Space
Space is where I spend most of my working attention, both as an investor and as co-founder of SATELYX. This is where I write about the mechanics of the industry as it actually operates today: why the industry is standardizing around a smaller set of spacecraft bus designs instead of bespoke builds, how the space debris removal market is forming faster than the governance rules meant to regulate it, why satellite orchestration is starting to replace outright ownership as the more capital-efficient model, and how the rideshare and hosted-payload launch-access layer is becoming a business in its own right. Elsewhere in the category: why in-orbit demonstration remains the real bottleneck between a working prototype and flight heritage, what sovereign space capability looks like once it moves past policy into signed contracts and flown hardware, and where standardization is reshaping the earth-observation market.
The angle throughout is the same one I bring to SATELYX and to the deals I look at as an investor: not what’s technically possible, but what it takes for a piece of space hardware or infrastructure to earn the evidence a buyer needs before they’ll commit.
Shared Space Infrastructure Only Works With Clear Operating Boundaries
Viasat and Space42 are putting up to $1 billion behind Equatys, a proposed direct-to-device venture built around a simple division of labour: the venture would own common satellite and ground infrastructure, while operators keep their own spectrum and customer relationships. The initial system is planned at fewer than 200 satellites, with an architecture designed to scale to 2,800. The scale is eye-catching, but the boundary is the more important part of the proposal. Payload’s account of the Equatys plan makes clear that the two founders intend to be the system’s first clients, not to surrender their retail identities to a new constellation owner.
NewOrbit's NEO-1 and Britain's £7.8 Billion Space Bet
NewOrbit, a Reading-based satellite manufacturer founded in 2021, has booked a launch slot for the third quarter of 2028 to fly NEO-1, its first spacecraft, into an orbit that only two prior missions have held for any meaningful stretch of time. Very low Earth orbit, the band roughly 200 to 300 kilometers up, has enough residual atmosphere to erode a satellite’s surfaces and drag it back down within weeks unless something actively fights the physics the whole time it’s up there.
Sophia Space's $300M Leasing Framework: Financing Structure, Not Proof of Demand
Ten satellites, a combined 240 edge servers’ worth of orbital compute, and no end users named in the announcement: that is the state of the business behind the non-binding $300 million financing framework that Sophia Space and SLI announced on September 14. Under the proposed structure, SLI would fund construction of Sophia’s TILE constellation against build and launch milestones, take ownership of the spacecraft once they pass in-orbit acceptance, and lease capacity to end users under longer-term arrangements.
Open Cosmos Raises €300 Million to Scale European Satellite Manufacturing
Open Cosmos just closed a €300 million Series C, and roughly €0 of the press language around it mentions that the company is now trying to run four satellite factories in four countries at the same time while also promising to turn raw orbital imagery into usable intelligence in 30 minutes instead of two days.
TrustPoint's Production Run Is the Real Test of Its PNT System
TrustPoint has ordered 40 satellites from EnduroSat US for a GPS-independent positioning, navigation and timing constellation. The order will be delivered in three tranches, with the first launches expected no earlier than 2027. That is a decisive change in the company’s task: TrustPoint has shown that its C-band payload can fly, and now has to show that the system can be produced, integrated and operated at a scale that begins to resemble infrastructure. EnduroSat’s announcement of the 40-satellite contract is clear about that transition.
Stoke Space Has $2.3 Billion. The Next Milestone Is a Flight.
Stoke Space closed an initial $1 billion tranche of its Series E round, bringing total capital raised to $2.3 billion. Its Nova Pathfinder rocket has yet to complete a single flight.
Own the Mission, Not Just the Hardware: What This Week's Space Deals Are Really Selling
NASA just paid Blue Origin roughly $700 million, and the interesting part isn’t the dollar figure. It’s what the contract actually covers. The firm-fixed-price Mars Telecommunications Network award spans design, development, integration, launch, and network operations in a single deal, with Blue Origin expected to deliver the orbiter by the end of 2028. The spacecraft is based on Blue Ring, sized to carry more than 1,000 kilograms to Mars orbit, and it includes a 20-kilogram payload slot for science instruments or deployable CubeSats.
Space's Next Edge Isn't the Boldest Mission. It's the One You Can Repeat.
York Space Systems just told the market what a “good enough” satellite for very low Earth orbit actually looks like, and it isn’t the exotic engineering flex that the term VLEO usually implies. The company’s new LX/V-Class platform, derived from its existing S- and LX-Class spacecraft, adds structural changes for reduced drag, targets missions of more than three years, and can operate as low as 200 kilometers. It carries a higher-thrust electric propulsion system from Orbion Space Technology, around 300 kilograms of payload capacity, 2 kilowatts of peak power, and according to York, it can go from signed contract to launch in six to seven months.
Orbit Is Getting More Crowded and More Volatile, and Fleet Size Alone Won't Fix That
A Portuguese space-traffic company just partnered with a Belgian sensor maker to catch debris that’s currently invisible to almost everyone tracking it. In the same stretch of news, a space-weather analytics firm put a dollar figure on what solar storms are about to cost orbital infrastructure, and the number is getting worse fast. Neither story mentions the other, but string them together and you get one honest picture: orbit is getting more crowded and more volatile, and the standard answer, put up more satellites, doesn’t automatically buy more resilience.
Sovereign Space Capability Is Starting to Look Like Signed Contracts and Flown Hardware
OHB signed a contract worth nearly €1 billion with SES this week to build 18 medium-Earth-orbit (MEO) satellite platforms under Europe’s IRIS² secure-connectivity programme (details via SpaceWatch ). Within days, China demonstrated a two-way, high-speed laser communications link stretching more than 400,000 kilometres between Earth and the Moon (as SpaceWatch reported ). Different continents, different technologies, and neither story is a strategy paper: “strategic autonomy” is no longer a phrase that lives in government white papers. It’s a line item, a delivery schedule, and, in one case, a beam of light that actually made the round trip.
In-Orbit Demonstration Is Still the Bottleneck Between Prototype and Flight Heritage
The UK Space Agency wants to hear from companies that have built something promising and still have no real way to get it into orbit. Its new Request for Information (RFI) asks specifically about emerging payloads and technologies that need in-orbit demonstration (IOD), and about the barriers standing between those technologies and a flight opportunity (UK Space Agency, LinkedIn ). That request landed in the same stretch of news as quantum-imaging startup Diffraqtion closing more than $5 million in additional pre-seed funding, pushing its total raised past $10 million, with the money earmarked for exactly this problem: buying its way onto a hosted payload after years of ground testing and work with the National Aeronautics and Space Administration (NASA) and the Defense Advanced Research Projects Agency (DARPA) (Payload, on Diffraqtion’s funding round ). Neither mentions the other, but line them up and the shape is obvious: a government agency asking what still needs to fly, and a well-funded company that, after all that groundwork, still doesn’t have a flight of its own.
Commercial Space Sensors Are Becoming National-Security Infrastructure
The U.S. Space Force awarded LeoLabs a $20.68 million Prototype Other Transaction Agreement, a fast-track government contract structure built for rapid prototyping outside standard acquisition rules, for a modified version of its Scout mobile radar, and the deployment timeline is the part worth sitting with. LeoLabs says Scout can be packed into a shipping-container-sized unit, and its first Indo-Pacific deployment began tracking Chinese intelligence, surveillance and reconnaissance satellites and a Chinese spaceplane within hours of activation, according to Payload Space’s report on the Scout award . Hours, not months. That is a commercial sensing company operating on a timeline that used to belong exclusively to military systems, and it is not the only sign this week that commercial space-domain awareness, the practice of tracking and characterizing objects in orbit, is being pulled directly into missions that used to be built in-house.
Sovereignty in Space Now Means Local Presence, Not Just Local Data
ICEYE opened offices in the Netherlands, Korea and India in a single week, and each one does a different job: Dutch engineering and R&D, Korean defense and intelligence partnerships, Indian manufacturing and supply-chain development, according to Payload Space’s report on the expansion . That is not a company chasing market share. It is a company mapping its own supply chain onto the borders that its government customers actually care about, and it is the clearest version of a pattern showing up across the space industry this week: sovereignty is no longer just about who owns the satellite data. It is about who has people, hardware and contracts inside a country’s own borders.
Modular by Design: Why Integration, Not Invention, Is Space's Next Advantage
RTX’s Blue Canyon Technologies unveiled FleXbus this week, and the product itself is less interesting than what it admits about the market. FleXbus bundles Blue Canyon’s flight-proven FleXcore guidance, navigation and control system with avionics, command and data handling, sensors, actuators, power control, batteries, payload interfaces and flight software, built to work across different spacecraft structures so customers can integrate the pieces in their own facilities, according to SpaceNews’s coverage of the launch . Blue Canyon did not build a better satellite. It built a kit of parts a customer assembles into whatever satellite they actually need, which is a different business entirely.
Standardization Is Winning: What the Earth-Observation Boom Says About Where Space Is Headed
Novaspace put out a number this week worth sitting with: more than 6,500 Earth-observation satellites launching by 2035, generating an estimated $155.9 billion in manufacturing revenue (SpaceNews ). Forecasts like that usually get read as a growth story, and there’s plenty of growth in it, but the number itself isn’t the interesting part. What’s interesting is the framing Novaspace hangs it on: Earth-observation demand is moving from individual sensors toward persistent, interoperable intelligence networks, and buses are becoming standardized while value shifts to payload integration and multi-sensor intelligence layers. That’s a claim about where the money goes, not just how many satellites get built, and it happens to match a pattern showing up in a couple of other places in the industry this same week.
The Subsystem Bottleneck: Power, Propulsion, and the End of Bespoke Spacecraft
A deployable solar-array startup, a Japanese propulsion company, and an orbital-compute infrastructure firm all closed funding rounds this week, and none of the three would call themselves competitors. Line up what each check is actually paying for, though, and the hard part of an ambitious space mission has clearly stopped being “can we get this to orbit” and started being “can we power it, move it, and keep it alive once it’s up there.”
Prove Once, Deploy Everywhere: Flight Evidence Is Becoming Space's New Currency
Four 17-kilogram satellites are quietly rewriting what counts as proof in this industry. Aerospace Corporation’s DiskSat mission, launched on a Rocket Lab Electron in December, has spent the months since descending toward very low Earth orbit (VLEO) at roughly 2 kilometers a month, while engineers commission Enpulsion electric-propulsion systems meant to hold the four vehicles below 300 kilometers once they get there, according to the mission’s flight log as reported by SpaceNews . It is a slow, unglamorous process. Power management, communications, attitude control, thermal design, dispensing and ground operations are all being worked out in real time, on orbit, under real conditions. That is the point. Nobody buys VLEO capability off a spec sheet anymore. They buy flight evidence: proof, generated in orbit, that it actually works.
Space Validation Is Becoming the Price of Entry
When the Space Force’s SpaceWERX program put out this year’s STRATFI list, the headline figure was a potential $562.5 million spread across eleven companies. The more interesting number sits underneath it. Only about $245 million of that total is expected to come from government funding directly, with the rest anticipated from private investment and milestone-based matching funds. That split is worth sitting with, because it says something about where confidence in this industry now actually lives, and it is not in a pitch deck or a prototype demo anymore.
Reusable Rockets Don't Prove Themselves in One Flight, They Prove It in the Next One
One company recovered a booster this week and is already planning to fly it again. Another flew a rocket for the first time and had to blow it up mid-flight. On the scoreboard, that’s a win and a loss. But both companies are doing exactly what a young launch program is supposed to do: build something, fly it, find out what breaks, fix that specific thing, fly again.
Orbit Access Isn't the Same as Mission Capability
The U.S. government wants to see 1,000 launches and reentries a year from American facilities by 2030, a target laid out in a new National Space Transportation Policy that treats launch infrastructure as a strategic bottleneck rather than a manufacturing footnote. It’s a striking number against a 2025 baseline of just under 200 launches by U.S.-owned vehicles, and it says something real about where the industry’s attention has shifted. But a bigger number of launch slots doesn’t automatically produce a bigger number of missions that actually work once they get to orbit, and this week’s spacecraft and component news makes that gap harder to ignore.
The Launch-Access Layer Is Becoming Its Own Business
A rideshare integrator added a mission to its manifest this week. A hosted sensor rode to orbit on someone else’s spacecraft. A mobile carrier flipped a satellite connectivity service into commercial operation. None of the three announcements were about a rocket, and none of them would make a trade-press roundup on their own merits. But the space industry is unbundling “getting capability into orbit” into distinct, specialized businesses, and the launch-access layer connecting rockets to customers is becoming one of its own. Owning a launch vehicle is no longer the same thing as owning the ability to deploy capability.
FCC Approval Isn't the Finish Line: What Reflect Orbital's Backlash Reveals About Space Validation
Reflect Orbital got its first regulatory win this week: the FCC approved the company’s debut sunlight-reflecting satellite for launch this year. If you only read the headline, it sounds like the company just cleared its biggest hurdle. Read past it, and you find a fight that’s really just getting started, one that has almost nothing to do with whether the hardware works.
The Space Industry Is Swapping Satellite Ownership for Orchestration
A government sensing program moved from evaluation into procurement this week. A tasking network added dozens of sensors it doesn’t own. A debris-tracking company bolted someone else’s hardware onto its own software. Three deals, three different corners of the industry, and not one of the companies involved built a bigger constellation to get there. All of them got more capable anyway, by orchestrating capability that already exists rather than buying more hardware.
Space Is Building Disposal Capability Faster Than It's Building Disposal Rules
A discarded rocket stage hit the Moon this week. It’s a harmless impact today only because there’s nothing up there yet worth protecting, and that’s about to stop being true. In the same stretch of news, two U.S. defense agencies started paying three companies to study how to grab dead satellites out of orbit, and a Portuguese space-safety company partnered with a Belgian sensor maker to see debris that’s currently invisible to almost everyone tracking it. None of the three stories mention each other. Put next to each other, they’re describing one industry getting serious about cleanup work faster than it’s writing any rules for how that cleanup is actually supposed to happen.
Nobody's Building From Scratch Anymore: Three Ways Space Companies Are Assembling Instead of Inventing
A merger, a new foreign subsidiary, and a Space Force contract for a maneuverability architecture don’t sound like the same story. But this week’s news from Elveo Mobile, Rocket Lab, and Space Kinetic is really one pattern showing up three different ways: none of these companies built what they needed from a blank sheet of paper. They assembled it, out of pieces that already existed and already worked, and combined those pieces in a way that gets them somewhere faster than starting over would have.
Space Doesn't Need You to Choose Between Buying a Satellite and Building One
For most of the last decade, spacecraft procurement has been a binary choice. Either you buy a complete spacecraft bus from a prime and accept whatever architecture comes with it, or you build one from scratch and absorb years of architecture work, flight-software development, supplier qualification, and testing before you ever get to the part of the mission that actually differentiates you. Two stories this week suggest that binary is finally breaking down, and not because anyone decided it should on principle. It’s breaking down because the cost of pretending it isn’t binary just got measured in months of delayed revenue.
The €15.6B Signal: Why Sovereign Space Programs Are Now Buying Flight Heritage, Not Just Satellites
IRIS2, Europe’s sovereign satellite connectivity constellation, just moved into implementation with a budget that grew well past its original €10.55B target, and buried inside the new structure is a detail nobody was talking about a year ago: a dedicated VLEO segment. The same week, a SpaceNews op-ed built around interviews with the National Geospatial-Intelligence Agency’s leadership argued that national security doesn’t need more maps or imagery, it needs measurement. Neither piece mentions the other, but put next to each other they’re a fairly precise description of where defense and sovereign space procurement is heading, and of who gets left out of it.