The moat is physical
Hardware in orbit, real-world data and hard-won licenses take years to replicate. That is the kind of advantage investors will reward next.
Software captured the last decade. The money is now moving into atoms: chips, data centers, power, and machines that act in the world. Space is where every layer of that stack runs under the hardest constraints, and it is where we focus our advising and investing.
2010s to 2024
Software eats the world: SaaS, apps and per-seat pricing.
Investors reward Growth and seats
2025 to 2026
AI money pours into chips, data centers and power.
Investors reward Revenue and retention, not demos
2027 and beyond
AI goes into the real world: robotaxis already on the road, then robots, devices, AI-designed drugs.
Investors reward A physical moat: hardware, real-world data, regulation
Our focus
Power, compute, bandwidth and distance, all pushed to their limits.
Investors reward Technology that works, and a team that can sell it
Software alone gets copied in months. Software plus the real world is hard to copy. Space is the hardest real world there is.
AI depends on energy, chips, infrastructure, models and applications. Push on one layer and the others move. Each layer has a space version, and each one is harder.
Space is the whole AI stack, under its hardest constraints.
Freedom with AI participates in three ways: Build, Advise and Invest.
On Earth Products are no longer limited to screens. They include robots, vehicles, scientific tools and other systems that sense, decide and act.
In space Imagery, connectivity, logistics and servicing in orbit: products whose customers are on the ground and whose hardware is not.
On Earth Frontier, open-source and domain-specific models. Their capability, cost and deployment constraints shape what product teams can build.
In space Spacecraft cannot wait for a round trip to Earth to make every decision. Autonomy and onboard analysis move from nice to have to necessary.
On Earth Data centers, networking, cooling, orchestration and security determine whether models run reliably and affordably at scale.
In space Downlinks, ground networks and compute in orbit decide how much data actually reaches a customer, and how fast.
On Earth Processors, memory, interconnects and access to supply shape performance, cost and who can compete.
In space Compute has to survive radiation, heat and a tight power budget, and still run useful models at the edge.
On Earth Every workload consumes power and produces heat. Generation, siting and cooling affect where capacity can be built and how quickly it can grow.
In space Power is the constraint under everything on Earth. In orbit it is literally finite, and every subsystem competes for it.
Hardware in orbit, real-world data and hard-won licenses take years to replicate. That is the kind of advantage investors will reward next.
Power, compute, bandwidth and latency are the limits of AI on Earth. In space they are tighter, so the companies that solve them build things others cannot.
Many space companies have the engineering. Fewer have a clear first customer, a sales motion that survives procurement, and a story investors outside the sector can follow.
We do not design spacecraft, chips or power systems. Our work begins where a technical capability has to become a product, find a buyer and support a durable company. Those questions repeat across the stack, even when the technology does not.
The five-layer stack builds on Jensen Huang’s framing of AI as infrastructure. The space mapping and the company-building layer are our own. NVIDIA on the five layers of AI