$20.8 billion — that was the record amount invested in space technology in the third quarter of 2026. These figures were released by the British company Seraphim, one of the largest specialized investors in space technology, which has tracked private investment in the industry since 2017. This figure is more than 2.5 times higher than the previous quarterly high for the same year, which stood at $8 billion. For context, Latvia’s annual budget for 2026 totals 17.9 billion euros, roughly equivalent to the investments made by the space technology sector in a single quarter.
Photo: NASA / Joel Kowsky
What are the implications of this surge in investment, and why is it significant?
The space industry is experiencing one of the most significant periods of transformation in its history. Private companies are attracting record levels of investment, the United States and China are expanding their technological capabilities, Europe is developing its own space infrastructure, and access to orbit is becoming an increasingly valuable resource. This rapid growth in investment demonstrates that space is emerging as a fully established economic sector, in which simply building a rocket or launching a satellite is no longer sufficient. The focus has shifted to developing the comprehensive infrastructure needed to support life and business beyond Earth.
At first glance, this suggests that investors have an exceptional level of interest in space technology. However, one important detail warrants attention: a single company, Blue Origin, raised $10 billion of that amount. This marks its first external funding round and the largest private capital raise in the sector’s history.
Even if this deal is excluded, total investment would still amount to $10.8 billion, exceeding any previous quarterly figure. Accordingly, this growth cannot be attributed solely to a single substantial funding round. At the same time, the composition of this growth indicates that the space technology investment market is becoming increasingly selective.
Blue Origin will allocate the funds raised primarily to the New Glenn heavy-lift rocket, the Blue Moon lunar lander, and the TeraWave satellite network. The company suspended New Shepard suborbital flights in January 2026 for at least two years to focus on its lunar program. New Glenn has also faced a challenging year: in April, its third flight ended with the loss of a satellite, and in late May, the rocket exploded during a fire test. The company expects to return the rocket to flight by the end of 2026.
$20.8 billion is insufficient to meet everyone’s needs
In the third quarter of 2026, the sector recorded 216 investment deals, compared with 140 in the second quarter. Both the total funding amount and the number of deals increased.
However, the most notable trend is the return of investors to large funding rounds for companies that have progressed beyond the early stages of development. Deals at the Series A stage and beyond—particularly large Series D and later-stage rounds—have become one of the primary drivers of growth.
Among the quarter’s largest funding rounds:
- Blue Origin — $10 billion. The company develops launch vehicles, engines, and infrastructure for spaceflight.
- Hadrian — $1.37 billion. The company is developing automated manufacturing processes for components used in the aerospace and defense industries.
- Stoke Space — $1 billion. The company develops reusable launch vehicles.
- Yuanxin Satellite — $1 billion. A Chinese company that develops satellite systems.
- Chang Guang Satellite Technology — $737 million. A Chinese company specializing in the development of satellite technology.
- K2 Space — $500 million. The company is developing large satellite platforms.
All ten of the quarter’s largest deals involved companies that Seraphim classifies within the “Space Access” and “Space Segment” categories. In other words, the greatest share of funding is directed to companies building the physical infrastructure of the space economy, including rockets, satellites, components, manufacturing systems, and technologies for in-orbit operations.
This is a significant signal for startups. Investors are backing not only promising ideas about the future of space, but also companies capable of developing tangible products, scaling production, and becoming integral to critical infrastructure.
Why do large companies generate higher revenues?
To understand the direction of capital flows, it is useful to examine the three major segments of the space industry.
Space Access encompasses all the elements required to build a spacecraft and launch it into orbit, including launch vehicles and orbital tugs; satellite manufacturing and subsystems; component and technology suppliers; and ground infrastructure and in-orbit satellite control. In the third quarter, the segment attracted $16.4 billion across 120 deals. A significant portion of this amount came from funding for Blue Origin. However, even excluding that funding, investments totaled $6.4 billion, a record for the category.
Space Segment. This segment comprises constellations operating in orbit that provide services such as Earth observation, communications, and navigation, as well as activities within the so-called space economy, including orbital stations, cargo return, in-orbit satellite servicing, space energy, and computing. In the third quarter, companies in this segment raised $4 billion across 56 deals.
Downstream refers to ground-based products and services enabled by space infrastructure, including satellite imagery analytics and geospatial platforms, as well as satellite communication subscriber terminals, navigation receivers, and satellite-connected devices. Clients in this segment include companies in agriculture, logistics, energy, insurance, and other industries. Investments in the segment declined from $1.1 billion in the second quarter to $400 million in the third quarter.
This breakdown indicates the areas in which investor interest is currently concentrated. The greatest levels of funding are directed toward companies building the infrastructure of the space economy. By contrast, businesses developing applied services based on space data attract substantially less investment.
This does not indicate that ground-based services have lost their potential. However, at this stage, investors appear willing to pay a premium for control over the underlying infrastructure, without which other market participants cannot operate.
Another factor contributing to the concentration of capital is the cost of developing space technology. The construction of a satellite, engine, or rocket entails substantial expenditures on engineering, testing, equipment, manufacturing, and certification. A company may spend years developing a product before it begins to generate a reliable stream of revenue.
This is why substantial funding rounds are often awarded to organizations that have already demonstrated their ability to navigate the most challenging stages of technological development. For investors, this approach helps mitigate risk: rather than funding a concept, they invest in a company with an established team, a prototype, test results, or contracts.
The average investment amount is increasing; however, the typical funding round is not
One of the most interesting metrics in the Seraphim report is the difference between the average and median deal size. In the third quarter, the average deal size for transactions with disclosed amounts was $137 million. In the second quarter, it was $72.6 million. This is a significant increase, which, at first glance, might give the impression that it has become easier for companies to raise large sums.
However, the median deal size presents a different perspective. In the third quarter, it was $9.8 million, down from $14.9 million in the previous quarter. The median is the middle value in an ordered list of deals. Unlike the average, it is less affected by exceptionally large funding rounds. When a few companies raise hundreds of millions or billions of dollars, the average can rise sharply, while the median may remain low or even decline.
That is precisely what occurred in the third quarter. Several substantial investments increased the average deal size, while the typical deal became smaller. A further indicator of concentration is that the ten largest deals accounted for 78% of the total capital raised during the quarter, compared with 57% in the second quarter.
Record-breaking investment levels do not necessarily mean that every startup has a greater chance of securing funding. On the contrary, the majority of these funds have been concentrated among a small number of companies.
The United States and China account for the largest share of the market
The geographic distribution of investment also indicates a concentration of capital. North America accounted for 70% of global SpaceTech funding during the first three quarters of 2026, compared with approximately 40% in 2024.
In the third quarter, U.S. companies raised $5.6 billion, excluding Blue Origin, while Chinese companies raised $3.3 billion. This figure is more than three times China’s previous quarterly record.
China is experiencing growth not only in investment volume but also in the number of deals. There were 49 deals in the third quarter, surpassing the previous high of 35. Notably, Chinese private companies are gradually expanding beyond traditional areas such as low Earth orbit satellite constellations and launch vehicles. They are developing space surveillance systems, orbital logistics, cargo return capabilities, and in-space computing.
For startups, this means that competition for investment is increasingly shaped by nations’ technological and geopolitical strategies. Space companies are becoming integral to the infrastructure supporting security, communications, navigation, and surveillance. This development creates opportunities to access government programs and secure large contracts, while also raising standards for technology, reliability, and component provenance.
The situation in Europe is more complex. Over the past two years, annual investment in European SpaceTech companies has more than tripled, rising from $1.5 billion in the 12 months through the third quarter of 2024 to $5.3 billion in the 12 months through the third quarter of 2026. However, the number of deals over the same period declined from 169 to 133 per year. Europe has become the only major region in which this figure has fallen for two consecutive years, with nearly all of the decline occurring at the seed stage: the number of seed-stage deals decreased from 115 to 70.
In other words, although more capital is available in Europe, fewer companies are receiving funding. Furthermore, the ten largest European companies’ share of total investment has increased from 47% to 72% in the past year alone.
Notable companies in the sector include ICEYE, Isar Aerospace, The Exploration Company, and Open Cosmos. Their activities span satellite observation, launch services, space logistics, and satellite communications.
This suggests the emergence of a group of European companies that are already capable of attracting substantial investment and competing for large-scale contracts. However, the European market remains challenging for early-stage startups, as funding is increasingly concentrated in more mature companies.
Is funding still available for early-stage startups?
Seraphim’s report does not suggest that early-stage funding has disappeared entirely. On the contrary, the number of seed-round deals worldwide has remained virtually unchanged over the past two years. Accordingly, Seraphim concludes that the early-stage pipeline remains intact. The changes have occurred at the upper end of the market: during the first three quarters of 2026, there were 43 Series D and later-stage funding rounds, more than twice the 20 recorded during the same period in the previous year. In the third quarter, 216 deals were completed, including investments in companies at various stages of development. However, the overall market structure indicates that the most significant growth in capital came from large investments in mature companies.
For an early-stage startup, this presents a more challenging situation. At this stage, a company typically has a concept, a team, research findings, or an initial prototype. However, investors increasingly expect to see not only the technology’s potential but also evidence that the product can be manufactured, sold, and integrated into existing infrastructure.
This is particularly true for hardware startups. For these companies, the path from concept to commercial product can be lengthy and costly. Developing a satellite component alone is insufficient; its reliability must be demonstrated, it must pass testing, a manufacturing partner must be secured, and prospective customers must be assured that the technology meets their requirements.
In such circumstances, venture capital is not the only important source of support. Startups may also benefit from government programs, research grants, accelerator programs, corporate partnerships, contracts with major manufacturers, and participation in international space initiatives.
For a small company, securing a contract with a major industry player can sometimes be more valuable than obtaining another round of investment. Such a contract provides an opportunity to test the technology under real-world conditions, generate initial revenue, and establish a foundation for future investment.
At the same time, the concentration of capital does not necessarily imply that small companies have no place in the market. On the contrary, the expansion of large-scale space programs creates demand for highly specialized technologies and suppliers.
For example, the European IRIS² program — the European Union’s planned secure satellite communications system — calls for 330 satellites in low Earth orbit and an additional 18 in medium Earth orbit. The Belgian company Aerospacelab has been awarded a €2.4 billion contract to manufacture 264 satellite platforms for the low-Earth orbit segment. Airbus will build at least 66 additional satellites, while Thales Alenia Space will supply its communications equipment.
This is not solely a significant undertaking for a single manufacturer. A project of this scope requires components, electronics, software, testing systems, ground infrastructure, and engineering services. Smaller companies can undertake some of these tasks.
A similar dynamic is evident in the development of satellite communications. Open Cosmos is developing the Connected Cosmos network, while ICEYE and Nokia have announced plans to establish separate satellite communications systems. These initiatives are driving demand not only for satellites but also for equipment, software solutions, cybersecurity, systems integration, and data processing.
For a small startup, the opportunity may not necessarily lie in developing its own rocket or a fully integrated satellite constellation. A more viable strategy is to develop technology that addresses a specific need for a major client or serves as an essential component of that client’s product.
The space industry is becoming increasingly commercialized, reshaping the established rules of the game
Another trend emphasized in the report is the gradual convergence of the space industry with the defense sector, the manufacturing industry, and government infrastructure programs.
This is evident in investments, contracts, and the nature of the technologies under development. Satellite surveillance, secure communications, navigation, orbital logistics, and space surveillance are of strategic as well as commercial importance.
At the same time, new methods of raising capital are emerging in the market. In the third quarter, four SPAC transactions involving space companies were announced. This mechanism enables private companies to go public by merging with a special-purpose acquisition company. However, the announcement of these transactions alone does not mean that they have been completed or that investors are already prepared to invest heavily in space companies through public markets.
Moreover, the share prices of several prominent space technology companies — Planet Labs, AST SpaceMobile, and Rocket Lab — declined by more than 30% in the third quarter. This demonstrates that interest in the space industry does not eliminate market risks. Although investors may support the sector as a whole, they may simultaneously take a highly critical view of individual companies.
The record-breaking $20.8 billion is therefore less a standalone achievement than an indication that the space market is entering a new phase: shifting from funding promising ideas to scaling technologies poised to become part of global infrastructure.
For large companies, this is an opportune time to raise capital for production, expand capacity, and fulfill large-scale contracts. For small startups, it is an opportunity to identify a specific niche, demonstrate technological capabilities, and establish partnerships with organizations that have already secured substantial funding.
The central question for the next phase of the space economy is not merely how much capital investors are willing to commit, but whether that capital can foster a new market for thousands of small technology companies, rather than simply reinforcing the dominance of a few major players.
