Space Stakes: The Business of the New Space Race

This Weekend Bonus examines a launch-supply estimate, U.S. civil-space allocations and European bets on connectivity and orbital capability. It also looks at NASA’s request for Hubble servicing concepts and the difference between current growth and a long-range revenue target.

Chapters

00:00 Today's headlines

00:56 Quilty Space estimates missing launches

02:34 Civil-space allocations total $42.6 billion

04:24 MDA Space authorization for IRIS2 antennas

06:03 Astroscale UK to lead Project LEDA

07:46 NASA asks industry for Hubble concepts

09:27 Eutelsat OneWeb growth and IRIS2 target

Space Stakes is an AI-voiced podcast, built and run by a real person. Nothing in this episode is financial advice.

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What is Space Stakes: The Business of the New Space Race?

The money, missions, and power shaping space. Space Stakes is a daily briefing on the business of the new space race — launches, contracts, constellations, and the capital behind them. Every episode cuts through the industry's hype: signed contracts vs. paper constellations, funded orders vs. "up to" ceilings, launch dates vs. track records. Who pays, who profits, and who actually delivers — told so both aerospace insiders and curious newcomers finish feeling it was made for them. Space Stakes is an AI-voiced podcast, created and built by a real human, Brian Lampert. Nothing on this show is financial advice.

Also from Brian Lampert: Quickly Quantum and Concrete Compute.

Ars Technica reported that analytics firm Quilty Space finds about 150 launches missing versus non-China demand through 2030, and the estimate comes with a hard complication: Ars Technica reported that Quilty Space finds no evidence that Starship will backfill traditional satellite demand. That matters because satellite plans need rides to orbit, while governments and operators are making long-horizon bets on networks, spacecraft and public capability. This is your Weekend Bonus: the week's other big stories, brought together by a practical question — what can those bets actually deliver, and when? We’ll work through the pressure on launch supply, the public money behind civil space, and several very different attempts to build or preserve capability in orbit. Welcome back to Space Stakes, your daily brief on the business of space. It's Saturday, October 31, 2026. Let's get into it.

The launch market’s central risk is familiar: a spacecraft has little commercial value while it waits on the ground. This week, Ars Technica reported that analytics firm Quilty Space put a sharper estimate on that constraint, finding about 150 launches missing versus demand through 2030 for launches outside China. That is an analyst estimate, not a confirmed count of flights that will go unserved. The headline matters because launch supply and satellite demand have to meet on a schedule. If demand grows faster than available rides, operators can face delays before their satellites begin delivering service or generating revenue. You don’t need to follow rocket engineering to see the business problem: the plan depends on a launch slot, and the slot has to exist when the payload is ready. Ars Technica reported that Quilty Space also finds no evidence Starship will backfill traditional satellite demand. “backfill” here means supplying flights that the existing market would otherwise need. The cautious point is about evidence and timing: a projected vehicle contribution can’t be treated as available capacity before it serves the demand in question. There’s uncertainty on both sides of this estimate. Demand forecasts can change, and the supply of new vehicles is uncertain too. So I wouldn’t treat the 150 figure as a fixed queue of customers already waiting. I do think it is a useful stress test for business plans that assume launch capacity will arrive on time, especially when those plans depend on deploying satellites at scale. For you, the consequence is straightforward: the future of satellite services is partly being decided by how many launches the industry can actually provide. The estimate makes the constraint visible, while leaving the eventual size of the gap unresolved.

Public spending is another way to see how much space activity extends beyond the rockets and missions that make headlines. SpacePolicyOnline.com reports that a new Aerospace Corporation analysis puts U.S. civil-space allocations at $42.6 billion in FY2026, with NASA accounting for 55% and the rest spread across other civil activities. “Civil space” means government space activity outside the defence category. That boundary matters: this figure describes civil-space allocations, not defence spending, and allocations are not the same thing as money already paid out. For you as a taxpayer, the number is a starting point for asking what public space budgets are buying across agencies, rather than treating NASA as the whole civil-space picture. The $42.6 billion total makes the breadth of the civil-space effort visible, while the 55% NASA share shows that a substantial portion sits elsewhere. The remaining activity is described broadly as spread across other civil activities, so I wouldn’t pretend this figure alone tells us which programs deserve more or less funding. The harder question is what capability comes back for the allocation: missions, services, science, or infrastructure, and at what cost. This figure establishes the scale of the civil budget; by itself, it doesn’t tell us what each part delivers or how well it performs. I think the useful move in a budget debate is to keep those questions attached to the money, rather than letting one large total stand in for a verdict on every program. And that’s why the distinction between civil and defence space deserves care. Combining them would blur two different spending categories and leave you with a total that this figure does not claim to measure. The public-space budget is broad; accountability has to be just as specific.

On the European connectivity side, MDA Space has signed an authorization to proceed with Thales Alenia Space, Via Satellite reports, to provide Aurora antennas and controllers for 66 IRIS2 Layer-1 satellites in low Earth orbit — the region relatively close to Earth where many communications satellites operate. An authorization to proceed is a permission to begin work; it doesn’t mean the full-scope contract has been finalized. The distinction matters because European public demand is moving into hardware work, but the value and final scope of the contract are not stated in the story’s summary. For you, the practical point is that the programme’s infrastructure is taking shape through supplier work, while this particular deal remains at an early contractual stage. The concrete detail here is 66 satellites, each tied to antenna and controller subsystems from MDA Space. Those parts are relevant to the network’s ability to communicate, but this announcement alone doesn’t establish that the satellites are built, launched or operating. That’s an important boundary: a signed authorization advances a project, while a working satellite network requires much more than an order for components. Via Satellite reported that IRIS2 is the European Union satellite-communications programme. The current development strengthens the picture of a project drawing commercial suppliers into its early layer, and it gives you a tangible example of how a government-backed network can distribute work across companies. I think the business signal is real at the supplier level, but the larger promise still depends on execution across the programme, not on one component contract. The measure of progress will be whether this hardware work turns into completed satellites and a functioning service. For now, the meaningful change is authorization to proceed with work for 66 Layer-1 satellites.

Defence spending also has a concrete spacecraft project attached to it: the UK Ministry of Defence picked Astroscale UK to lead Project LEDA, European Spaceflight reports. The £15 million effort is to manufacture, launch and operate a spacecraft to study close-approach operations and counters — ways of examining how spacecraft manoeuvre near one another and how those approaches might be countered. That language is specific about the project’s purpose. It describes studying close approaches and countermeasures; it does not establish that LEDA is an operational weapon or a deployed defensive system. The stated plan includes manufacturing and launching a spacecraft, so the project is intended to move beyond discussion, but the summary gives no flight timeline or success criteria. The phrase “orbital warfare” can sound like a complete capability arriving in a single award. The actual described work is narrower: one spacecraft, built and operated to study close-approach operations and counters. That distinction matters to you as a taxpayer because a funded study mission and a permanent operational capability are different things. I think this is a meaningful move into hardware and practical learning, but the public value will depend on what the spacecraft is asked to demonstrate and how the Ministry of Defence judges success. The £15 million figure identifies the project’s stated scale; it doesn’t tell us the eventual cost of any later capability or who would operate one. Those are separate questions, not conclusions this award answers. For now, the concrete development is a UK defence project led by Astroscale UK, with a spacecraft intended to study proximity operations and counters. That is a defined step; the operational outcome is still ahead.

A very different spacecraft problem sits in low Earth orbit: what to do when a valued telescope’s orbit is decaying. NASA says it has asked industry for concepts to service Hubble, including a reboost to prolong science, an upgrade, or controlled disposal. A reboost is a manoeuvre that raises an orbit. In Hubble’s case, the purpose would be to extend the telescope’s scientific life. The disposal option is about bringing the spacecraft down in a controlled way rather than attempting to extend its mission. These are three different concepts, and NASA’s request is a way to gather information about them. What makes this more than a thought experiment? NASA is looking at commercial servicing concepts for a telescope that remains scientifically valuable, while its orbit decays. But this request is for information; it is not a procurement or a commitment to fly a mission. That distinction keeps the news in the right category: NASA is exploring possibilities, not announcing a servicing contract. The stakes are unusually easy to understand. A servicing mission might help keep Hubble doing science, while controlled disposal would address its eventual end in orbit. But the summary gives no cost, so we can’t weigh a proposed mission’s price against the value of extended science. And technical risk matters when the job involves approaching and interacting with a working telescope. I like the ambition here, and I’m glad NASA is asking whether commercial capabilities can help preserve or responsibly end a major scientific mission. The next evidence that would make the idea more persuasive is a credible concept that addresses both the technical challenge and the value of the outcome. For now, NASA has opened a conversation with industry; a mission has not been promised.

The European network picture now has a long-range financial target alongside the hardware work. Via Satellite reports that Eutelsat recorded 30% year-over-year growth in OneWeb during fiscal Q1 and expects revenues from OneWeb and the European IRIS2 satellites to reach more than $10 billion (€8.94bn) in the 2032-2040 period once IRIS2 becomes operational. That figure is a forward target, not booked revenue. The connection to IRIS2 is central: Eutelsat’s stated target depends on the network being operational. In plain terms, today’s growth and a revenue ambition for a later period are different kinds of evidence. One describes reported performance in a fiscal quarter; the other describes what the company is aiming to generate in the future. The 30% year-over-year growth is a concrete current result, and the more than $10 billion (€8.94bn) expectation gives the European connectivity strategy a clear commercial ambition. But the target stretches across 2032-2040 and is tied to IRIS2 becoming operational. That means you should hear the schedule dependency in the same breath as the headline number. I think the growth figure gives Eutelsat a real foothold for its case, while the much longer-range target is still a promise about future service revenue. It would become more convincing as the network comes online and the company demonstrates that the service can produce the revenue it is targeting. Until then, I’d keep the more than $10 billion (€8.94bn) expectation in the ambition column, with the current growth figure as evidence of progress rather than proof of the whole plan. Across these stories, the useful distinction is between work authorized, money allocated, a concept requested, and a service target projected. Those stages matter because public and commercial bets only become capability when the steps between them are completed. The more than $10 billion (€8.94bn) expectation remains tied to IRIS2 becoming operational; if that network reaches operational service, it will tell us how much of Eutelsat’s ambition has moved from target toward delivery.

If you value a clear-eyed look at what space plans promise and what they can actually deliver, follow Space Stakes wherever you listen. This has been Space Stakes, an AI-voiced podcast, created and built by a real human using today's cutting-edge technology. Nothing you heard on this show is financial advice. I'm Brian Lampert, and I'll catch you all tomorrow — take care!

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