SpaceTech: what’s changing now?
In our space economy deck, you will find everything you need to understand the market
SUMMARY
SpaceTech: what’s changing now? SpaceTech is turning into an infrastructure industry built around frequent launch, permanent satellite networks, defense demand, recurring services and a growing set of businesses that operate after launch.
The biggest shift is scale. With almost 15,000 active satellites already in orbit by mid-2026, the industry is moving away from a world of rare missions and toward one where thousands of machines need to be launched, replaced, connected, moved and eventually serviced.
SpaceX still sets the economics of launch because cadence matters almost as much as price. Frequent Falcon 9 missions let satellite operators plan constellations, refresh hardware faster and design businesses around repeated access to orbit rather than occasional launch opportunities.
Competition is becoming more credible without becoming evenly distributed. Rocket Lab has real cadence in small launch, Blue Origin has now flown and recovered New Glenn, but high-cadence heavy launch is still overwhelmingly concentrated around SpaceX.
Vertical integration is spreading because the valuable business often sits above the hardware. SpaceX sells connectivity through rockets and satellites; Rocket Lab is expanding from launch into spacecraft, components and communications; Planet turns its own satellite fleets into recurring data services.
Defense is one of the strongest accelerators. Governments are buying proliferated constellations, commercial imagery, hypersonic-test launches, direct-to-device experiments and orbital transportation, giving private companies unusually large anchor customers for infrastructure that can later serve broader markets.
Earth observation is becoming a better business when it delivers continuous intelligence rather than individual images. Planet’s sharp revenue growth and heavy defense mix show how government demand can turn satellite imagery into a recurring operational service.
The next commercial layer is increasingly what happens after launch. Impulse Space, Orbit Fab and Astroscale are building around in-orbit transport, refueling, inspection and servicing, a category that only becomes useful once enough valuable spacecraft are already operating overhead.
Some emerging markets are real but still narrow. Varda has made reentry repeatable, commercial stations are moving closer to flight hardware and lunar delivery is now a private business, but most demand in those categories still depends heavily on governments or very high-value use cases.
Investment has come back in a more selective form. Seraphim’s roughly $23 billion trailing-twelve-month figure rose far faster than deal count, suggesting investors are concentrating much larger checks behind a smaller group of companies that could own strategically important infrastructure.
This market map, featured in our space economy deck, highlights top companies and startups in the space economy
SpaceTech: what’s changing now?
Why does SpaceTech feel different right now?
SpaceTech feels different today because companies are increasingly building permanent infrastructure in orbit instead of treating every launch as a standalone event.
The scale has changed quickly. The OECD’s latest Space Economy at a Glance counted more than 14,000 active satellites at the end of 2025 and almost 15,000 by mid-2026. Around 4,900 objects reached orbit during 2025 alone. That is a very different industry from the one that existed even five years ago, when satellite deployments were much smaller and launch opportunities were scarcer.
Money is moving in the same direction. Seraphim Space’s latest investment tracker found about $23 billion invested in SpaceTech over the previous twelve months, compared with $9.7 billion during the comparable earlier period. Yet deal count moved only from 582 to 620.
Several businesses are also producing numbers that look more like industrial businesses than long-duration experiments. Rocket Lab’s latest quarter brought in $234 million of revenue, 62% more than a year earlier, with $2.36 billion of backlog. Planet’s latest quarter reached roughly $116 million of revenue, up 58% year over year. U.S. military agencies are simultaneously ordering satellite constellations worth billions of dollars.
SpaceTech is becoming a market built around constellations, recurring services, defense infrastructure and increasingly frequent access to orbit.
If you want more recent data on this point, please see our latest space economy report.
Is SpaceX still changing the economics of the whole SpaceTech industry?
Yes. SpaceX still shapes SpaceTech more than any other company because Falcon 9 has made frequent access to orbit something satellite businesses can actually plan around.
The OECD gives a good sense of the imbalance. The United States accounted for 55% of orbital launches during 2025 but 87% of all objects launched, largely because of SpaceX’s cadence and huge Starlink deployments. By early 2026, SpaceX had also completed more than 600 Falcon 9 booster recoveries.
Those numbers have changed what satellite companies are willing to build. Constellations containing hundreds or thousands of relatively small spacecraft make far more sense when launches happen constantly. Operators can replace satellites more often, refresh hardware faster and spread a service across an entire fleet instead of packing as much capability as possible into one spacecraft expected to last 15 years.
Starlink showed how far that logic can go. SpaceX manufactures the satellites, launches them on its own rockets and sells broadband through the network.
Cheap launch gets most of the attention, but cadence may be even more important. SpaceX has made repeated access to orbit normal enough that an entire layer of businesses can now depend on it.
As this chart shows, and as featured in our space economy deck, search interest in the space economy has been rising steadily
Is SpaceX finally facing real competition in launch?
SpaceX is finally facing credible launch competitors, but nobody is close to matching its scale yet.
Launch capacity remains highly concentrated. According to the OECD, only 12 countries had demonstrated independent orbital-launch capability by mid-2026. The United States and China were the only two economies that had successfully recovered orbital-class first stages by that point, and American launch activity was dominated by SpaceX.
Rocket Lab offers the clearest established Western alternative at high cadence, although Electron serves a much smaller payload class. During its first quarter alone, the company signed 31 new Electron and HASTE contracts plus five dedicated Neutron launches. By its latest quarterly update, Rocket Lab had more than 90 missions in backlog after securing more than $437 million of additional launch contracts during and shortly after the quarter.
Blue Origin has become much more relevant too. New Glenn has already completed three orbital missions, including a successful first-stage landing on its second flight. Its third carried AST SpaceMobile’s BlueBird 7. Blue Origin is also expanding Launch Complex 36 with a second pad designed for higher cadence.
The harder test is repetition. Rocket Lab has demonstrated it with Electron but still needs to do so at Neutron scale. Blue Origin has proved New Glenn can fly and recover a booster; now it needs to fly much more often.
SpaceTech has more launch alternatives than it did a few years ago, but reliable high-cadence heavy launch remains overwhelmingly concentrated around SpaceX.
Why are SpaceTech companies trying to own everything themselves?
SpaceTech companies increasingly want control over several layers of the business because launch, satellites and services work much better when they are designed together.
SpaceX established the clearest version of the model. It manufactures rockets and satellites, launches those satellites, operates Starlink and sells connectivity to the customer.
Rocket Lab has been moving in a similar direction. It began with launch, then built a large space-systems business spanning satellite buses, reaction wheels, solar components and separation systems. It acquired laser-communications specialist Mynaric and spacecraft robotics company Motiv, and it has announced a deal to acquire Iridium. Management now openly describes Rocket Lab as a company that wants to design, build, launch and operate complete constellations.
Planet already works largely that way. The company builds and operates satellites, while customers pay for imagery, monitoring and satellite services. In its first quarter of the current fiscal year, 99% of annual contract value was recurring.
Orbital-logistics companies are starting with the same idea. Impulse Space can sell transportation between orbits, Orbit Fab wants to sell fuel delivery, and Astroscale can sell inspection and servicing.
Increasingly, the hardware sits underneath the service the customer actually pays for.
If you want more recent data on this point, please see our latest space economy report.
This chart, featured in our space economy deck, illustrates yearly venture capital funding for space economy startups
Is defense becoming the biggest new growth engine in SpaceTech?
Defense is currently one of the strongest growth engines in SpaceTech, and the size of recent orders shows how quickly military space is moving toward large commercial constellations.
The U.S. Space Development Agency provides the clearest example. It awarded roughly $3.5 billion across Lockheed Martin, Rocket Lab, Northrop Grumman and L3Harris for 72 Tranche 3 missile-tracking satellites. It later awarded another roughly $1.75 billion for 36 accelerated missile-warning, tracking and defense spacecraft.
That gives us 108 satellites under roughly $5.25 billion of headline awards across those two procurement rounds.
The more revealing development is what the Pentagon is buying. Traditional military programs often concentrated enormous capability inside a few highly sophisticated satellites. The Space Development Agency is instead building a proliferated network in low Earth orbit. Its latest Tranche 1 launch brought the number of those spacecraft already in orbit to 63.
Commercial companies can plug into this architecture in more ways than before. AST SpaceMobile received a $30 million prototype agreement tied to tactical satellite communications. Rocket Lab secured a $190 million contract covering 20 HASTE hypersonic test flights. Impulse Space recently became the first upper-stage company accepted as a prime contractor under the U.S. National Security Space Launch Lane 1 framework.
Planet’s latest financial results reinforce the pattern from another angle. Defense and intelligence generated roughly $81 million of its $116 million quarterly revenue, putting government security demand at around 70% of Planet’s business for the quarter.
| Recent defense-space activity | Scale |
|---|---|
| SDA Tranche 3 tracking order | 72 satellites / about $3.5B |
| SDA accelerated tracking and defense order | 36 satellites / about $1.75B |
| Tranche 1 spacecraft already in orbit after third launch | 63 |
| Rocket Lab HASTE contract | 20 launches / $190M |
| AST SpaceMobile HALO prototype agreement | $30M |
Why are governments putting hundreds of smaller satellites into orbit?
Governments increasingly prefer large constellations of smaller satellites because a distributed network is harder to disable and much easier to refresh.
A handful of extremely capable satellites creates obvious weak points. If one spacecraft carries a large share of a military sensing or communications capability, losing it can hurt badly. Distributing the same mission across dozens or hundreds of spacecraft makes that architecture much more resilient.
The Space Development Agency has made this idea central to its Proliferated Warfighter Space Architecture. Instead of waiting many years between generations of enormous spacecraft, the agency buys successive tranches of satellites and launches them in batches.
Commercial operators reached a similar conclusion for economic reasons. Planet routinely launches replacement and upgraded satellites rather than expecting each spacecraft to remain technologically current for more than a decade. Starlink continually launches newer generations while older satellites leave the constellation.
Starlink’s advantage comes from thousands of satellites working with terminals, ground stations, inter-satellite links and network software. Planet’s value comes from repeatedly observing Earth as a fleet. Military constellations gain resilience from the number and connectivity of their nodes.
Today, the network is becoming the product in some of SpaceTech’s biggest markets.
This chart, featured in our space economy deck, shows why SpaceX is leading in the space economy
Are Earth-observation satellites finally becoming a good business?
Earth observation is currently becoming a much stronger business, especially when companies sell governments continuous intelligence instead of individual satellite images.
Planet’s newest quarter is unusually revealing. Revenue reached about $116 million, up 58% from the same period a year earlier and well above the $73 million the company generated in that earlier quarter. Defense and intelligence revenue nearly doubled to around $81 million and represented roughly 70% of total revenue.
Planet has also moved beyond selling access to a common fleet. Its satellite-services business allows governments to obtain dedicated satellite capacity, including the Swedish Armed Forces agreement for a sovereign reconnaissance capability. ICEYE has followed a similar path in radar imaging, where governments value the ability to observe targets through clouds and darkness.
The product itself is changing too. Customers increasingly want an answer rather than another picture. Satellite imagery can feed models that identify changes in military positions, wildfire risk, infrastructure, crops or maritime activity automatically.
Planet’s six-month revenue rose to roughly $210 million, up 51%, and the company said most of the increase came from defense and intelligence. That is a much stronger commercial base than Earth observation had a few years ago.
If you want more recent data on this point, please see our latest space economy report.
Is satellite internet becoming a real competitor to mobile networks?
Satellite internet is moving directly into the mobile-phone market, and direct-to-device connectivity could become one of SpaceTech’s biggest consumer businesses.
Starlink already widened satellite communications far beyond the old market for ships, aircraft and remote industrial sites. Direct-to-device networks go further because they aim to connect phones people already own.
SpaceX is adding direct-to-cell service through Starlink. AST SpaceMobile is building large BlueBird satellites designed to communicate directly with ordinary smartphones through existing mobile operators. Blue Origin’s third New Glenn mission carried AST’s BlueBird 7, adding capacity for that network.
Governments are interested too. The Space Development Agency’s $30 million agreement with AST SpaceMobile is designed to test commercial satellite technology for tactical communications.
The opportunity comes from places terrestrial networks do not cover economically. Satellite operators can fill those gaps without replacing terrestrial mobile networks, and they can sell that extra coverage through telecom companies customers already use.
This chart, featured in our space economy deck, illustrates yearly funding for space economy startups
Is the next big SpaceTech market what happens after launch?
Orbital transport, refueling and servicing are becoming a real SpaceTech category as companies start solving what happens after a rocket drops a payload off.
Impulse Space shows how quickly this market is developing. The company raised $500 million in its latest funding round, taking total capital raised above $1 billion. It says it has already flown three missions and accumulated hundreds of millions of dollars in customer contracts.
Its products attack a real limitation of rockets. A launcher gets a payload into space, but it cannot efficiently deliver every spacecraft to every final orbit. Impulse’s Mira vehicle handles movement in orbit, while Helios is designed to move payloads rapidly toward higher-energy destinations.
Government procurement is starting to validate that capability. The U.S. Space Force added Impulse Space to National Security Space Launch Phase 3 Lane 1, making it the first upper-stage company accepted as a prime in that framework. It was then selected to support additional VICTUS SALO missions.
Refueling is developing alongside orbital transport. Orbit Fab’s architecture uses RAFTI refueling interfaces, RAVEN vehicles capable of carrying roughly 150 to 200 kilograms of propellant and NEST depots intended to store fuel in orbit. NASA has also selected Orbit Fab for fluid-transfer work related to Lunar Gateway.
Astroscale is tackling inspection and debris removal. Its ADRAS-J spacecraft operated for 293 days around a large piece of uncontrolled debris, demonstrating the close-proximity operations needed for inspection, relocation and eventual removal.
The commercial case for debris removal alone remains weak because a dead satellite generates no revenue. The OECD nevertheless estimates that almost $200 billion of economic activity is exposed to space-debris risks.
The stronger business may therefore be broader orbital servicing: move a satellite, inspect it, refuel it, reposition it or remove it when needed.
Are commercial space stations really ready to replace the ISS?
Commercial space stations are getting closer to flight hardware, but we still do not know whether private demand will be large enough to support several stations once the ISS disappears.
NASA is supporting commercially owned stations from Axiom Space, Vast, Starlab and the Orbital Reef team, with the intention of eventually buying research and astronaut services instead of owning the entire replacement infrastructure itself.
There has been concrete progress lately. NASA selected Vast for its sixth private astronaut mission to the ISS, targeted for 2027, giving Vast operational experience before its own station is available. Axiom Space was selected for the fifth private astronaut mission.
The bigger question is customer demand. NASA can serve as an anchor customer, but a genuinely commercial station needs additional governments, research institutions, pharmaceutical companies, manufacturers and private astronauts willing to pay substantial amounts for time in orbit.
Vast’s Haven-1 is interesting partly because it starts relatively small rather than trying immediately to reproduce the scale of the ISS.
Hardware is moving forward. The economics are still unproven.
This chart, featured in our space economy deck, compares the main business model options for Earth observation satellite operators
Is manufacturing things in space actually useful yet?
In-space manufacturing has become useful for a narrow set of high-value products and experiments, with Varda providing the clearest evidence that the operating model can work repeatedly.
Varda has now launched five missions and completed four reentries. Its fifth mission returned to Earth carrying a U.S. Navy payload designed to collect data during hypersonic reentry, while its spacecraft platform is also designed for pharmaceutical processing in microgravity.
Earlier space-manufacturing experiments often proved that something interesting could happen in microgravity. Varda is trying to make the full sequence—launch, processing, controlled reentry and recovery—repeatable.
Its FAA authorization allows repeated capsule reentries under a Part 450 vehicle-operator license through 2029.
The commercial logic works best for products that are extremely valuable per kilogram. Certain pharmaceutical crystals or advanced materials can potentially justify launch and reentry costs because microgravity changes how they form.
For now, orbital manufacturing looks most convincing in pharmaceuticals, advanced materials and reentry testing.
If you want more recent data on this point, please see our latest space economy report.
Is the Moon becoming a real commercial market?
The Moon is becoming a real market for private SpaceTech companies, but government spending still creates most of the demand.
NASA’s Commercial Lunar Payload Services program has changed how lunar missions are bought. Companies can build lunar transportation services and sell payload capacity instead of acting only as suppliers to a government-owned mission.
That approach has brought companies such as Intuitive Machines and Firefly Aerospace into lunar delivery while creating demand for propulsion, communications, navigation, power and surface systems around them.
NASA’s broader Artemis program adds more potential procurement, and other governments are increasing lunar activity too.
What remains missing is a large customer base independent of those programs. A communications satellite can sell bandwidth to users already on Earth. A lunar transport provider mostly serves customers because national space programs want to send something to the Moon.
The Moon is commercially relevant today. A self-sustaining lunar economy is still much further away.
This chart, featured in our space economy deck, shows revenue breakdown by customer segment in the space economy
Are investors really coming back to SpaceTech?
Investors are putting far more money into SpaceTech again, but the money is concentrating in fewer proven companies rather than reviving the old “fund every rocket startup” cycle.
Seraphim Space’s latest tracker recorded about $23 billion of private SpaceTech investment over the previous twelve months, up from $9.7 billion over the comparable earlier period. That is an increase of roughly 137%.
Deal count rose from 582 to 620 over the same periods, or only around 7%.
Investment dollars therefore increased by more than twenty times as fast as the number of deals.
Large private rounds explain part of it. True Anomaly raised roughly $600 million in one of the period’s largest financings, while Impulse Space raised $500 million. Investors appear willing to commit very large amounts to defense, orbital infrastructure and companies that have already demonstrated difficult hardware.
Public markets also provide better benchmarks than they did during the previous SpaceTech boom. Rocket Lab currently generates hundreds of millions of dollars each quarter and has billions in backlog. Planet is producing nine-figure quarterly revenue and positive adjusted EBITDA while defense demand grows quickly.
These days, investors seem much more interested in backing a smaller group of companies that could control important infrastructure.
| Seraphim Space investment measure | Earlier comparable period | Latest period |
|---|---|---|
| Trailing 12-month investment | $9.7B | $23B |
| Trailing 12-month deal count | 582 | 620 |
| Change in invested capital | — | About +137% |
| Change in deal count | — | About +7% |
What parts of SpaceTech are still mostly hype?
Asteroid mining, giant orbital data centers, mass manufacturing in space and self-sustaining lunar settlements remain much more speculative than today’s booming launch, defense and satellite-service markets.
Some of those ideas may eventually work. The problem is the number of assumptions that must become true at the same time.
Asteroid mining needs affordable prospecting, extraction, processing and transportation plus a material valuable enough to justify the operation. Large orbital data centers need launch costs, power generation, thermal management, radiation tolerance, networking and maintenance to compete with terrestrial facilities that are improving constantly.
A large lunar economy has the same sequencing problem. Transport becomes much more valuable when thousands of customers need it, but those customers have little reason to exist before power, communications, habitats and logistics are already available.
Direct-to-device connectivity starts from a much easier place: billions of phones already exist. Defense agencies already have budgets. Earth-observation customers already pay for intelligence.
The strongest SpaceTech markets today serve demand that already exists on Earth. The more speculative ones still need to create the customer as well as the technology.
If you want more recent data on this point, please see our latest space economy report.
This chart, featured in our space economy deck, shows how satellite internet platform technology has evolved over time
So what is actually changing in SpaceTech now?
SpaceTech is currently turning into a real infrastructure industry, with launch cadence, satellite networks, defense demand and orbital logistics becoming much more important than one-off missions.
Almost 15,000 operational satellites were already orbiting Earth by mid-2026 according to the OECD. Blue Origin has joined Rocket Lab as a credible operational alternative in launch, even though SpaceX remains far ahead. Direct-to-device satellites are starting to connect ordinary smartphones. Orbital-mobility companies such as Impulse Space have attracted huge funding rounds and government contracts. Varda has made spacecraft reentry repeatable.
As seen above, Seraphim measured roughly $23 billion of SpaceTech investment over its latest twelve-month window while deal count increased only slightly. Investors are concentrating more capital behind businesses they believe can become major infrastructure providers.
Defense may be the biggest accelerator. Governments are buying entire proliferated constellations, commercial Earth-observation capacity, launch services, direct-to-device experiments and orbital transportation.
There are still obvious limits. SpaceX has an enormous launch advantage. Satellite refueling has barely started commercially. Nobody has proved the economics of several private space stations. Most lunar demand comes from governments. Large-scale orbital manufacturing and asteroid mining remain far from ordinary businesses.
SpaceTech used to revolve around the challenge of getting something into orbit. These days, a much bigger part of the industry is about what happens once thousands of machines are already there: connecting them, replacing them, moving them, supplying them and selling services through them.
That is the biggest change in SpaceTech right now.
OUR METHODOLOGY
The question behind this article sounds simple: what is actually changing in SpaceTech right now? In practice, it is easy to answer through intuition, prominent headlines or whichever part of the industry happens to be attracting attention. We wanted a more grounded view.
We therefore broke SpaceTech into the main dimensions where meaningful change could be observed: access to orbit, satellite infrastructure, government and commercial demand, connectivity, activity after launch, emerging space markets and investment. We studied each dimension separately before bringing the evidence back together.
For each one, we looked for fresh evidence showing what is actually happening rather than what companies or markets expect to happen. Depending on the question, that meant launches completed, satellites deployed, contracts awarded, revenue and backlog, recurring demand, missions flown, regulatory approvals, infrastructure being built and capital actually invested. We generally gave more weight to executed activity and disclosed figures than to targets, roadmaps or announcements on their own.
We also avoided relying on a single type of evidence. A large funding round can show investor conviction without proving customer demand. A successful demonstration can prove technical capability without proving a market. A major contract can establish demand while saying less about whether a company can execute repeatedly. Looking at several forms of evidence together helped us separate isolated milestones from broader changes in the industry.
Where comparisons were useful, we chose the measure that most directly captured the question being asked. Launch activity, for example, is better understood through actual cadence, deployment and repeatability than through theoretical vehicle capability alone. Investment activity becomes clearer when capital deployed is read alongside the number of deals. New commercial categories become more convincing when technical progress starts appearing alongside customers, contracts and repeat operations.
The final conclusions come from that aggregation. We formed stronger judgments where several recent technical, commercial, financial and institutional indicators pointed in the same direction, and kept them more measured where progress still depended heavily on future execution or demand that has yet to develop.
For the underlying evidence, we prioritized first-hand company disclosures, financial reporting, government procurement and regulatory records, alongside authoritative cross-market datasets such as the OECD and specialist datasets where they provide information that primary company reporting cannot aggregate on its own.
Key sources used for this analysis include: OECD on satellite counts, launch activity and market concentration, OECD on orbital sustainability and debris exposure, Rocket Lab’s quarterly financial results, Rocket Lab on the HASTE defense contract, Blue Origin on New Glenn’s second orbital mission and booster landing, Blue Origin on New Glenn NG-3, the U.S. Space Development Agency on its 72-satellite Tranche 3 tracking award, the Space Development Agency on the 36 accelerated missile-defense satellites, the Space Development Agency on Tranche 1 deployment, U.S. Space Systems Command on Impulse Space’s NSSL Lane 1 role, Impulse Space on its $500 million Series D and operating progress, Astroscale on the ADRAS-J mission, the FAA on Varda’s reusable reentry authorization, NASA on commercial space stations, NASA on Commercial Lunar Payload Services, Seraphim Space’s investment tracker, Planet Labs’ quarterly financial reporting, and Starlink on Direct to Cell.
In our space economy deck, we identify pain points entrepreneurs should prioritize
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