largest single laboratory module on the station. Provides the HTV ("Kounotori") cargo vehicles for resupply.
CSA (Canadian Space Agency). Provided Canadarm2, the primary robotic arm used to grapple visiting vehicles and move large payloads, and Dextre, the fine-manipulation robot. Canada is a relatively small space agency by funding, but Canadarm2 is infrastructure the station literally cannot operate without. Small nations can contribute chokepoint components.
ESA (European Space Agency). A consortium of 11 member states directly participating in ISS operations — Germany, France, Italy, Spain, Belgium, the Netherlands, Denmark, Norway, Sweden, Switzerland, and the UK (plus associate states). Provided the Columbus laboratory, the ATV ("Automated Transfer Vehicle") resupply ships (retired 2015), and major avionics.
Together, that's fifteen countries whose governments have, in various combinations and at various points in the last quarter century, been at diplomatic, military, or economic odds with each other. All of them have flown people to the same 109-meter structure and sent them home alive.
The engineering substrate: what cooperation actually required
People who have never worked on big technical projects underestimate how much "cooperation" is actually encoded in standards documents rather than handshakes. The ISS cooperation runs on:
- Common docking standards. The IDSS (International Docking System Standard) defines the physical and electrical interface so that a SpaceX Dragon, a Boeing Starliner, a Russian Soyuz, or a future Chinese spacecraft (if politics allowed) can all connect to the same ports. - A shared life-support architecture where water from American segments flows to Russian segments and oxygen generation is distributed, with failover. No single country's systems are independent. You cannot decouple the station cleanly. - Common emergency procedures. In a depressurization, fire, or ammonia leak, the response is identical regardless of whose module it starts in. Crews drill these until the procedure is faster than the instinct to panic. - Bilingual operations. Working language is English, but every NASA astronaut is trained to operational proficiency in Russian, and every Roscosmos cosmonaut trains in English. Technical manuals exist in both languages. Radio calls between Houston and Moscow happen in both. - A unified timeline. The station runs on UTC ("Zulu" time) so that Houston, Moscow, Tsukuba, Munich, and Montreal are all synchronized to the same clock. Little thing. Huge thing. - Intergovernmental agreements — the 1998 IGA and four bilateral MOUs — that legally define who owns what, who pays for what, and how disputes get resolved. These documents are public. They're worth reading if you want to understand how international cooperation gets formalized.
The key point: cooperation is structural. You can't run the station as a single country because no single country built a complete station. The modules are physically interdependent. The life support is interdependent. The crew rotation is interdependent. The cost of defecting — trying to kick another country out — is that the station stops working.
That structural interdependence is the secret. Goodwill is nice; dependency is durable.
The science return
The ISS has hosted over 3,000 scientific investigations from researchers in over 100 countries. Highlights:
- Protein crystallization in microgravity has produced higher-quality crystals used in pharmaceutical research, including for Merck's cancer drug Keytruda, whose formulation was refined with ISS-derived crystallography. - Colloid and fluid physics experiments have directly fed back into consumer products (oil recovery, emulsions, food science). - AMS-02, the Alpha Magnetic Spectrometer, has collected over 200 billion cosmic ray events and is producing some of the best constraints on dark matter and antimatter physics to date. - Plant growth experiments have fed directly into commercial vertical farming and LED horticulture industries worth billions annually. - Medical research: muscle atrophy, bone density loss, cardiovascular deconditioning — studies of astronauts inform treatment of age-related decline on Earth. Telemedicine systems pioneered for the ISS now run in remote clinics worldwide. - Water purification: ISS water recovery systems recycle over 90% of onboard water. The same filtration technology has been deployed in disaster zones, refugee camps, and remote villages. - Earth observation: hundreds of thousands of images of Earth's surface, documenting everything from deforestation to natural disasters to urban growth, freely available to researchers globally.
The cumulative scientific value is argued about — it's hard to reduce 3,000 experiments to a single number — but the number of commercial products, medical advances, and scientific papers traceable to ISS research is in the many thousands. And crucially, every one of them was made possible by research conducted under a cooperative framework. A purely national station would have fewer experiments from fewer researchers studying fewer questions.
The test: political crises that didn't bring it down
This is the part of the story that matters most for Law 1. A shared institution is easy when everyone gets along. The real test is what happens when everyone stops getting along.
2014: Russian annexation of Crimea. Sanctions. Diplomatic freeze. The US imposed restrictions on Russian space industry. Then-Roscosmos head Dmitry Rogozin, under sanctions himself, famously joked that the US should "use a trampoline" to get to space, since NASA had no way to reach the ISS without Russian rockets. That was a political humiliation. But the station kept running. American astronauts kept flying on Soyuz. Russian cosmonauts kept working with Americans in orbit. The working relationship between Mission Control Houston and Mission Control Moscow did not break.
2022: Russian full-scale invasion of Ukraine. The most serious test to date. Massive sanctions against Russia. ESA terminated the ExoMars rover partnership with Roscosmos. Rogozin threatened publicly that Russia might "drop the ISS on the United States or Europe." He was replaced as Roscosmos head shortly after. Yuri Borisov, his successor, announced Russia would leave the ISS partnership "after 2024" (later softened to 2028 or later). And yet — and this is the critical fact — operations continued. American Mark Vande Hei, who was in orbit when the invasion began, returned to Earth on a Russian Soyuz alongside two Russian cosmonauts, landing safely in Kazakhstan. The routine handoffs continued.
December 2022: Soyuz MS-22 coolant leak. A micrometeoroid (or possibly debris) punctured the radiator of a docked Soyuz. The vehicle was no longer safe for crew return. Russians, Americans, and Europeans coordinated in real time. A replacement Soyuz (MS-23) was launched uncrewed to provide lifeboat capability. Schedules shifted, crews extended their stays. The emergency was handled cleanly. Three months after public threats, the same parties were running a joint rescue.
Multiple other moments: COVID-19 disruptions, changes in US administration, changes in Russian leadership, shifts in European politics, budget fights, Congressional threats to defund — the station has absorbed all of them. It is the most politically resilient shared institution humanity has ever built in space, and arguably one of the most resilient anywhere.
Why? Because the cost of failure falls, literally, on the heads of every astronaut in orbit. Nationalism is expensive when it means killing your own people.
The overview effect
Almost every astronaut, when asked what changed them, says some version of the same thing. Frank White coined the term "overview effect" in 1987. Here's a compressed version of what astronauts consistently describe:
- Borders are invisible from orbit. - The atmosphere is thinner than you thought. It looks like a fragile membrane. - The countries you were told are your enemies are indistinguishable from your own country. - Earth as a whole looks small, contained, and alive in a way no photograph conveys. - Many astronauts describe a shift from national identity toward species identity. They stop thinking of themselves as Americans or Russians first. They start thinking of themselves as Earthlings.
This is not a mystical claim. It's an observed psychological phenomenon documented across decades of astronaut interviews and memoirs. Ron Garan's book The Orbital Perspective is probably the best civilian-accessible articulation of it. Scott Kelly wrote about it after his year in space. Chris Hadfield talks about it constantly. Even the Soviet-era cosmonauts described it, though the political system they returned to didn't really let them talk about it publicly for a while.
The overview effect is, in a real sense, Law 1 operating on a human nervous system in real time. You stop believing the wall between "us" and "them" because you've been somewhere you can see there is no wall. Not physically. Not visually. Not from here.
If every person got to see Earth from 400 kilometers up, the politics of our species would change. That's not a utopian fantasy — it's a replicated empirical observation on the ~700 humans who have had the experience. The problem is scaling it. We can't send everyone up. But we can teach the lesson here: the wall is cultural construction. The unity is the underlying fact.
What the ISS teaches about sustained multinational institution-building
Here's the extracted framework, based on 25 years of evidence:
1. Make cooperation structural, not aspirational. Design the institution so that it physically cannot function without multiple participants. The ISS can't run as one country because the modules are interdependent. Institutions where anyone can walk away without consequence will see people walk away when politics sour.
2. Build on a shared technical substrate. Common standards, common protocols, common languages. If each participant speaks a different dialect, the institution collapses under translation costs during crises.
3. Cross-train the humans. American astronauts speak Russian. Russian cosmonauts speak English. Every member of the crew has done time in every partner's facilities. When trust is needed, it's not manufactured on the spot — it's accumulated over years of shared training.
4. Protect the working relationship from the political one. Mission Control Houston and Mission Control Moscow have a direct line. It does not go through the State Department or the Foreign Ministry. Engineers talk to engineers. This matters. Institutions that route all communication through political channels break when politics breaks.
5. Keep the mission narrative shared, even when politics diverge. Every agency's public communication about the ISS continues to be about joint science, joint discovery, joint exploration. Not "American achievement, with Russian help." Not "Russian achievement, with American help." The narrative frame is we, and that frame has held for 25 years.
6. Design for the crisis you haven't imagined yet. The ISS partnership has survived events nobody planned for in 1998. The structural commitments, the legal agreements, the redundancies — they were designed with humility about future unknowns.
This is a transferable playbook. It applies to ocean treaties, internet governance, disease surveillance, climate monitoring, nuclear non-proliferation, food security. Any shared institution that has to survive political weather.
What happens next
The ISS is scheduled for deorbit around 2030–2031. NASA has contracted SpaceX to build a dedicated deorbit vehicle. When it comes down, it will be the end of a specific station but not necessarily the end of the cooperative model. Several successor stations are in various stages of development — commercial (Axiom, Starlab, Orbital Reef) and national (China's Tiangong is already operating, though not as an international cooperation).
The open question is: does the cooperative model survive the ISS, or does it die with it?
China's Tiangong is a single-nation station. Russia has said it may build its own. American commercial stations will be, at least initially, American. If the trajectory continues, we could end up with three or four national stations circling Earth, none of them cooperating, each of them a national flag on the high frontier. That would be a loss, not just symbolically but practically — science would be slower, risk would be higher, costs would be greater, and most importantly, the proof-of-concept would be gone.
Or we build ISS-successor partnerships on new terms. Include more nations — India, Brazil, UAE, African Union. Make the cooperative framework a precondition, not an afterthought, of the next generation of orbital infrastructure. Keep the trampoline in the garage. Treat the ISS not as a closing chapter but as a pilot program that proved the model works, so the next model can be bigger.
The choice isn't made yet. It's being made, right now, in budget cycles and space agency decisions. This is one of the places where Law 1 has direct, operational, near-term leverage: the institutions we build this decade will teach or un-teach our species what cooperation looks like.
What this has to do with Law 1
Law 1 says we are human. One species. It's a claim about underlying reality. The question is how to make that reality visible to institutions, not just to individuals.
The ISS makes it visible. An American astronaut and a Russian cosmonaut, sharing a toothbrush cup in zero-g, are not performing Law 1. They're not demonstrating it symbolically. They're just operating under conditions where Law 1 is the physical fact and every other framing is inefficient. The station is a place where, for 25 years, the cost of acting as if "we are one species" was lower than the cost of acting like we aren't.
That's the model. Build places — institutional, physical, virtual — where acting human is cheaper than acting national. Then the behavior follows the architecture, and the architecture teaches people who have never been to orbit.
If every person said yes — yes to building more structurally cooperative institutions, yes to funding the next shared station, yes to treating the ISS not as a relic but as a template — we accumulate proof, piece by piece, that the world we keep being told is impossible is the world we have already been running for a quarter century, 400 kilometers above our heads.
Research and citations
- NASA ISS Program Office. Reference Guide to the International Space Station (2015; updated editions). - Roscosmos ISS documentation (Russian and English editions). - Intergovernmental Agreement on the Space Station, signed January 29, 1998. Publicly available via State Department archives. - ESA ISS documentation: esa.int/Science_Exploration/Human_and_Robotic_Exploration/International_Space_Station. - Garan, Ron. The Orbital Perspective (2015). Astronaut memoir focused on the cooperation framework. - Hadfield, Chris. An Astronaut's Guide to Life on Earth (2013). - Kelly, Scott. Endurance: A Year in Space, A Lifetime of Discovery (2017). - White, Frank. The Overview Effect: Space Exploration and Human Evolution (1987; updated editions). - NASA scientific return reports: "International Space Station Benefits for Humanity" (multi-edition). - AMS-02 collaboration publications (Physical Review Letters, various years). - Logsdon, John M. Together in Orbit: The Origins of International Participation in the Space Station (NASA monograph). - Coverage of the 2022 Soyuz MS-22 coolant leak and subsequent joint response (NASA press briefings, Roscosmos statements, December 2022 – March 2023).
Exercises
1. Watch the ISS pass over your house. NASA's Spot the Station tool gives you exact pass times. See it with your own eyes. That dot of light has people from multiple countries in it. Right now. Without your help. 2. Read an astronaut interview across national lines. Read Scott Kelly on Russia. Read a Russian cosmonaut (translated) on the US. Look for where their accounts of each other differ from the accounts their governments give. 3. Audit one institution you're part of (a company, a community, an online space) for whether cooperation is structural or aspirational. If the institution could run as a single faction, it will, eventually, under stress. 4. Pick one domain — climate, disease, ocean health, space — and sketch what an ISS-style structurally cooperative institution would look like there. What modules would each nation provide? Where are the dependencies? Where does the legal framework live? 5. Ask yourself: if you had the overview effect for thirty seconds right now, what would you do differently tomorrow? Then do that, without going to orbit. You already have enough information. The astronauts aren't more enlightened. They just got a better view. The view is free to the rest of us if we choose to take it.
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