Europe is trying to rebuild a more independent space industry at the same time as demand for satellites and space infrastructure is growing quickly. The interesting part is that this is no longer only about rockets. A new generation of European companies is emerging across launch, satellite platforms, propulsion and other critical parts of the stack. In this article, I look at how these markets are developing, where the strongest companies are starting to separate from the rest, and which parts of the European space ecosystem look most interesting today.

Launch & Space Transportation

What is this category about?

• This category is about physically moving spacecraft from Earth into orbit, with some companies extending transportation beyond the initial launch. Access to space is the first infrastructure layer behind almost every satellite business. If launch capacity is scarce or unreliable, the rest of the space economy cannot scale independently.

• Europe has a capacity problem because it still has relatively few independent ways to reach orbit. New commercial providers are trying to create more frequent launch capacity outside the traditional launcher model. This is partly an economic problem, but it has also become a strategic one as European governments want to depend less on foreign launch providers.

• Small satellite operators also have a flexibility problem. Rideshare missions can make launch relatively cheap, but the customer normally has limited control over the launch schedule or final orbit. Dedicated launch services exist because some missions are valuable enough to pay more for that control.

• Launch itself is only part of the operational problem. A satellite still has to be integrated into the mission and deployed safely once the rocket reaches space. This creates room for companies that simplify the transportation layer without necessarily building the launch vehicle themselves.

What do products in this category do?

What do products in this category do?

• The core model is owning the rocket and selling launch capacity directly to satellite customers, but the companies are at very different stages of proving that model. Isar Aerospace is currently the only company in the landscape that has demonstrated orbital launch capacity with its own vehicle. Spectrum reached orbit and deployed customer payloads in September 2026. PLD Space has successfully flown MIURA 1, but that was suborbital, and its orbital MIURA 5 is still in development. HyImpulse has also demonstrated a suborbital vehicle with SR75, while its SL1 orbital launcher is still being developed. Rocket Factory Augsburg and Latitude have not yet completed an orbital launch. So although these companies share the same business model, only Isar has crossed the line from launcher development into proven orbital transportation.

• A second model provides launch access without owning the rocket. Exolaunch sits between satellite operators and launch providers. It secures capacity on vehicles operated by companies such as SpaceX or Isar Aerospace, then handles the mission integration and deployment for its customers. It also supplies its own separation hardware. This makes Exolaunch closer to a launch broker and mission integrator. The model avoids the enormous cost of developing a rocket while still capturing part of the value created when satellites need to reach orbit.

• The Exploration Company operates in a different part of the transportation stack because it is building the spacecraft that carries cargo after launch. Nyx relies on a third party rocket to reach space, then transports cargo to an orbital destination and can bring material back to Earth. The company is therefore not competing directly with Isar or PLD Space for the launch itself. It is building the logistics layer that starts once launch capacity has already been purchased.

• Some launcher companies want to control more of the journey after the rocket reaches orbit. Rocket Factory Augsburg is developing Redshift, while HyImpulse has HyMOVE. These vehicles are designed to move payloads after launch rather than simply leave them where the rocket deploys them. If this works commercially, launcher operators can sell a more complete transportation service rather than only the first leg into orbit.

How is Launch & Space Transportation evolving?

• The biggest change is that part of the category is crossing from development into actual operations. Isar Aerospace reached orbit with Spectrum in September and deployed customer payloads. Exolaunch is already much further along as a service business, with 844 satellites deployed across 49 missions. That means companies in this category can no longer be compared only on technical progress.

• The competitive bar is moving from building a credible vehicle toward delivering missions repeatedly. Rocket Factory Augsburg is still working toward its first orbital launch after another delay this summer. Latitude currently targets its first commercial launch for 2027. PLD Space has already demonstrated MIURA 1, but repeat orbital delivery with MIURA 5 is still ahead. The next separation between companies will come from reliability and launch cadence rather than successful tests.

• Commercial demand is also becoming visible before the whole market is operational. The Exploration Company says it has ten Nyx missions booked representing more than $2 billion in contracts and commitments. PLD Space signed Sateliot for a dedicated MIURA 5 mission, while Isar Aerospace keeps adding future launches to its manifest. Customers are therefore becoming willing to reserve capacity before providers have reached steady state operations.

What types of customers are using these products?

• Space agencies and governments are unusually important customers in this market. ESA has already contracted The Exploration Company for commercial cargo return and is now buying launch capacity through the European Launcher Challenge. The Norwegian Space Agency has also contracted Isar Aerospace to launch two Arctic Ocean surveillance satellites. Public institutions are therefore not only funding the technology. They are increasingly buying the service itself.

• Commercial satellite operators are another core customer group, especially when they care about a specific mission profile. Sateliot selected PLD Space for two satellites aboard MIURA 5. Astroscale Japan signed with Isar Aerospace for its ADRAS J2 mission. These customers are buying transportation as part of a much larger satellite business, so launch reliability matters more than the rocket technology itself.

• Smaller operators can outsource most of the launch process instead of dealing directly with a rocket company. Exolaunch regularly manages missions for dozens of customers at once. Its upcoming Transporter 18 and Bandwagon 5 campaign covers 68 satellites for 40 customers. This suggests that launch aggregation and integration can become a substantial business even when the company does not own the launcher.

What are the major trends shaping this category?

• Europe is changing the way it supports commercial launch companies. ESA has earmarked more than €900 million for the European Launcher Challenge, but the important change is the mechanism. ESA wants to become a customer of privately developed launch services rather than defining the launcher itself. Providers must demonstrate orbital capability and ESA can then contribute to operational launches through 2030. That gives successful companies an anchor customer while still forcing them to build a commercially usable service.

• The satellite market is growing extremely quickly, but that does not automatically make small launchers attractive. More than 4,000 payloads were placed into orbit in 2025. BryceTech counted 4,466 small satellites, yet only 4% flew on micro or small launch vehicles. Most went up on much larger rockets through constellation launches or rideshare missions. European small launch companies therefore need to compete on mission flexibility or strategic independence rather than trying to beat large rockets purely on cost per kilogram.

• Europe has crossed an important credibility threshold because a private European launcher has now actually reached orbit from continental Europe. Isar Aerospace achieved this with Spectrum on 5 September 2026 and became the first European Launcher Challenge participant to clear the programme's orbital milestone. This changes the competitive context for the other launcher startups because technical ambition is no longer enough. There is now a European benchmark for actual orbital execution.

• A shortage of affordable launch capacity could create a real opening for European launchers over the next few years. Small satellite companies have become heavily dependent on SpaceX's Falcon 9 rideshare missions because they offer cheap and frequent access to orbit. That capacity is starting to tighten. SpaceX is gradually shifting its focus from Falcon 9 toward Starship, while more of the remaining Falcon 9 launches are being used for its own Starlink constellation. Starlink already represented around 79% of Falcon 9 launches in 2026, and some commercial customers have reportedly been told that Falcon 9 capacity is unavailable until 2028 or 2029. There is also growing uncertainty over how many Transporter rideshare missions SpaceX will continue once Falcon 9 is phased down. For European companies such as Isar Aerospace or PLD Space, this could change the economics of the market. They do not need to beat SpaceX on price if customers increasingly value having a launch slot available when they actually need it.

How does the funding environment look?

• The amount of capital required increases dramatically as companies approach real operations. The Exploration Company raised $450 million in September, while PLD Space's Series C reached €288 million. Isar Aerospace raised another €270 million this year after securing €150 million of convertible financing in 2025. Investors are no longer financing prototypes at this stage. They are financing factories and the operational capacity required to fly repeatedly.

• Public capital is part of the financing model rather than something separate from venture funding. PLD Space combines large private rounds with a €30 million EIB loan and its €158.9 million European Launcher Challenge award. HyImpulse has also combined private financing with substantial ESA support. This makes sense because European governments have a strategic interest in keeping launch capacity available even before the economics of the private market are fully proven.

• The largest rounds are increasingly going to companies that have already removed part of the technical or commercial risk. Isar Aerospace had accumulated launch contracts and substantial flight progress before its latest financing. The Exploration Company could point to Nyx bookings worth more than $2 billion in contracts and commitments. Capital appears to be concentrating around companies that can show something more concrete than a credible engineering roadmap.

Satellites & Spacecraft Platforms

What is this category about?

• These companies build satellites for organizations that want to put something into space. The customer may have developed a camera or another type of payload, but still needs a spacecraft to carry it and keep it working once it reaches orbit. Instead of designing that spacecraft themselves, they can buy an existing satellite platform and adapt it to their mission.

• The main value is making satellite missions faster and cheaper to build. Developing a new spacecraft from scratch can take years and requires a large engineering team. A reusable platform lets the customer spend more of its time on the payload or service that actually differentiates the mission.

• This becomes particularly important for constellations. A company that needs 20 satellites cannot treat every spacecraft as a separate engineering project. It needs a platform that can be produced repeatedly while still allowing some customization for the mission. This is why several companies in the category are investing heavily in factories and more standardized satellite designs.

• European governments are becoming an important source of demand as well. Communications and observation satellites are increasingly viewed as strategic infrastructure. Governments therefore want more of those spacecraft to be built by European suppliers rather than depending entirely on foreign manufacturers.

What do products in this category do?

• The largest subcategory is satellite platforms, sometimes called satellite buses. These are the spacecraft that carry the customer’s payload and provide the basic systems needed to keep it operating in orbit. EnduroSat sells standardized FRAME platforms. Aerospacelab builds spacecraft for customers such as Xona, while U-Space offers its own small satellite platforms. Reflex Aerospace sits in the same group but puts more emphasis on adapting the spacecraft to the requirements of each mission.

• Some companies go further and sell the complete satellite mission rather than only the spacecraft. Loft Orbital lets customers put a payload on one of its satellites while Loft handles integration, launch and operation. Open Cosmos also builds and operates satellites for customers, and with OpenConstellation it can give them access to shared satellite infrastructure instead of requiring them to own an entire spacecraft. This is useful for organizations that want to use space without building their own satellite team.

• Other companies build more specialized spacecraft for missions where a standard small satellite is not enough. SWISSto12 builds compact geostationary satellites with HummingSat. NewOrbit is developing satellites specifically for very low Earth orbit, where atmospheric drag creates a different engineering problem. ReOrbit builds sovereign communications and intelligence satellites designed around secure infrastructure. These products are still complete spacecraft platforms, but they are optimized for a much narrower type of mission.

How are Satellites & Spacecraft Platforms evolving?

• Satellite manufacturing is starting to look much more like serial production. EnduroSat has already deployed more than 100 satellites and recently won an order to build 40 spacecraft for TrustPoint. Aerospacelab is building its Megafactory in Belgium after opening manufacturing capacity in the US. U-Space has also opened its own production facility in Toulouse. The manufacturing problem is gradually moving from “can we build this satellite?” toward “how efficiently can we build the next 20?”

• The boundary between a satellite manufacturer and a space infrastructure provider is becoming less clear. Open Cosmos now combines spacecraft delivery with its OpenConstellation network. Loft Orbital lets customers run missions on shared infrastructure and is adding onboard compute. EnduroSat packages its buses with mission operations through SpaceOps. The spacecraft is increasingly becoming the hardware layer underneath a broader service.

• Commercial proof is also moving from individual demonstration missions toward fleet orders. ReOrbit signed a €150 million contract for two GEO satellites. EnduroSat has the 40-satellite TrustPoint order and was selected for the first phase of Vantor's planned 24-satellite fleet. SWISSto12 reported more than $500 million in contracted orders after generating roughly $140 million of revenue in 2025. The strongest companies are therefore starting to show industrial backlog rather than only technical validation.

What types of customers are using these products?

• Space agencies and governments are important direct customers because they increasingly want missions without developing every spacecraft internally. CNES recently ordered two more NESS satellites from U-Space. JAXA selected an Aerospacelab platform for the SAMRAI mission through Mitsui Bussan Aerospace. European sovereign programs are also creating work for companies such as EnduroSat and Aerospacelab.

• Constellation operators are another increasingly important customer group because they need the same spacecraft produced repeatedly. TrustPoint selected EnduroSat for 40 satellites. Xona has placed repeat orders with Aerospacelab for its navigation constellation. In GEO, Inmarsat ordered three HummingSat spacecraft from SWISSto12 after Intelsat became the platform's first commercial customer. For these buyers, production capacity becomes almost as important as the underlying satellite design.

• The third customer type is a company whose real product is the payload or the data, not the spacecraft. LiveEO selected Reflex to build the platforms for its Twinspector constellation. AIRMO is using EnduroSat to put its methane monitoring capability into orbit. EarthDaily works with Loft Orbital for its observation constellation. These companies want to own the differentiated application while outsourcing much of the space infrastructure underneath it.

What are the major trends shaping the industry?

• European demand is becoming much more connected to sovereignty and defence. ESA estimates that the global upstream space market reached €75 billion in 2025 and says institutional demand is now dominated by defence. European public space budgets grew 12% to €13.5 billion during the year. This is feeding directly into satellite procurement: IRIS² has now moved into implementation with a planned 348-satellite main constellation designed around secure European connectivity.

• Satellites are becoming computing platforms rather than machines that simply collect data and send it back to Earth. Processing information onboard can reduce the amount of raw data that needs to be transmitted and let a spacecraft react faster. NASA demonstrated a geospatial foundation model in orbit this year, while ESA is working on satellite edge computing for similar reasons. This broader trend is already visible inside the landscape through EnduroSat's NVIDIA integration and Loft Orbital's investment in onboard AI infrastructure.

• The sheer number of satellites entering orbit is making lifecycle management part of the platform design problem. More than 4,000 payloads were launched in 2025, and ESA says commercial constellations continue to increase in scale. The resulting congestion is pushing operators toward shorter disposal timelines and stronger end-of-life requirements. Satellite manufacturers increasingly need to think about what happens to the spacecraft after the mission, not only whether it works when launched.

How does the funding environment look?

• The largest rounds are now financing manufacturing scale rather than basic spacecraft development. Open Cosmos raised €300 million recently. EnduroSat raised $205 million after already raising significant capital in 2025, with the latest money explicitly aimed at expanding serial production. Loft Orbital raised $170 million in 2025, while Aerospacelab added €94 million to its Series B. The capital requirements are becoming industrial because the leading companies are preparing to build fleets rather than prototypes.

• There is also a healthy layer of companies raising substantial rounds before reaching that scale. Reflex raised €50 million after flying its first satellite. ReOrbit raised €45 million as it moved toward larger sovereign satellite contracts. U-Space raised €24 million after establishing flight heritage, while NewOrbit raised $18.5 million to continue developing its VLEO platform. Funding therefore exists across the maturity curve, but investors increasingly have tangible mission evidence to evaluate.

Components & Propulsion

What is this category about?

• Most companies in this category build the systems that allow satellites and other spacecraft to move once they are in space. A spacecraft needs propulsion to reach its final orbit after launch, maintain that orbit and eventually move out of it. Instead of developing this technology themselves, satellite manufacturers can buy propulsion systems from specialized suppliers.

• The main challenge is giving a spacecraft enough mobility without adding too much weight or complexity. Satellite operators want to use as little propellant as possible while still being able to control the spacecraft throughout its life. Different missions need different types of propulsion, which is why several distinct technologies coexist in the category.

• There are also companies supplying hardware around the propulsion system itself. Fuel still needs to be stored and moved safely inside the spacecraft, creating a market for components such as valves and pressure regulators. Deep Space Energy sits slightly outside the propulsion market because it is developing a power source for missions where solar panels are not sufficient.

What do products in this category do?

• Electric propulsion is mainly used when a satellite needs efficient movement over long periods. The thruster produces relatively little force, but it can keep operating while using very little propellant. This makes it well suited to satellite station keeping and gradual changes in orbit. ENPULSION is the most mature company in this group and already supplies propulsion systems commercially. ION-X is developing ionic liquid propulsion and has now demonstrated its technology in orbit.

• Chemical propulsion provides much more thrust when a spacecraft needs to move faster. Arkadia Space develops chemical thrusters using less hazardous propellants and is now supplying systems to customers such as MaiaSpace and Dassault Aviation. Lift Me Off also develops chemical propulsion systems for satellites. Stellar Alpina is at a much earlier stage and is developing rotating detonation engines aimed at higher performance in-space transportation.

• Fluid control components sit inside the propulsion system rather than producing thrust themselves. deltaVision makes valves and other hardware that control how propellant moves through a spacecraft. These components can be sold across many different propulsion systems, which makes the company less dependent on any single propulsion technology. Its hardware business already serves more than 60 customers.

• Deep Space Energy is developing a different type of spacecraft component: a source of electricity that does not depend on sunlight. Its radioisotope system converts heat from radioactive material into electrical power. The technology is aimed at missions such as lunar exploration or deep-space science, where solar energy can become unreliable or unavailable.

What types of customers are using these products?

• Satellite manufacturers are the most obvious customers. They need propulsion but often have little reason to develop it internally. ENPULSION recently delivered 20 systems to a satellite manufacturer and mission provider. Univity selected ION-X for its uniShape satellite, while Open Cosmos has worked with Lift Me Off on propulsion for its spacecraft.

• Space agencies are particularly important for younger companies because they help new technologies reach flight readiness. CNES contracted ION-X to develop its propulsion system. ESA has worked with Lift Me Off through LUMIO and is supporting deltaVision's orbital refuelling work with Sener. These programs can provide the technical proof that later makes commercial customers more comfortable adopting the product.

What are the major trends shaping the industry?

• The growth of satellite constellations is turning propulsion into a manufacturing problem rather than only an engineering problem. ESA's M-IND initiative is specifically trying to prepare European suppliers for higher volume satellite production. Electric propulsion has been identified as a priority, with ESA pushing toward more common interfaces so the same components can be used across different satellite platforms.

• Satellites increasingly need to manoeuvre throughout their entire life. More than 4,000 payloads were put into orbit in 2025, while crowded orbital regions continue to become harder to operate in. ESA is also pushing satellites toward faster disposal at the end of their missions. Propulsion is therefore becoming important not only for reaching the right orbit but also for collision avoidance and deorbiting.

• Orbital refuelling could eventually change how propulsion systems are designed. Today a satellite normally launches with all the propellant it will ever have. ESA is now working with industry on common refuelling interfaces and the technologies required to refill spacecraft in orbit. If that becomes standard, companies supplying valves and propulsion hardware could become part of a much larger servicing ecosystem.

• Europe is also trying to build its own source of nuclear power for missions far from reliable sunlight. An ESA-backed study concluded in 2026 that a European supply chain for plutonium-238 is technically feasible and laid out a roadmap toward production. This is still a much earlier market than satellite propulsion, but it could create a European supply chain for deep-space power systems over time.

How does the funding environment look?

• The category can produce commercial companies without requiring the enormous funding rounds seen in launch or satellite manufacturing. ENPULSION raised €22.5 million this year while already selling propulsion systems. deltaVision raised €10.2 million after building a customer base of more than 60 companies and reaching profitability. A component supplier can start generating meaningful revenue long before it has hundreds of millions of euros in capital.

• Funding tends to increase once a technology has moved beyond laboratory validation. ION-X raised €13 million as it moved toward industrial production. Arkadia secured €14.5 million after beginning orbital validation and winning commercial contracts. Investors are therefore financing the move from a working propulsion technology to a product that can be manufactured repeatedly.

• I would classify Components & Propulsion as VC compatible and currently trending, but not a hype category. The individual markets are smaller than launch or complete satellites, but the capital requirements are also much lower. The interesting companies are those that can turn highly specialized space hardware into a standard product sold across many spacecraft programs.