Key Details
The OECD’s The Space Economy at a Glance 2026 traces the sector’s growth from a specialised industry into infrastructure supporting economic activity, public services and national security.
Area | Report finding |
|---|---|
Economic scale | Global space revenues were estimated at $550–600 billion in 2025, approaching the global semiconductor industry’s scale |
Orbital expansion | Operational satellites exceeded 14,000 at end-2025 and approached 15,000 by mid-2026; announced constellations envisage more than 2 million satellites, although only a fraction may be deployed |
Commercial ownership | Private operators accounted for 88% of satellites launched in 2025, up from 23% in 2010 |
Concentrated activity | The US and China conducted 83% of launches; four providers accounted for about 82% of orbital launches; one constellation represented around 60% of active satellites |
Public and private finance | OECD civilian space budgets reached $46.4 billion in 2025, while private investment was estimated at $11–13 billion |
Research and technology | Space-related scientific output has more than doubled since 2009; leading innovation areas include AI-enabled analysis, quantum applications, debris mitigation and advanced power systems |
Systemic risks | Around 45,860 debris objects are tracked, while more than 140 million smaller fragments remain potentially damaging |
India’s position | India is one of 12 independently launch-capable countries; ISRO was among 25 active launch providers in 2025, while Indian scientific output, patenting and private launch activity are expanding |
Space Infrastructure Now Supports the Wider Economy
The global space economy generated an estimated $550–600 billion in revenue in 2025, depending on how the sector is defined. This places it close to the global semiconductor industry, valued at around $620 billion in 2024.
Its economic importance extends well beyond the companies that manufacture and launch spacecraft. Satellite systems support communications, navigation, financial transactions, weather forecasting, transport, agriculture and disaster management.
Two figures illustrate this downstream dependence:
Satellites provide more than 90% of observations incorporated into weather-forecasting systems.
Around 70% of data from active earth-observation missions is openly available for public and commercial applications.
In some economies, the activities supported by satellite services are considerably larger than the directly measured space industry. The report cites an estimate that satellite-enabled services support around 18% of UK GDP, while cautioning that countries still use different methods to measure such effects.
The Number of Satellites Is Rising Much Faster Than the Number of Providers
Operational satellites more than doubled during the early 2020s, exceeding 14,000 by end-2025 and approaching 15,000 by mid-2026. Filings and proposed constellations cover more than 2 million possible future satellites, although many are speculative and only a fraction are likely to be launched.
Access has become geographically broader. 109 countries had placed at least one satellite in orbit by end-2025, helped by CubeSats, shared launch services and commercially purchased satellite technology. Independent launch capability remains limited to 12 countries.
Evidence of wider access | Evidence of continued concentration |
|---|---|
109 countries have placed a satellite in orbit | The US and China conducted 83% of 2025 launches |
25 providers attempted an orbital launch in 2025 | Four providers conducted about 82% of launches |
More than 30 small-launcher projects have been announced | Only a limited number have entered regular commercial service |
Private operators supplied 88% of satellites launched | One constellation accounted for around 60% of active satellites |
This distinction is important: more satellite owners and proposed launchers do not necessarily mean diversified access to reliable launch capacity.
Commercial Growth Still Depends on Public Demand
Governments remain important investors, customers and regulators. OECD civilian space budgets increased by nearly 15% between 2022 and 2025, from $40.5 billion to $46.4 billion. Defence, security and infrastructure resilience are also taking a larger place in national space strategies.
Government support increasingly combines conventional R&D funding with:
Mission and service procurement that creates an early market for private firms;
Technology transfer from public agencies to industry;
Testing facilities and specialised infrastructure that individual companies may be unable to finance; and
Regulation and licensing intended to facilitate commercial entry while managing safety and environmental risks.
The OECD identified 212 space-related policy initiatives and 289 policy instruments across 45 countries, the European Union and the European Space Agency in 2026. The number of countries with space regulations increased by 50% over the preceding decade.
Private investment nevertheless plays a growing role. It reached an estimated $11–13 billion in 2025, its highest level since 2021. Commercial viability remains uneven, with some emerging manufacturers spending more than 60% of revenue on R&D and capital equipment.
Research Is Becoming More Multipolar, but Invention Remains Concentrated
Space-related scientific publications have more than doubled since 2009, while the number of countries participating in international research networks increased from 80 in 2000 to 119 in 2024. China and India contributed significantly to this geographic expansion.
Patent activity remains led by economies with mature research, defence and industrial systems. The United States accounted for 34.2% of space-related patent applications during 2020–23, followed by the European Union, Japan and China.
The technological agenda is also changing. Research and patents increasingly cover AI-enabled satellite-data processing, quantum applications, autonomous systems, debris mitigation and advanced energy sources. Spacecraft electrical power represented 46% of space-related patent applications in 2023, reflecting the importance of reliable power for larger, longer and more complex missions.
Growth Is Creating Risks on Earth and in Orbit
Nearly 15,000 operating satellites share orbit with around 45,860 tracked debris objects and more than 140 million smaller fragments. This increases collision risks and the operational burden of monitoring, manoeuvring and coordinating spacecraft.
Other vulnerabilities extend beyond the orbital environment:
Concentrated launch markets can leave countries dependent on a small number of providers.
For nearly half of 29 critical space-related inputs studied, one country (China) supplies at least two-thirds of global production.
Cyberattacks can target spacecraft, ground stations and user equipment.
Jamming and spoofing can disrupt or falsify navigation and timing signals used by transport, communications and other critical systems.
Terrestrial facilities, including ground stations and communications links, can create single points of failure.
The space economy’s expansion therefore increases both the value of satellite services and the consequences of their disruption.
India Has Established Capabilities Across Launch, Research and Exploration
India has independently placed objects in orbit since 1980, making it one of only 12 countries to have demonstrated sovereign orbital launch capability. ISRO was among the world’s 25 active launch providers in 2025.
Private launch development: Skyroot Aerospace and Agnikul Cosmos are developing dedicated small-satellite launch systems alongside ISRO’s Small Satellite Launch Vehicle. The OECD treats these companies as part of the global pipeline of emerging launch projects—not yet as high-frequency providers operating at scale.
Scientific and inventive activity: India contributed significantly to the expansion of space-related scientific publications. It was also among the economies that substantially increased their share of space-related patenting between 2010–13 and 2020–23.
Public-to-private technology transfer: India is cited among countries where technological knowledge is increasingly being transferred from public space agencies to industry, reflecting the effort to build commercial capability around an established public programme.
Lunar power technology: The report counts Chandrayaan-3 as one Indian mission using a nuclear power source because it carried americium-241 radioisotope heater units. These devices generate heat through radioactive decay; they are not nuclear reactors.
The report establishes India’s technological presence but does not provide a standalone estimate of Indian space-sector revenue, employment, private investment or downstream economic dependence. India’s capabilities are therefore more visible in the report than their full economic contribution.
OECD Calls for Governance to Catch Up with Expansion
The OECD’s recommendations shift attention from stimulating growth alone to managing the sector’s scale, concentration and strategic importance.
Improve measurement: Countries need comparable space-economy statistics covering public spending, industrial activity, employment and the downstream use of satellite services.
Preserve competition and access: Governments should monitor dependence on dominant launch and constellation providers and use procurement, interoperability and open standards where appropriate.
Manage orbital sustainability: Licensing and international coordination should strengthen collision avoidance, end-of-life disposal, spacecraft reliability, data sharing and debris mitigation.
Map critical supply chains: Policymakers need granular information on specialised components, materials and radioisotopes, alongside strategies to diversify vulnerable supplies.
Protect essential services: Cybersecurity, interference monitoring and contingency arrangements should extend to terrestrial sectors dependent on satellite communications, navigation and timing.
Deepen international coordination: Orbital congestion, radio-frequency use and debris cannot be managed solely through national regulation because the risks and operating environment are shared across borders.
What Is the Space Economy?
The space economy includes the production and launch of spacecraft, satellites and ground equipment, as well as services derived from satellite data and signals.
Its upstream segment covers activities such as launch vehicles and satellite manufacturing. The downstream segment includes communications, navigation, weather services, earth-observation applications and data analysis. Much of space’s economic value arises downstream, where satellite services become inputs into agriculture, transport, finance, telecommunications and public administration.
Policy Relevance
India has sovereign launch capacity and a growing private ecosystem. The next policy challenge is to turn these capabilities into reliable commercial activity and resilient public infrastructure.
Commercial scale: Private launchers must progress from development and demonstration to repeat missions, predictable schedules and viable demand. Government procurement and access to testing facilities can influence that transition.
Economic measurement: Dedicated statistics on space-related output, employment, investment and downstream use would help assess the returns from public funding and identify industrial gaps.
Infrastructure resilience: Sectors dependent on satellite communications, navigation, timing and earth observation need contingency arrangements for signal disruption, cyber incidents and service concentration.
Responsible expansion: Licensing and procurement can incorporate debris mitigation, end-of-life disposal, collision avoidance and data-sharing obligations as more Indian public and private systems enter orbit.
Follow the Full Report Here: The Space Economy at a Glance 2026