The New Space Economy: How Space Is Becoming the Next Strategic Frontier

The next great economic frontier may not be on Earth. Space is increasingly becoming more crowded, more commercial, and more strategically important, as governments and companies compete to control the infrastructure that supports communications, navigation, finance, climate monitoring, defence, and the next generation of digital services. The shift is not simply about returning to the Moon or reaching Mars. It is about the gradual transformation of orbit into an extension of the global economy, with consequences for national power, technological dependence, and international governance.

The scale of this transformation is already visible. Public investment remains the foundation of the sector, while private firms increasingly provide launch services, satellite communications, Earth observation, and data analytics. At the same time, the boundary between civilian and military space activity is becoming harder to define. Satellites that support agriculture, logistics, or emergency response may also support intelligence, targeting, secure communications, or military navigation. As space infrastructure becomes essential to life on Earth, access to orbit is becoming a question of economic resilience and strategic autonomy.

For much of the twentieth century, space was associated with national prestige and competition between major powers. Today, its most consequential role is often less visible. Positioning, navigation, and timing services support transport networks, financial transactions, telecommunications, energy systems, and military operations. Earth-observation satellites monitor weather, agriculture, water stress, wildfires, and environmental change. Communications satellites connect remote communities and provide redundancy when terrestrial networks fail.

This infrastructure is expanding rapidly. The European Space Agency’s 2024 assessment recorded 259 launches, an 18% increase from the previous year, and nearly 2,900 satellites placed into orbit. The global upstream market, covering activities such as satellite manufacturing and launch, was valued at approximately €63 billion, while downstream services generated around €408 billion. These figures illustrate an important shift. Much of the economic value of space is no longer created by the launch itself, but by the information and services that satellites enable on Earth.

Investment is also becoming more security-driven. Global public space investment reached approximately €122 billion in 2024, with defence accounting for around 54%. Defence-related spending grew faster than civil investment, reflecting concerns about missile warning, secure communications, surveillance, navigation, and the vulnerability of space assets. The United States Space Development Agency offers a clear example. Its annual budget grew from less than $100 million to nearly $5 billion in five years, while contracts worth almost $11 billion supported a planned network of hundreds of satellites for missile defence, communications, and positioning services.

This expansion is producing a more congested and contested orbital environment. Anti-satellite weapons, jamming, spoofing, cyberattacks, and debris can threaten systems without requiring a conventional attack on the ground. The distinction between a commercial satellite and a strategic asset is increasingly blurred. This creates a vulnerability for states that depend on foreign operators, external launch providers, or imported satellite components.

Recent developments illustrate how this contest is moving from potential vulnerability towards openly acknowledged military capability. On 15 September 2026, the United States confirmed for the first time that it had deployed a space-based weapon, with Secretary of the Air Force Troy Meink describing the capability as necessary to protect US forces against evolving threats. US officials did not disclose the weapon’s function, while Chinese officials warned that the move could contribute to an arms race in outer space.

The episode highlights the growing ambiguity between defensive and offensive space capabilities. Potential systems range from electronic warfare and communications disruption to more physically destructive technologies, although the available information does not establish which type has been deployed. For commercial operators and states reliant on satellite infrastructure, the development reinforces the importance of resilience, redundancy, and clear rules governing military activity in orbit.

The new space economy is being shaped by the convergence of commercial launch services, military requirements, and AI-enabled data processing. Companies such as SpaceX have reduced the cost and increased the frequency of launches, making it possible to deploy large satellite constellations rather than relying on a small number of expensive spacecraft. This model improves coverage and resilience, but it also increases congestion and gives private firms a greater role in infrastructure with public and military significance.

AI adds another layer to this transformation. Satellites generate vast quantities of imagery, signals, and environmental data, much of which cannot be transmitted to Earth and processed manually at sufficient speed. AI can identify objects, detect changes, classify terrain, predict weather patterns, and support rapid decisions. Processing data closer to where it is collected can reduce transmission demands and make satellite services more responsive.

However, commercialisation does not eliminate strategic dependence. The space sector remains reliant on public procurement, state-backed research, export controls, and national security contracts. Governments may finance the technologies, while private companies operate the systems and capture much of the commercial value. This creates a policy dilemma. States want innovative private firms, but they also need to ensure continuity of service, transparency, cybersecurity, and access during crises.

The same convergence is visible in military planning. Communications constellations, remote sensing, navigation systems, and satellite-based internet can support both civilian and military users. Their dual-use nature can facilitate cooperation, but it can also complicate escalation. A satellite used for disaster response may be perceived as supporting military operations if it shares infrastructure or data with defence networks. As a result, future space competition will involve not only rockets and satellites, but also standards, software, data access, supply chains, and control over private infrastructure.

One of the most ambitious proposals emerging from this convergence is the development of orbital data centres. The concept involves placing computing infrastructure in space to process data generated by satellites, support AI workloads, or potentially provide computing services to Earth. Although orbital data centres remain an emerging and commercially unproven idea, they reflect a broader change in how space is understood. Orbit may become not only a place to collect information, but also a place to process and store it.

The attraction is clear. Space-based systems can receive near-continuous sunlight, operate close to Earth-observation sensors, and potentially reduce the need to transmit every raw data file to terrestrial facilities. In principle, this could support faster analysis of imagery, climate monitoring, scientific research, and defence applications. It could also create new markets around space-based computing, high-capacity communications, and specialised AI services.

Yet the obstacles are substantial. Data centres require power management, cooling, radiation protection, maintenance, and hardware replacement. Launching and repairing equipment remains expensive, while radiation can shorten the life of sensitive components. Orbital congestion and debris create additional risks. There are also unresolved questions about cybersecurity, spectrum allocation, data sovereignty, and who would control computing infrastructure located beyond national territory.

The most plausible near-term development is not a complete replacement of terrestrial data centres, but a hybrid architecture. Certain processing tasks may take place onboard satellites, in specialised orbital platforms, or at ground stations, while more demanding workloads remain on Earth. This gradual model is strategically important because it links space policy to the future of AI infrastructure. Countries that lack domestic access to advanced computing, launch services, or satellite data may become dependent on foreign providers across several layers of the digital economy.

The Middle East and North Africa is entering the new space economy through different national pathways rather than a single regional strategy. Government space investment in MENA reached approximately $1.91 billion in 2024, up from $1.42 billion in 2023. The largest allocations were concentrated in the UAE and Saudi Arabia, whose spending reached approximately $591 million and $450 million respectively. These figures demonstrate growing commitment, but they also reveal the uneven distribution of resources and capabilities across the region.

Three broad motivations help explain national space programmes. The first is economic diversification. For Gulf states, space can support the development of advanced manufacturing, communications, geospatial services, AI, and high-skilled employment. The second is national security, particularly through secure communications, Earth observation, navigation, and indigenous technological capacity. The third is prestige. Scientific missions and human spaceflight can project modernity, inspire domestic talent, and strengthen international status. Most regional programmes combine these motivations in different proportions.

The UAE illustrates the benefits and limits of an ambitious partnership-based approach. The Hope Probe, which entered Mars orbit in 2021, made the UAE the first Arab country and the fifth country globally to send a probe to Mars. The UAE Astronaut Programme, established in 2017, expanded the country’s human spaceflight profile, while the Mohammed bin Rashid Space Centre and the UAE Space Agency provide institutional foundations. In 2024, NASA awarded the UAE a contract to develop the airlock module for the Lunar Gateway in partnership with Thales Alenia Space.

These achievements reflect the value of combining national investment with international expertise and multinational partnerships. The UAE’s approach brings together diplomatic reach, project management, satellite services, and targeted localisation, while allowing cooperation with a range of international space actors. This gives the country strategic flexibility as it develops domestic capabilities, expands commercial opportunities, and navigates the technology and export-control environment.

Saudi Arabia is pursuing a different but complementary trajectory. Its space ambitions are closely connected to Vision 2030, industrial diversification, and human capital development. The Saudi Space Commission was established in 2018, followed by the Saudi Space Agency in 2023. Human spaceflight, satellite services, and investment in the national space industry are intended to build domestic capabilities and position the country within a wider commercial ecosystem. Oman, meanwhile, has explored the development of the Etlaq spaceport, potentially giving it a role in launch services because of its geography and access to different orbital inclinations.

Egypt occupies a distinct position. Its space activities combine national development, scientific capacity, African cooperation, and partnerships with China. The country’s participation in the International Lunar Research Station reflects this orientation, while the establishment of the African Space Agency headquarters in Cairo strengthens its institutional role. Egypt’s SPNEX nanosatellite, developed by Egyptian institutions and launched in 2025, illustrates how space programmes can support research on ionospheric conditions, solar storms, space weather, and climate-related questions.

Other regional programmes reflect different combinations of security, communications, scientific, and technological goals. Iran has developed indigenous launch vehicles and satellite capabilities while continuing to rely on external partners for parts of its space ecosystem. Qatar’s space infrastructure has developed through communications satellites and cooperation with the United States. These trajectories should not be treated as interchangeable, nor should dual-use capabilities automatically be interpreted as offensive. Their significance depends on institutional purpose, operational use, and wider strategic context.

The new space economy is also emerging as an instrument of diplomacy. China’s expanding engagement in MENA demonstrates how satellite manufacturing, launch assistance, ground infrastructure, navigation systems, training, and scientific cooperation can create long-term relationships. Research on Chinese space diplomacy from 2010 to 2025 identifies more than fifty documented cooperation episodes across the region, with navigation and satellite-related projects forming the largest share.

China’s approach is differentiated rather than uniform. It tends to pursue deeper cooperation with influential states that possess stronger institutions, financial resources, or regional reach, while offering more limited services to countries with fewer capabilities. This creates a tiered model of engagement. Satellite systems, launch services, ground stations, and BeiDou integration can generate practical benefits, but they may also embed Chinese standards, software, maintenance requirements, and operating protocols into national systems.

MENA states are not passive recipients of this competition. They seek to use partnerships with China, the United States, Europe, Russia, India, and others to advance domestic priorities while avoiding excessive dependence on any single actor. Space is particularly useful for this balancing strategy because cooperation can be framed around civilian research, communications, navigation, or development even when the underlying technologies have security applications. The central question is not which bloc the region will join, but how successfully its states can preserve room for manoeuvre while building durable capabilities.

This dynamic is especially relevant for the Gulf. Regional governments should not be presented as a unified bloc, nor should their partnerships be reduced to a binary choice between Washington and Beijing. Their policies reflect different combinations of security relationships, investment needs, industrial ambitions, and diplomatic calculations. For the UAE, the challenge is to retain the benefits of diversified cooperation while protecting access to sensitive technologies and sustaining confidence among key partners. For the wider region, the challenge is to convert individual national programmes into complementary capabilities rather than isolated prestige projects.

The next phase of space competition will extend beyond low Earth orbit. The Moon is becoming a platform for scientific research, communications, resource assessment, and long-term strategic presence. The US-led Artemis programme and the China-Russia-backed International Lunar Research Station represent competing frameworks for future lunar activity, although neither should be understood as a simple military alliance. Participation can provide technology access, diplomatic visibility, and opportunities for scientific cooperation, but it can also influence future standards and political alignments.

The prospect of lunar and asteroid resources adds another layer of uncertainty. Water ice, minerals, and other materials could eventually support fuel production, construction, or industrial activity. However, the commercial viability of extraction remains unproven, and legal questions concerning ownership, benefit-sharing, environmental protection, and the interpretation of existing space law remain unresolved. The most immediate strategic competition is likely to concern infrastructure, data, communications, landing sites, and standards rather than large-scale mining.

Governance has yet to keep pace with technological change. Existing international rules provide important principles for peaceful use, responsibility, and non-appropriation, but they do not fully address commercial constellations, orbital servicing, cyberattacks, space-based computing, private military support, or the environmental consequences of congestion. Without stronger norms for debris mitigation, space traffic coordination, responsible behaviour, and data security, the economic value of orbit could be undermined by the risks created by its rapid expansion.

For MENA, the most realistic opportunity is selective cooperation. Shared work on climate monitoring, disaster response, water management, satellite communications, space science, technical training, and ground infrastructure could deliver practical benefits without requiring complete political alignment. A regional space authority may remain unrealistic in the near term, but interoperable systems, joint research programmes, common standards, and coordinated procurement could help reduce duplication and widen access.

Space is no longer a distant arena separated from everyday economic and political life. It is becoming part of the infrastructure through which states communicate, monitor risks, conduct military operations, manage resources, and compete for technological influence. The emerging space economy will not be shaped only by the countries that reach the Moon first or launch the most satellites. It will also be shaped by those that control data, standards, supply chains, computing capacity, and the partnerships that make access possible.

The strategic frontier is consequently moving in two directions at once. It is moving outward, towards the Moon and potentially beyond, and inward, into the digital and economic systems that increasingly depend on orbit. For MENA states, success will depend less on symbolic participation in a global race than on building resilient capabilities, preserving strategic flexibility, and finding areas where cooperation can produce collective value without erasing national differences.

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