The Decade Space Stops Being Hard

Everett Dolman wrote in 2002 that “who controls low-Earth orbit controls near-Earth space, who controls near-Earth space dominates Terra, and who dominates Terra determines the destiny of humankind.” It was a provocative line then. Today, it reads like a call to action. The contest for orbit is no longer between governments moving slowly; it’s between governments moving urgently and a commercial ecosystem moving even faster.

Two factors will decide the shape of space this decade. The first is capacity: who can reach orbit reliably, repeatedly, and at a cost that makes serious commercial and governmental activity viable. The second is sovereignty: who controls the infrastructure that modern economies and militaries depend on, and on what terms do they make it available to others. Capacity accelerates innovation; sovereignty determines resilience. How capacity and sovereignty are reconciled this decade will define not only the future of the space economy but the strategic balance that emerges around it. 

The government makes the first bet



Until the 2010s, building in space was the kind of bet only governments and a handful of obsessive founders could make. SpaceX changed that because the US government took a chance on them. After the Shuttle’s retirement, NASA needed a way back to the ISS and opened the job to commercial providers; SpaceX offered a cheaper, plausible concept and won the contract to build it.



The SpaceX story is a template for the rest of the world. A government with a need it can’t meet cheaply should put the job out to the commercial sector, take a chance on a startup, and absorb the early R&D risk through procurement. The company delivers: a capability that didn’t exist now does, and venture funding and contracts carry it from there.

SpaceX bet big on reusability, and Falcon 9 was the result. The Falcon 9 reusability program produced the cost curve that defines the modern launch market, and SpaceX now runs roughly half of global launches and the overwhelming majority of US ones. Thus, the government monopoly on space that lasted from the 20th century through the early 21st is now a SpaceX monopoly. 

However, it is not enough to lower the cost of flight if SpaceX still decides who can fly and when. The capacity that accelerates innovation is a function of both cost and launch availability.

The monopoly was always going to be temporary

Most commentary treats launch as solved. It isn’t solved, it’s monopolized, and those are different conditions. A solved problem produces redundancy, competition, and falling prices in equilibrium. A monopolized one produces a single point of failure, pricing power for the incumbent, and structural fragility for every business built downstream. Conflating the two is the most consequential analytical error in the space economy today. 

Most commentary treats launch as solved. It isn’t solved, it’s monopolized, and those are different conditions.

Fortunately, monopolies in capital-intensive infrastructure markets generate the conditions for their own diversification. The temporary monopoly is a demand signal that justifies the next wave of capital, the trained workforce that starts the next generation of companies, and the validated economics that turn speculative bets into credible ones. 

That signal is now. On June 12, SpaceX debuted on the Nasdaq in the largest IPO in history. The number that deserves attention isn’t the valuation; it’s what the listing signals about the maturity of the economy underneath it. A workforce that built reusable rockets, constellation infrastructure, and launch cadences that look more like airlines than government programs has been generating wealth at a rate the world associates with software, not heavy industry. The physical economy of space is entering an explosive period of growth and diversification. Founders building today are operating on a proven cost curve rather than betting on a future they have to invent.

The physical economy of space is entering an explosive period of growth and diversification.

The cost of diversification



The question of who builds and controls the orbital layer is, increasingly, the question of whose infrastructure the world runs on. GPS underpins financial settlement, precision agriculture, and weapons guidance simultaneously, through one and the same infrastructure. Satellite communications carry cargo logistics and battlefield coordination through the same pipes. Earth observation is becoming the nervous system of border surveillance, climate monitoring, and agricultural insurance at once.

This raises the stakes for space sovereignty, and states are accordingly taking notice. The EU’s IRIS² constellation, India’s NavIC expansion, and China’s continued BeiDou buildout are all examples of efforts to maximize state and regional resilience. From the perspective of sovereign power, the worst-case scenario is one like we witnessed in Ukraine, where the dominant private satellite internet service Starlink determined who got connectivity and on what terms during a land and air war. 

While Europe, India, and China are not alone in their ambitions, the ability to execute is not evenly distributed. Most nations cannot stand up a satcom or earth observation constellation. This is where the commercial opportunity lies—for companies like ICEYE that deliver the security that governments want without requiring each of them to build from scratch. Demand is reliable, monopolies are often temporary (see above), and the business models that serve both are still being invented.

Most nations cannot stand up a satcom or earth observation constellation.

The vertically integrated incumbent maximizes acceleration—one company, one stack, one cadence—and in doing so becomes the single point of dependence that undercuts resilience. The distributed, multi-provider, sovereign model maximizes resilience and has historically paid for it in speed. So how do we reconcile this tension between dependence and speed? 

The defining strategic problem of the next decade, and we’d argue the defining investment opportunity, is the set of structures that resolve both at once: enough coordinated, committed demand to match incumbent economics, spread across enough parties that no single one is a chokepoint. Sovereign contracts, regional consortia, and commercial coalitions—all of which buy acceleration and resilience at the same time. 

The details are still being worked out, but we know it will happen this decade. The reason this resolves now, rather than in another decade, is that the inputs are arriving together. 



The conditions are converging 

Significant cost reductions have been demonstrated by SpaceX and as Starship adds more scale, further reductions are expected. However, availability is an ongoing bottleneck pacing access to space. Through 2026, the gap between constellation demand and available supply is wide enough that optimistic deployment forecasts are mathematically unachievable even if every provider hits its targets. 

New companies challenging Falcon 9—with new architectures, some built around reusability and others around novel manufacturing methods, aimed at cutting costs and increasing launch cadence—will help open the field. A generation of medium- and heavy-lift vehicles is reaching first flight inside the same 24-month window: Stoke’s Nova, Rocket Lab’s Neutron, Relativity’s Terran R, and Blue Origin’s New Glenn (after a difficult 2026). We don’t yet know which will win; only a handful show a credible path to cost-competitiveness at scale, and time-to-market will matter as much as final price.

Compounding AI capability arrives on the same clock, with the opportunity to reduce both time-to-market and costs. AI is becoming usable for both speeding up R&D cycles on the ground and for operational work orbital infrastructure depends on, like autonomous mission planning, in-orbit processing, and predictive servicing, just as that infrastructure scales up. What’s more, it generates demand from the other direction: the power and compute requirements of terrestrial AI have produced a wave of space-based proposals, from orbital data centers to energy beaming, that, if any meaningful subset proves out, feeds straight back into satellite manufacturing and launch. 



The power and compute requirements of terrestrial AI have produced a wave of space-based proposals, from orbital data centers to energy beaming...

High risk becomes high reward (again) 

In this industry, ‘hard’ has never meant the physics, it’s meant the one-shot problem: no dress rehearsal, no do-over, a single irreplaceable bet built by hand because launch was too scarce to risk anything standardized. That scarcity is what made space artisanal, and therefore prone to failure. As launch stops being scarce, the chain breaks: more flights mean more iteration, subsystems get standardized instead of hand-built, and a workforce and test infrastructure built for volume replace ones built for one irreplaceable shot. “It used to take 50 engineers to test one physical system, in the future we will have a 1:1 ratio,” says Cameron McCord, CEO of Nominal. Space isn’t becoming easy. It’s becoming a discipline that, for the first time, can afford to fail small instead of only failing big.

When space stops being hard, the combination of sovereign and commercial demand will bring about a Space Age that everyone can participate in. Some of the best ideas will come from kids in dorm rooms; others will come from AGI-enabled breakthroughs for established agriculture, satellite, defense, and transportation providers.

Launch costs have fallen more than 95% since the Shuttle era, sovereign procurement budgets are finally moving at commercial speed, and a geopolitical order that once treated space as a cooperative domain is fracturing along the same fault lines as everything else. The economics have been validated by the market, and what follows in Earth observation, satellite communications, the orbital economy, and the frontier beyond inherits that proof of concept.

The shape of every infrastructure revolution looks the same in retrospect: the messy middle, the shakeout, the sudden forgetting that there was ever a ceiling. History doesn't guarantee that arc. But it does tell us what the conditions look like when one is about to resolve, and those conditions are present in space today.

The shape of every infrastructure revolution looks the same in retrospect: the messy middle, the shakeout, the sudden forgetting that there was ever a ceiling.

Some of the companies that will define that economy already exist. The exciting part is how many don't, yet. Ultimately, the most interesting builders will not limit their impact to Terra but the possibilities of space on its own terms.

This blog series is us showing our work: how things get to orbit and at what cost, what the planet looks like from above and who gets to see it, how connectivity from space is rewriting the map of who is connected and on whose terms, and what an economy that extends beyond the atmosphere might actually look like.