Intangiblia™
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Plain talk about Intellectual Property. Podcast of Intangible Law™
Intangiblia™
Building Bridges in Space: How Open IP, Shared Standards, and Data Commons Turn Competition into Cooperation
What if law moved at light speed—not to block discovery, but to channel it? We sit down with the big idea that runs through today’s most ambitious missions: when ownership is clear and sharing is structured, innovation scales across nations, agencies, and even planets.
We start in orbit with the ISS, where inventorship follows astronauts and equipment, and use rights are negotiated before launch, so science never stalls at zero gravity. Then we shift to ITER, the global fusion project that separates background IP from generated IP and grants royalty-free, global, perpetual research licenses to every member. That single design choice turns competition into cooperation without closing the door on commercialization. On the lunar front, the Artemis Accords introduce interoperability and deconfliction zones—protecting operations without territorial claims—and bring private players under shared norms that reward transparency.
Back on Earth, Copernicus proves that open satellite data strengthens climate action, agriculture, and emergency response, while the International Charter on Space and Major Disasters operationalizes generosity with rapid, accountable data releases. We dive into NASA’s open source ecosystem—thousands of mission-grade tools vetted through NOSA and rigorous approvals—showing code as shared infrastructure that startups, labs, and agencies build on every day. Communication ties it all together: CCSDS standards give spacecraft a common language, royalty-free and openly published, cutting costs and accelerating cross-agency work. The Planetary Data System and the International Planetary Data Alliance extend that spirit to archives, harmonizing formats and metadata so scientists can reuse and cite with confidence. And the Interplanetary Internet—Delay/Disruption Tolerant Networking—demonstrates how open standards thrive when anyone can implement, test, and improve them, from deep space to disaster zones on Earth.
Across these stories, a pattern emerges: plan ownership before liftoff, design openness with structure, standardize where it multiplies value, and pair publication with credit. That’s how IP becomes the engine of trust, not the price of participation. If this conversation moved your thinking, follow and subscribe, share it with a colleague, and leave a review with your favorite takeaway so more curious minds can find us.
Check out "Protection for the Inventive Mind" – available now on Amazon in print and Kindle formats.
Imagine treaties that orbit like satellites, holding invention instead of gravity. Above our heads, patents float between nations, data travels without borders, and agreements keep it all in motion. Somewhere between law and light speed, humanity learned a rare lesson. Sharing knowledge doesn't weaken innovation, it multiplies it. Every code released, every standard agreed, every open data set is proof that intellectual property can be a bridge, not a barrier. Today, we navigate that constellation where cooperation fuels creation and IP becomes the engine of trust. Ready for launch?
SPEAKER_01:You are listening to Intangibilia, the podcast of Intangible Law. Plain talk about intellectual property. Please welcome your host, Leticia Caminero.
SPEAKER_00:Hi, I'm Leticia Caminero. Welcome to Intangibilia, where ideas collide and innovation travels. This is the final episode of the current season.
SPEAKER_02:And I'm Artemisa, your full AI co-host, a voice born of algorithms, not oxygen, but fueled by curiosity and hope.
SPEAKER_00:In this episode, we're lifting off into the world of open collaboration in space, the missions, treaties, and data projects proving that even in orbit, progress depends on trust. From laboratories circling Earth to telescopes sending code across planets, we'll explore how shared knowledge keeps humanity moving forward.
SPEAKER_02:Exactly, because when imagination meets coordination, the stars don't look so far away.
SPEAKER_00:A quick note before we begin: this episode was generated with AI assistance, and yes, my voice is fully cloned.
SPEAKER_02:I'm an artificial co-host, entirely digital and proudly transparent.
SPEAKER_00:Nothing we share here is legal advice, just stories and insights meant to spark your thinking.
SPEAKER_02:And maybe remind you that creativity like gravity pulls strongest when shared.
SPEAKER_00:And it's surprisingly elegant. Every invention belongs to the partner whose astronauts or equipment created it. But the twist is this: research can use another partner's resources or model as long as everyone respects prior consent and confidentiality. It's a cross-border dance where the choreography never stops.
SPEAKER_02:The IP management is pure mission impossible precision. If a Canadian astronaut conducts an experiment using a Japanese payload on a US module, ownership and usage rights are already mapped out before the rocket even leaves Florida. No last-minute panic, no silent disputes at zero gravity.
SPEAKER_00:That's the kind of harmony every research consortium dreams of. Beautifully said. And maybe that's the greatest lesson of all. If only every terrestrial collaboration followed that script. It's the biggest scientific collaboration on the planet and quietly one of the most ambitious IP agreements ever written.
SPEAKER_02:If Interstellar was about finding a new home, Eater is about saving the one we already had.
SPEAKER_00:The challenge isn't only scientific. Each member contributes components, designs, and research through its own domestic agency. But who owns the inventions? Who gets to use the know-how?
SPEAKER_02:That's where Eater's IP framework shines. It classifies everything as either background IP or generated IP. Background IP stays with whoever brought it, the magnets, software, materials, or patents each partner already owned. Generated IP, meaning anything newborn inside Eater, belongs to the Eater organization if it's developed under central funding.
SPEAKER_00:And here's the genius part: all members get a license to use an IP for peaceful fusion research, royalty-free and global and perpetual. That clause alone transforms competition into cooperation.
SPEAKER_02:Commercial use, though, is a different galaxy. If someone wants to spin off a technology, say a superconducting material or cooling system, they must negotiate a separate license under terms approved by the Eater Council. That prevents the free rider problem while keeping the door open for future innovation.
SPEAKER_00:And the governance mirrors a mission control room. There's a council made up of all members, project boards for each technical area, and a detailed milestone schedule that tracks construction, testing, and operation phases. Every decision from the reactor wall design to data disclosure goes through agreed voting procedures.
SPEAKER_02:But emotionally, it's more than that. It's seven nations betting on trust. Think the Martian without the isolation, a global crew working to bring light to Earth.
SPEAKER_00:It's also an example of how IP can serve the public interest. The agreement literally mandates that scientific results be published or shared after patent protection is secure. So the world gets both innovation and access.
SPEAKER_02:The legal clause that moves me most says each member must include IP provisions in every subcontract. That way the principles ripple outward from the reactor's heart to the smallest supplier.
SPEAKER_00:It's a cascade of accountability. No secret silos, no lost blueprints, just structured openness.
SPEAKER_02:Elegant, global paperwork.
SPEAKER_00:Maybe the most powerful energy source humanity ever built isn't inside the reactor at all. It's in the shared IP clauses that made the reactor possible. It's where space law, diplomacy, and IP vision meet under one shimmering goal to make returning to the moon a shared mission, not another race.
SPEAKER_02:These accords launched by the United States and now signed by over 30 nations are like the sequel to the 1967 Outer Space Treaty, The Force Awakens of Space Governance. They don't replace the old script, they expand it for the age of private rockets, AI-driven rovers, and lunar mining prototypes.
SPEAKER_00:They say, in essence, if we're going to explore together, we need to share data, tech, and standards. Each country keeps ownership of what it builds, but agrees to make its systems compatible with others. Each partner controls its inventions, but must publish and cooperate for collective safety and sustainability.
SPEAKER_02:Right, and they introduce something beautiful called deconfliction zones. Instead of claiming lunar territory, nations designate safe operating zones around their equipment. It's a legal way of saying you can't own the moon, but you can protect what you build on it.
SPEAKER_00:That's revolutionary. We've moved from first come, first serve to first cooperate, first succeed. It's a design of peace through planning.
SPEAKER_02:And the private sector fits in too. Companies like SpaceX, Blue Origin, or iSpace operate under their nation's commitments. If they invent new extraction technologies or rover designs, they retain their IP but must follow the same spirit of transparency.
SPEAKER_00:So intellectual property isn't a territorial claim, it's a coordination tool, one that builds trust in orbit and on the moon's surface.
SPEAKER_02:The Accord's silent genius is that they treat law as technology, a framework that scales version by version as new players join. That's the spirit. And remember, these agreements aren't just diplomatic flourishes, they're project charters for missions with milestones, risk registers, and shared review boards.
SPEAKER_00:They even influence procurement and design choices. When you know your data will be shared, you architected with interoperability in mind.
SPEAKER_02:That's why engineers, scientists, and lawyers now speak a new common language, the language of coordination. Poetic, Letitia, and practical, because in the next decade we'll see mixed crews, astronauts, AI systems, and robots working under these very rules.
SPEAKER_00:The lesson for innovation on Earth or in space, keep your rights clear, your data open, and your ethics visible.
SPEAKER_02:And remember, the moon may not belong to anyone, but good governance belongs to everyone.
SPEAKER_00:Now let's look closer to home, or rather, at home from above. The Copernicus program is Europe's eyes on Earth. It's a collaboration between the European Commission, the European Space Agency, EUMSAT, and dozens of national agencies. What makes it extraordinary isn't only its satellites, but the principle at its core, everything it sees, it shares. The data helps monitor climate commitments under the Paris Agreement, supports urban planning, and even informs global food security.
SPEAKER_02:From a legal perspective, Copernicus shows how IP can evolve from exclusion to inclusion. The more accessible the data, the more value it generates for the entire system.
SPEAKER_00:Exactly. It's a living case study in how governments can invest in knowledge infrastructure and release it for collective use without losing control. They don't privatize innovation, they democratize it.
SPEAKER_02:Other regions from Africa to South America now model similar frameworks for satellite data sharing. And perhaps that's the most grounded lesson of all.
SPEAKER_00:Agencies can be generous because they know their contributions won't be exploited later. It's trust, engineered through law.
SPEAKER_02:And the collaboration extends far beyond agencies. Commercial satellite operators like Airbus and Maxar have joined as partners, donating imagery during crises. Their participation proves that corporate IP can coexist with humanitarian principles.
SPEAKER_00:The charter also encourages transparency. Each activation is locked publicly. What happened, which agency responded, what data was delivered. That level of record keeping ensures accountability and continuous learning.
SPEAKER_02:No need for endless negotiation when the clock is ticking. Exactly.
SPEAKER_00:For every innovation team listening, there is a lesson here. Design your governance so that generosity is operational, not optional.
SPEAKER_02:And think about your own emergency clauses, whether it's data, patents, or designs. Decide now what you'll share when it matters most.
SPEAKER_00:Because the charter success shows something profound. You can protect IP and still make it serve the public good.
SPEAKER_02:It's law with empathy, and maybe the purest example of how intellectual property can align with human values.
SPEAKER_00:When you step back, it's a network that turns competition into compassion.
SPEAKER_02:And that's why it belongs in this conversation. The charter proves that the strongest kind of ownership is the one that knows when to let go.
SPEAKER_00:We've seen how data from space can be shared in moments of crisis, but what about the code that gets it there? Few people realize that NASA, one of the most inventive institutions on Earth, is also one of the world's most prolific open source publishers. Thousands of algorithms, simulators, and visualization tools are freely available online, licensed for anyone to use.
SPEAKER_02:NASA realized early that innovation thrives when knowledge circulates. Instead of keeping every software project locked behind proprietary walls, the agency built a system for releasing code safely and legally. It's governed by the NASA Open Source Agreement or NOSA alongside a structured approval process.
SPEAKER_00:Here's a fascinating part from an IP perspective. NOSA defines NOSA's code as a government work, which means it can be copyrighted in the United States, but it can still carry clear terms of use. Those terms make the code reusable while preventing anyone from claiming exclusive rights over it later. And the project management behind it is impressive. Each NASA center has an open source coordinator who tracks contributions, approvals, and compliance. Teams must document the purpose, origin, and dependencies of their code before release. In a sense, every repository is a mini-project, complete with milestones and quality assurance gates.
SPEAKER_02:From climate models to robotic navigation software, these tools are used worldwide by universities, startups, and even other government agencies. NASA doesn't just inspire, it equips.
SPEAKER_00:Take SPICE, for example, a toolkit that helps scientists compute planetary geometry, or Whirlwind, a 3D visualization engine that became the foundation for civilian mapping applications. Each began as an internal NASA project, then expanded once released under open source terms.
SPEAKER_02:The beauty lies in the ripple effect. Once the code is public, external developers improve it, fix bugs, or adapt it for new missions. NASA benefits from free enhancements. The world benefits from shared infrastructure. It's an ecosystem, not a giveaway.
SPEAKER_00:That ecosystem reflects a fundamental IP insight. Openness can be strategic. By defining clear boundaries, attribution, reuse conditions, and liability disclaimers, NASA transforms potential risk into collective progress.
SPEAKER_02:And the approach feeds directly into their collaboration culture. Many modern missions like Mars Perseverance or the James Webb Space Telescope integrate components that rely on open source software tested, peer-reviewed, and legally cleared long before launch.
SPEAKER_00:Openness becomes not just a license type, but a communication strategy. We've talked about data, code, and collaboration, but there's one element that quietly holds every space mission together: communication. Without it, no image would reach Earth, no probe would report its findings, and no spacecraft would ever send a mission accomplished. Behind that silent miracle stands a global partnership few people know by name, the Consultative Committee for Space Data Systems, or CCSDS. DCSDS was founded back in 1982 by NASA, ESA, and other national space agencies that realized they were facing a new problem. Each agency had its own data formats and transmission protocols. The result? Satellites could talk to home base, but not to each other. It was like building dozens of languages for one universe.
SPEAKER_02:So the agencies decided to speak a common tongue. CCSDS became the neutral ground where engineers, scientists, and lawyers from over 30 countries meet to design open, interoperable standards for space data and communication. These aren't just guidelines, they're the backbone of how the modern space network functions.
SPEAKER_00:Every time a European spacecraft uses an American ground station to send data, or a Japanese probe receives updates through an Australian relay, it's CCCS standards making that happen. The protocols they create are free, public, and globally accepted.
SPEAKER_02:From an IP perspective, that's remarkable. Each participating agency retains its own intellectual property, its algorithms, software, or designs. But when they collaborate on standards, they agree that the results belong to everyone. The standards are openly published under a policy of non-exclusive royalty-free use. That decision changed the economics of space exploration. Before CCSDS, interoperability was costly and slow. After CCSDS, it became routine. Agencies could share equipment, ground stations, and data infrastructure without endless licensing negotiations. It's the legal version of clearing the static.
SPEAKER_00:And there's a governance rhythm that makes it all work. The committee operates through technical subgroups, navigation, mission, operations, data systems, and more. Each subgroup drafts and tests standards, then submits them for community review. Once consensus is reached, the standard becomes part of the official Blue Book Series, which serves as the open archive of space communication rules. Rovers and deep space probes relies on CCSDS standards to talk across agencies.
SPEAKER_02:It's also a quiet victory for intellectual humility. Instead of competing for proprietary dominance, spacefaring nations chose standardization as their collective IP strategy. They saw that the real value wasn't in owning the language, but in everyone being able to speak it.
SPEAKER_00:It's like an international commons for technology. By freeing the standard, they amplified the worth of their own contributions. After all, what good is a brilliant communication system if no one else can use it?
SPEAKER_02:The model influenced other domains too, from satellite internet to deep space networking, and even the International Telecommunication Union adopted similar principles for cross-agency spectrum coordination.
SPEAKER_00:From a project management angle, it's a masterclass. Clear ownership of contributions, shared approval workflows, transparent publishing, and ongoing maintenance. It's structure, serving creativity.
SPEAKER_02:And philosophically, CCSDS embodies the best of what intellectual property can become, a framework that channels innovation toward interoperability rather than isolation.
SPEAKER_00:Without it, each mission would still be building its own tower of Babel, and collaboration would end where the data link breaks. And that voice says something profound.
SPEAKER_02:CCSDS proves that law and technology can write harmony instead of noise, and that in the silence of the cosmos, our best signal is cooperation.
SPEAKER_00:If CCSDS gave us a shared language for space communication, this next story is about how we preserve what that language brings back. Every byte of data that a probe, rover, or telescope collects, every dust measurement, crater map, or image from deep space has to live somewhere. That somewhere is the Planetary Data System or PDS and its global counterpart, the International Planetary Data Alliance, known as the EPDA. Together they form one of the most ambitious open archives in human history.
SPEAKER_02:Think of it as the library of the solar system. The PDS started at NASA in 1980s to standardize how planetary data was stored and shared. Over time, it became the model for data stewardship, not just collection, but curation, validation, and public release. Then other space agencies saw the wisdom of it. The European Space Agency, JAXA in Japan, the Indian Space Research Organization, and even private entities joined the effort through the IPDA.
SPEAKER_00:From a legal and governance standpoint, the brilliance lies in the balance between openness and stewardship. Each agency retains ownership of its mission data, but the alliance harmonizes how it's formatted, documented, and made accessible. It's not who owns the data, but how do we keep it useful forever?
SPEAKER_02:That's an important distinction. The IPDA doesn't create one giant centralized server. It coordinates independent archives that all follow the same standards. So whether you're accessing Mars data from NASA, Venus data from ESA, or lunar data from JAXA, it feels like a single, seamless system.
SPEAKER_00:In IP terms, it's a masterpiece of interoperability. The data is treated as a public resource, but credit and citation are carefully preserved. Each data set carries metadata about its creators, institutions, and funding sources. When a scientist reuses it, they must cite the origin, turning acknowledgement into an enforceable ethical standard.
SPEAKER_02:And that's a quiet revolution. Instead of controlling data through ownership, they protect it through attribution. It keeps incentives aligned. Openness builds visibility, and visibility rewards quality. If you follow the rules, your contribution integrates smoothly. The long-term vision is breathtaking. Imagine a student in Nairobi, Buenos Aires, or Hanoi accessing raw Mars data directly from NASA servers to build a new algorithm without a gatekeeper, without a subscription. That's not just scientific access, it's global equality and practice. Each data set is reviewed before release, validated for accuracy, and accompanied by documentation. That's the project manager's equivalent of a quality gate. It's also a subtle form of IP protection, not through restriction, but through traceability and certification.
SPEAKER_00:And let's not forget the emotional dimension. Every archived image or measurement represents a moment of human effort. Engineers designing instruments, scientists calibrating sensors, programmers cleaning data. The archive turns those individual moments into a shared legacy.
SPEAKER_02:And here's the intellectual property twist. The core of DTN was developed as open technology. Instead of patenting the protocol, NASA and its collaborators published it through open standards bodies, the CCSDS and the Internet Engineering Task Force, IETF. That meant any space agency or university could build on it freely.
SPEAKER_00:The choice to forego exclusive IP protection actually multiplied the technology's impact.
SPEAKER_02:DTN doesn't expect constant connectivity. It stores bundles of data until a link is available, then forwards them store and forward on a cosmic timescale. Each node can act as both sender and custodian.
SPEAKER_00:So if a probe around Saturn passes near another spacecraft, it can hand over data like a courier, which eventually finds its way back to Earth. That's why they call it the Interplanetary Internet.
SPEAKER_02:The protocols were published, tested, and improved collaboratively. They include precise definitions of data formats, timing synchronization, and encryption for security, all free to adopt.
SPEAKER_00:That division ensures transparency without compromising safety.
SPEAKER_02:And the governance is as impressive as the technology. NASA's Jet Propulsion Laboratory coordinates updates while other agencies contribute test results. It's an ongoing living agreement rather than a one-time publication. It's also expanding beyond space. The same technology now powers communication in remote regions on Earth, disaster zones, deep oceans, even the Arctic, places where regular internet connectivity fails. That's the ultimate return on investment for open IP. Universal adaptability, serving as pro forma administrators for the agency, and it's changing the way we think about intellectual property altogether. Instead of protection through exclusion, it's protection through participation. Everyone who uses the standard helps maintain and improve it. That's a quiet kind of brilliance, one that mirrors the technology itself. Just as the network holds on to data until it finds a path, humanity holds on to ideas until we find ways to share them safely. Beautifully said, DTN isn't just an engineering breakthrough. It tells us that patience, persistence, and openness can travel farther than speed ever could. For project managers and innovators, the lesson is simple. Design your collaboration for distance. Build systems that survive silence, legal silence, technical silence, even political silence, because cooperation like communication must be delay tolerant too.
SPEAKER_00:And when it works, it connects us from the smallest signal leaving a probe to the shared imagination that sent it there.
SPEAKER_02:That's the real interplanetary internet. Not just machines talking across space, but people agreeing on how to listen. After traveling through these nine stories, from orbiting laboratories to open data constellations, one truth stands out.
SPEAKER_00:And intellectual property, when handled wisely, doesn't block that energy, it channels it. These projects prove that law can be the structure of trust, not the price of participation.
SPEAKER_02:So here are final coordinates.
SPEAKER_00:One, plan the ownership before the launch. The ISS and ETHER work because inventorship and usage rights were mapped long before liftoff.
SPEAKER_02:Two, design for openness, not exposure. Transparency builds credibility when it's paired with structure, the Copernicus way.
SPEAKER_00:CCSDS and DTN show that common languages outlast individual missions.
SPEAKER_02:Filing before sharing keeps innovation both safe and visible. Six, credit as you share, the Planetary Data Alliance turned citation into a form of protection.
SPEAKER_00:NASA's code strategy shows that releasing tools can multiply results.
SPEAKER_02:Each of these lessons is a reminder that intellectual property isn't a wall, it's the scaffolding of collaboration. The same structures that protect innovation can also keep it moving.
SPEAKER_00:When nations, companies, and individuals align protection with purpose, IP becomes more than a system, it becomes an invitation.
SPEAKER_02:An invitation to create, to connect, and to keep looking up.
SPEAKER_00:Because when we share wisely, the sky is not the limit. It's just the next collaboration.
SPEAKER_02:And that might be the most important discovery we've made yet.
SPEAKER_01:Thank you for listening to Intangible, the podcast of Intangible Law. Plain talk about intellectual property. Did you like what we talked about today? Please share with your network. Do you want to learn more about intellectual property? Subscribe now on your favorite podcast player. Follow us on Instagram, Facebook, LinkedIn, and Twitter. Visit our website www.intangiblia.com. Copyright Leticia Caminero 2020. All rights reserved. This podcast is provided for information purposes only.
