Subscribe
Share
Share
Embed
Chapters
00:00 Today's headlines
00:47 FCC approval for Amazon Globalstar deal
02:53 DIA says China's satellite fleet tripled
04:42 Louisiana spaceport's Starship target
05:33 Ukraine's Obria Nano satellite test
06:56 Four more Galileo satellites ordered
09:11 No contract price or launch assignments
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.
ESA has ordered four more Galileo second-generation satellites, two each from Airbus and Thales Alenia Space, according to Via Satellite. The four are scheduled for delivery in 2031 and will launch soon after, so Europe is adding to a navigation system whose next generation is still years from service. The stakes are continuity for a system used for positioning, navigation and timing—and the harder question of what resilience costs when the satellites take years to arrive. Today we’ll sort what this order secures and what it leaves open. Welcome back to Space Stakes, your daily brief on the business of space. It's Wednesday, October 28, 2026. Let's get into it.
Amazon’s bid to acquire Globalstar has cleared the FCC review, but the deal still has to close. Via Satellite reports that the FCC granted approval on Tuesday, finding the transaction would serve the public interest through improved satellite services. Under the proposed transaction, Amazon will acquire 100% control of Globalstar and its subsidiaries, and Globalstar will become a wholly-owned subsidiary of Amazon.
The practical prize is spectrum for Amazon’s direct-to-device ambitions—connecting ordinary phones by satellite. Amazon intends to use spectrum it would acquire from Globalstar, and it filed with the FCC for a Direct-to-Device constellation of up to 5,105 satellites. That’s a filing for a proposed constellation, not a service already operating.
The FCC’s analysis found the transaction would improve coverage in unserved or underserved areas, emergency communications, and industrial and enterprise data services. It also pointed to Amazon’s investment in satellite services and the potential for further investment to benefit direct-to-device services. The FCC order says the transaction would enable a well-financed operator to provide enhanced service offerings to mobile customers, and cites Amazon’s pending license application as indicating a high likelihood that it would put the spectrum to intensive use.
There’s a competition question here. Via Satellite reported that the FCC found no head-to-head competition between the companies: Globalstar focuses on mobile satellite connectivity and wholesale capacity for internet-of-things, messaging and tracking, while Amazon Leo provides fixed satellite broadband. Via Satellite reported that the FCC concluded the deal would cause no horizontal or vertical harms. SpaceX is also pursuing direct-to-device service, and the FCC recently approved it to deploy up to 15,000 satellites in mobile satellite spectrum.
Only one entity filed against the acquisition. Amazon said the approval brings it a step closer to new connectivity capabilities, but didn’t update the timing for closing. The deal’s approval clears one regulatory step; customers still need a completed acquisition and a functioning service.
On the security side of satellite networks, a new Defense Intelligence Agency assessment is raising a different kind of connectivity question. Breaking Defense reports that the DIA’s unclassified report says China’s intelligence, surveillance and reconnaissance satellite fleet has tripled since 2018. These satellites collect imagery and other information that can help detect and track forces; the DIA says China’s system is designed to support worldwide awareness and long-range strikes.
The report says China had more than 510 ISR satellites in orbit as of July, counting satellites owned by both the Chinese government and commercial firms. The DIA says commercial and civil missions can have dual-use capabilities, meaning data or imagery may also be used by the military. It also says Chinese commercial firms supply imagery to state actors banned by Western providers for supporting weapons proliferation.
But the numbers need context. Todd Harrison, a senior fellow at the American Enterprise Institute, told Breaking Defense that the DIA’s count is unclear about which satellites it includes. He said China’s operational surveillance and weather fleet grew from 141 in 2018 to 541 today, while its surveillance-only fleet grew from 124 to 453. Harrison said the growth rate has leveled off in recent years, and that the United States has 643 operational surveillance and weather satellites, up from 298 in 2018, with its fleet expanding faster than China’s.
That’s a meaningful counterpoint to a topline growth claim. I think the useful question is what these satellites let a military see and do, not just how many are counted. The DIA’s concern is that the sensing network can help target forces; Harrison’s numbers challenge the idea that the fleet’s growth is accelerating unchecked.
A separate launch story comes with a striking number—and a long list of steps between a target and a flight. Benzinga reports that Elon Musk clarified that the target of 10,000 annual Starship launches applies exclusively to SpaceX’s planned Louisiana spaceport.
Benzinga reported that SpaceX envisions more than 30 daily Starship flights from the site. Those are plans and targets, while the headline number describes what Musk says the site could support.
SpaceX argues that conventional air-traffic management needs modernization to accommodate reusable rockets operating at airline-like frequencies. The company has pointed to its Cleared airspace-coordination technology as a possible solution. That’s a separate proposal and a separate site.
I’m interested in what the site can actually support after those pieces are built and approved; a capacity claim can’t do that work for them.
And in Ukraine, the sovereignty question moves from plans toward an in-orbit test. SpaceNews reports that Ukrainian defense technology company Himera and Danish satellite manufacturer GomSpace are testing their Obria Nano communications satellite, launched Oct. 1 aboard SpaceX’s Transporter-18 rideshare mission.
The companies say the test will inform the design of a constellation intended to provide communications coverage across Ukraine. Himera co-founder and chief executive Misha Rudominski said, “For us, this project is about more than launching a satellite. It is an opportunity to lay the foundation for an independent communications network for Ukraine.” He also said, “We are starting by testing technologies in orbit, while our long-term goal is to develop capabilities that will strengthen the country’s strategic security and reduce dependence on external communications providers.”
The timing matters in a practical sense: SpaceNews says disruptions to Starlink and Starshield services in mid-October affected Ukrainian military operations, and Ukraine said Oct. 24 that service had returned to normal operating speeds. The article says the satellite’s specifications, communications capacity, project financing and the planned constellation size haven’t been disclosed. It also says neither European initiative is expected to replace Starlink’s extensive global network. One satellite is now operating in orbit and undergoing testing; the wider network remains a goal.
That's the rest of the rundown. Now, the story that deserves the long look. Galileo is Europe’s satellite navigation system, which provides positioning, navigation and timing—the same basic job GPS does. Via Satellite reports that ESA awarded Airbus and Thales Alenia Space contracts to build two additional second-generation Galileo satellites each.
The order brings each manufacturer to eight second-generation satellites. ESA had previously contracted each company for six in 2021, according to Via Satellite. The four added satellites are scheduled for delivery in 2031 and will launch soon after. That schedule matters: the order builds the next generation, but it doesn’t put these four spacecraft into service now.
The new satellites will be identical to the second-generation satellites already under development. Via Satellite says they’ll carry fully digital navigation payloads, which process navigation signals digitally; inter-satellite link capacity, which lets satellites communicate with one another; and an advanced atomic-clock configuration, the precise timing hardware navigation depends on. The stated aim is more reliable positioning, navigation and timing services.
ESA Director of Resilience, Navigation and Connectivity Laurent Jaffart said the contracts safeguard continuity of Europe’s navigation services, respond to evolving user needs and strengthen Europe’s strategic autonomy. He called them an investment in Europe’s ability to navigate independently.
There’s an existing system for the new generation to build on. Via Satellite says Galileo has been operating since 2016 and currently consists of 36 satellites in orbit, with two remaining to launch. The 16-satellite second-generation system will join the first generation and support new services. ESA says development and qualification activities are nearing completion for the first 12 second-generation satellites, which are set to begin launching in 2028.
So this order fits into a sequence: a first generation is operating, the first batch of second-generation spacecraft is nearing the end of development and qualification, and four more have now been ordered. For you, the everyday stake is dependable navigation used in phones, transport and other services. For Europe, the stated stake is keeping that capability under its own control. The announced architecture is concrete; the schedule stretches years ahead.
Here’s the complication: the technical package is specific, but the article gives no contract price or launch assignments. Which launch vehicles will carry these four satellites? That remains unanswered here, and it matters because delivery in 2031 is only one point on the route to service—the article says they’ll launch soon after, without identifying the rides.
The case for the order is continuity. The current Galileo system is operating, the new satellites are designed to join it, and ESA says the first 12 second-generation satellites are set to begin launching in 2028. The digital payloads, links between satellites and clock configuration are intended to make navigation services more reliable. That’s a real capability goal, not just an industrial headline.
The limitation is equally concrete: these four additions are scheduled for delivery in 2031. The source says the second-generation system will support new services, but doesn’t say what those services are or how the additional satellites change coverage or resilience. And with no contract value disclosed, you can’t judge the price of the extension against alternatives from the information here.
I think this is Europe buying insurance for a capability already in use, and the order strengthens that case by adding named hardware to a defined fleet. I’m not yet convinced the order alone proves resilience is improving enough to justify its cost, because we don’t have the price or the launch assignments. A published contract value and a launch plan would make that judgment much firmer.
I’m glad to see a concrete order behind the ambition: two satellites each for Airbus and Thales Alenia Space, with the stated goal of more reliable navigation services. But the public should be able to see what that capability costs and when it is expected to arrive. My substance rating is 6 out of 10: the strongest point against a higher score is that delivery is scheduled for 2031 and the price is undisclosed, while the reason it clears the middle is a specific order tied to an existing navigation system and defined spacecraft features.
Time for the Hype Check. I’d put this at 6 out of 10 for substance: four ordered satellites and specified navigation equipment give the plan real weight, while the 2031 delivery schedule and missing price keep the full value of the commitment unresolved. Europe’s navigation continuity is the stake; today’s order adds hardware to the pipeline, and the people who rely on Galileo gain if it arrives as planned, while taxpayers bear the cost if the price or schedule proves poor.
If you value a daily look at the business and policy behind space, 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!
Watching on YouTube? Hit subscribe, and tomorrow's briefing will be waiting for you. I also host Concrete Compute: a daily briefing on the AI buildout. The datacenters, the megawatts, and who actually pays for them. Find it wherever you get your podcasts.