Global Policies Governing Earth Observation Applications

Key Takeaways

• National licensing regimes for commercial EO satellites diverge sharply, creating compliance complexity
• The EU’s Copernicus programme established a global benchmark for open-access satellite data policy
• Dual-use tensions between civilian science and military intelligence are reshaping EO governance

The Regulatory Foundation Built on Cold War Law

The Outer Space Treaty of 1967 set out that space belongs to no nation and that orbital activities must benefit all of humanity. Written during an era when only the United States and the Soviet Union operated satellites capable of imaging the Earth from orbit, the treaty says almost nothing specific about remote sensing, and its framers had no reason to anticipate commercial constellations selling sub-meter imagery to any paying customer on Earth. Yet it still anchors every subsequent law, licensing regime, and bilateral agreement that touches earth observation (EO) today. Its principles are invoked in policy debates ranging from military satellite use to open-data mandates, even though none of its 17 articles address the act of photographing foreign territory from space. The result is a system of governance that applies 1960s normative principles to technologies and commercial realities that would have been unrecognizable to the treaty’s drafters.

The United Nations Committee on the Peaceful Uses of Outer Space (COPUOS) took the first serious step toward a dedicated EO policy framework in 1986, when the UN General Assembly adopted Resolution 41/65, known formally as the Principles Relating to Remote Sensing of the Earth from Outer Space. The 15 principles in that resolution called on sensing states to make primary data and processed information about sensed territories available to those territories on a non-discriminatory basis at reasonable cost. The resolution was not legally binding. Its practical impact was modest in the short run. But it established the normative vocabulary that shaped how countries would later draft domestic legislation and negotiate bilateral data-sharing arrangements.

The origins of the resolution trace back to a sharp geopolitical dispute that played out through the 1970s. Countries in the Global South, lacking the technical capability to operate EO satellites, pressed for a rule they called “prior consent” — requiring sensing states to obtain permission before imaging foreign territory. The United States and Soviet Union, both deeply invested in reconnaissance satellite programs, successfully resisted that idea. The compromise embedded in Resolution 41/65 was a weak duty of consultation and data sharing rather than any veto right. That outcome established that open skies from above was the default international norm, a principle that the commercial satellite industry has never had to deviate from.

The treaty and the 1986 resolution together created a legal environment that maximized operational freedom for sensing states while offering sensed states only the promise of preferential data access. Whether that balance was equitable depended on how one weighed the public goods of open international observation — better weather forecasting, famine early warning, disaster response, environmental monitoring — against the asymmetry in whose cameras were doing the watching.

US Commercial Remote Sensing Legislation and the NOAA Licensing System

The United States codified a domestic framework for commercial EO with the Land Remote Sensing Policy Act of 1992, which authorized private companies to operate land remote sensing satellite systems subject to federal licensing. The act responded to the commercial potential of the Landsat program, which the US government had operated since 1972 and had briefly attempted to privatize through a company called EOSAT during the 1980s. That privatization experiment failed commercially, and the 1992 act brought Landsat back under government stewardship while simultaneously opening the door for competing commercial operators.

NOAA‘s Commercial Remote Sensing Regulatory Affairs office became the primary licensing authority for US commercial EO satellites. Licenses set conditions on what imagery companies could sell, to whom, and at what resolution. In the early years of commercial EO, the most contentious restriction was a condition known informally as “shutter control,” giving the US government authority to order a licensed operator to stop collecting or distributing imagery of specified areas during national security crises.

The government invoked that authority against Space Imaging — which later became part of Maxar Technologies — during Operation Enduring Freedom in Afghanistan in 2001, purchasing exclusive commercial imagery rights to prevent adversaries from monitoring US troop movements. The episode showed that commercial EO and national security were intertwined from the industry’s first commercial years. It also exposed a practical vulnerability in the shutter control model: exclusive purchase contracts are expensive, and they work only so long as a few US operators control most of the world’s commercially available high-resolution imagery. That condition was already eroding even then.

The Obama administration revised the commercial remote sensing licensing framework in 2014, permitting US companies to sell 25-centimeter-resolution imagery commercially for the first time. Maxar’s predecessor company DigitalGlobe lobbied hard for the change, arguing that foreign competitors were already selling comparable or better imagery and that the existing restriction only disadvantaged American companies without providing real security benefit. The argument about competitive disadvantage versus national security risk has recurred in every subsequent revision, with industry pushing for fewer restrictions and security agencies arguing for more caution.

The Trump administration issued a new Commercial Remote Sensing Space Policy in February 2020 that continued the deregulatory direction, emphasizing US leadership in the commercial EO market, streamlining the licensing process, and adopting a tiered licensing approach that linked regulatory stringency to the technical capabilities of foreign competition rather than applying uniform restrictions regardless of what foreign operators were selling. The policy also encouraged US government agencies to purchase commercial EO products rather than depending exclusively on classified government-owned satellites, and that procurement philosophy accelerated under subsequent administrations.

Today, the NOAA licensing system still requires US operators to obtain federal approval before launching a remote sensing satellite, with licenses covering data collection, distribution, and security provisions. But the resolution thresholds and operational restrictions that seemed protective in the 1990s look mismatched against the capabilities of the current commercial generation. Planet Labs, which operates a constellation of more than 200 satellites, provides daily global coverage at approximately three-meter resolution. Several competitors offer sub-half-meter imagery commercially, and as the OECD noted in early 2026, a 10-centimeter commercial sensor reached orbit in March 2025. The policy framework perpetually lags behind what the technology can do.

The Commerce Department has been working on updated rules under 15 CFR Part 960 since 2019 that would formalize the tiered licensing approach. As of early 2026, the comprehensive revision remained incomplete, leaving industry operating under a regulatory structure designed for a market that looked very different when the original rules were written. The US Geological Survey identified 472 EO satellites in orbit as of 2024, with 202 operated by governments and 270 by private operators — a ratio that underscores how thoroughly commercial operators have come to outnumber their government counterparts.

The EU Copernicus Programme and the Open Data Philosophy

The European Union’s Copernicus programme took a fundamentally different approach from the US commercial licensing model. Rather than regulating private operators to supply the market, the EU built and operates its own fleet of dedicated EO satellites, called the Sentinel series, and distributes the resulting data free of charge to any user anywhere in the world, subject only to registration. That free and open access policy, formalized starting with the launch of Sentinel-1 in 2014 and later embedded in law through the EU Space Programme Regulation of 2021, was a deliberate strategic choice to maximize the economic and scientific return on European public investment.

ESA operates the Sentinel satellites under a mandate from the European Commission, and the programme is co-funded by ESA and the EU. The scale of the open-data infrastructure is striking. The Copernicus Data Space Ecosystem made more than 200 petabytes of EO data available to users during 2024 alone, and by mid-2025 the platform had surpassed 400,000 registered users. More than 100 million individual Sentinel data products sit in online storage, with the catalogue receiving approximately two billion queries monthly. That data underpins thousands of commercial applications that private companies have built on top of freely available government data, from precision agriculture platforms to insurance risk models to infrastructure monitoring services.

The EU’s open-data philosophy was not universally welcomed when it was introduced. European commercial EO companies, including Airbus Defence and Space and Thales Alenia Space, worried that free government data would destroy their ability to sell commercial imagery products. The tension never fully resolved, but the commercial sector adapted by moving up the value chain, selling analytics, processed information, and specialized tasking rather than competing on raw image price. The Copernicus model ended up stimulating the downstream market rather than suppressing it, though the distribution of economic benefit between large incumbents and smaller new entrants remained uneven.

The Copernicus Land Monitoring Service and the Copernicus Atmosphere Monitoring Service represent two of the programme’s six official thematic services, alongside marine, climate change, emergency management, and security services. Each operates under the full, free, and open data access principle established by Commission Delegated Regulation (EU) No 1159/2013 of 2013, which predates the more comprehensive legislative consolidation in the 2021 Space Programme Regulation. Together, those legal instruments create a durable policy architecture for open EO data access that has influenced how national space agencies in other regions think about their own data distribution obligations.

The EU space law proposal, delayed from its original 2024 target to 2025 according to the European Commission’s published work programme, would add a regulatory layer for commercial EO operators based in EU member states or providing services in EU markets. The draft builds on the Copernicus open-data model while also establishing provisions for commercial operators, attempting to set interoperability and minimum data-sharing floors without mandating that private companies distribute their products for free.

China’s EO Governance and the Data Sovereignty Doctrine

China has built one of the most capable EO satellite fleets on Earth over the past two decades, spanning civilian, commercial, and military systems. The China National Space Administration (CNSA) oversees civilian programs, while the People’s Liberation Army Strategic Support Force controls military reconnaissance assets. The organizational distinction between the two categories is, in practice, less clear than the official structure suggests, and many nominally civilian Chinese EO satellites carry sensors with relevance to military intelligence.

China applies strict controls over how data from its satellites can be accessed, shared, or sold internationally. The Data Security Law of the People’s Republic of China, which entered into force in September 2021, classifies geospatial data about Chinese territory as sensitive information subject to export restrictions. Chinese commercial EO companies can sell imagery of non-sensitive areas to international customers, but they face legal constraints on releasing data the government considers strategically significant — a category that has never been precisely defined in legislation and that can expand or contract as official priorities shift.

Chang Guang Satellite Technology, which operates the Jilin-1 commercial imaging constellation, had reached 100 operational satellites in its constellation by 2022, making it one of the largest commercial EO operators outside the United States by satellite count. The company markets international imagery services while navigating the constraints of domestic data security law, producing a bifurcated commercial model: global sales of imagery of non-sensitive locations and domestically restricted distribution of imagery touching areas the government considers sensitive. For international customers, Jilin-1 data is available for global land areas; for Chinese customers and for domestic coverage, the regulatory constraints apply differently.

China’s broader approach treats geographic information as a strategic state asset rather than a commodity to be freely traded. That position puts Beijing at odds with US and EU open-data philosophies and has complicated bilateral negotiations over data sharing in contexts like climate monitoring and disaster response, where cross-border data access would benefit both parties. China does participate in international EO coordination bodies, including the Committee on Earth Observation Satellites (CEOS) and the Group on Earth Observations (GEO), but the data it contributes through those channels is selected carefully to avoid sharing anything deemed strategically sensitive.

At the G20 Summit in Johannesburg in November 2025, India proposed a G20 Open Satellite Data Partnership — a political commitment to make G20 satellite data accessible to developing countries for agriculture, fisheries, and disaster management. China’s response to that initiative, and its willingness to participate in any resulting data-sharing commitments, will be a meaningful test of whether the data sovereignty doctrine can accommodate even limited multilateral obligations in contexts where the humanitarian benefit is clear.

India’s Space Data Policy and the Shift Toward Private Sector Participation

India offers a contrasting trajectory to China’s, though the starting point was similarly restrictive. For decades, the Indian Space Research Organisation (ISRO) maintained tight control over all remote sensing data collected by Indian satellites, distributing it through a single government channel. The National Remote Sensing Centre (NRSC), operating under the Department of Space, acted as the sole distribution point. Sensitive high-resolution data required government approval before release even to domestic academic users, a restriction that critics argued stifled the development of a commercial downstream sector at precisely the time when India’s software and data analytics industries were growing rapidly.

India’s Remote Sensing Data Policy of 2011 eased some restrictions by setting resolution thresholds above which distribution was freely permitted. Data with ground resolution finer than 1 meter was classified as sensitive and required specific clearance — a threshold considered overly conservative by commercial operators who pointed out that foreign satellites were already routinely imaging Indian territory at sub-meter resolution without any requirement to seek Indian government approval. The gap between what the policy permitted domestically and what foreign operators could sell internationally became increasingly difficult to justify.

New Space India Limited (NSIL) was incorporated in 2019 as a government-owned commercial arm of ISRO, designed to commercialize ISRO’s technologies and satellite capacity for both domestic and international markets. The Indian National Space Promotion and Authorization Centre (IN-SPACe), established under the Department of Space in 2020, created a regulatory pathway for private Indian companies to operate space assets, including EO satellites.

India’s Space Policy 2023, released in April 2023, was the most explicit statement yet of the government’s intent to open the sector to private investment. The policy permitted private companies to build and operate end-to-end space capabilities, including EO satellite systems, and established clearer rules for data licensing, commercialization, and foreign direct investment in the space sector. The shift was driven partly by competitive pressure from foreign commercial EO providers operating in Indian markets without Indian regulatory constraints, and partly by domestic demand from agriculture, urban planning, and defense sectors that needed faster and more flexible satellite data access than the government-distribution model could provide.

The practical impact of those reforms became visible in August 2025, when IN-SPACe awarded a contract to a consortium led by Pixxel — joined by Dhruva Space, PierSight, and SatSure — to design, build, and operate India’s first indigenous commercial EO satellite constellation under a public-private partnership framework. The 12-satellite network, representing an investment of more than 1,200 crore rupees (approximately $143 million), would include panchromatic, multispectral, hyperspectral, and synthetic aperture radar (SAR) sensors. It was the clearest demonstration yet that India’s liberalized EO policy had moved from stated intent to contractual reality.

Shutter Control and the Limits of National Imagery Restrictions

No element of EO policy generates more debate among satellite operators than shutter control. The relevant US authority derives from 51 U.S.C. Section 60148, which permits the Secretary of Commerce to limit or suspend commercial remote sensing data collection or distribution when the President determines it is necessary for national security or international obligations. In practice, the US government has often preferred a softer approach: buying up commercially available imagery of sensitive areas to limit its distribution through the market rather than issuing a formal suspension order. Exclusive commercial imagery purchase contracts during Operation Enduring Freedom in 2001 cost the US government tens of millions of dollars while shielding troop movements from observation through the commercial channel.

European operators face different frameworks. France, which operates the SPOT commercial EO system through Airbus Defence and Space, has national space legislation permitting the government to restrict commercial imagery distribution in defined security circumstances. Germany’s Satellite Data Security Act (SatDSiG), enacted in 2007 and applicable specifically to very high-resolution optical and radar satellite imagery, created one of the most detailed regulatory frameworks for commercial EO in Europe. The SatDSiG establishes a multi-tiered approval process for distributing imagery of sensitive areas based on the requestor’s identity and intended use, and it has been cited by other European states developing their own commercial EO legislation. Canada’s Remote Sensing Space Systems Act similarly requires licensed operators to make raw data available to the sensed state, reflecting an approach influenced by the prior consent debate from the 1970s but adapted for a commercial context.

The fundamental problem with shutter control as a policy instrument is that it works only if a single government has authority over all operators capable of collecting imagery of a given area. That condition no longer holds. With commercial EO companies from the United States, Europe, China, India, Israel, South Korea, and other countries operating imaging satellites, no single government can prevent imagery of its territory from being collected or commercially distributed. Shutter control has become less practically relevant as a security tool even as it remains formally embedded in national laws, creating a growing distance between the letter of the law and the operational reality of the market.

The Kyl-Bingaman Amendment, a provision embedded in US foreign aid legislation that historically prohibited US companies from selling satellite imagery of Israel and surrounding territories at better resolutions than what was commercially available from other sources, illustrated the practical ceiling of imagery restriction policies. In 2020, the US National Geospatial-Intelligence Agency (NGA) formally permitted 40-centimeter-resolution commercial imagery of Israel, ending the unique protective treatment the amendment had provided. The change was a formal acknowledgment that the original restriction had become meaningless once foreign commercial operators improved their resolution capabilities independently of any US regulatory framework.

Dual-Use Tensions and the Ukraine Precedent

The war in Ukraine, which began in February 2022, placed commercial EO into an unprecedented public intelligence role. Companies including Planet Labs, Maxar Technologies, and BlackSky provided near-real-time satellite imagery that tracked Russian military movements, documented destruction of civilian infrastructure, and contradicted official narratives made by both sides. It was the first large-scale conflict in which commercially available satellite imagery played a visible and consequential public role, and it raised questions that regulators had not previously confronted at speed.

Should commercial EO companies be treated as neutral providers of geographic data, or do they bear responsibility for how their imagery is used in armed conflict? Several operators declined to provide imagery to certain customers during the conflict without making public announcements, a posture that avoided scrutiny but produced no clear accountability standard. The NGA signed substantial new contracts with commercial EO providers during and after the conflict, accelerating the integration of commercial imagery into US military and intelligence workflows. As of 2024, the NGA had a $290 million program to acquire analytics for continuous global monitoring through commercial providers, and NASA held a $476 million contract to acquire commercial satellite data.

The EU Satellite Centre (SatCen) in Torrejon, Spain, provides geospatial intelligence analysis to EU institutions and member states under a governance framework that sits apart from the open civilian Copernicus services. The two streams of EO activity within the EU — free data for civilian uses and restricted intelligence analysis for security institutions — coexist under different rules, reflecting a deliberate policy choice to keep the open-access program free from direct association with military applications. That distinction became harder to maintain in practice as Copernicus data was used visibly in public reporting on the Ukraine conflict, demonstrating that open civilian data serves strategic purposes whether or not the programme was designed with that function in mind.

The COVID-19 pandemic revealed a dual-use dimension of EO that was less obviously related to armed conflict. Satellite imagery was used to monitor economic activity, track population movement patterns, and assess the impact of lockdowns on industrial output and transportation networks. Those applications carried significant intelligence value but also raised civil liberties concerns about commercial remote sensing for population surveillance. No major democratic government moved to restrict those applications, but the episode prompted sustained academic and civil society discussion about whether EO policy needed a privacy dimension it had historically lacked entirely.

Climate Policy and the Demand for Satellite Monitoring Systems

The Paris Agreement of 2015 created an indirect but powerful driver of EO policy by committing signatories to a transparency framework designed to allow national emissions reduction commitments to be independently assessed. Satellite-based monitoring of greenhouse gas concentrations, deforestation, methane leaks, and industrial emissions became an obvious technical foundation for implementing that transparency framework, and governments began investing more deliberately in EO systems specifically designed for climate and environmental monitoring.

The Copernicus Atmosphere Monitoring Service provides daily global data on greenhouse gas concentrations, aerosols, and ozone, integrating data from multiple satellite sensors and atmospheric models. The Copernicus Land Monitoring Service generates land cover and vegetation index products used to track deforestation and land use change, both of which feed national emissions inventories and compliance assessments under the Paris Agreement. The scale and consistency of Copernicus data have made it a significant independent verification tool at UNFCCC proceedings, with parties increasingly citing satellite-derived data rather than relying solely on self-reported national inventories.

Japan’s GOSAT (Greenhouse Gases Observing Satellite), launched in January 2009, was the world’s first satellite specifically designed to measure atmospheric concentrations of carbon dioxide and methane from space. The Japan Aerospace Exploration Agency (JAXA) operated GOSAT in cooperation with Japan’s Ministry of the Environment and the National Institute for Environmental Studies. GOSAT-2, launched in October 2018, improved measurement accuracy and extended coverage. Data from both missions has been used by governments and the Intergovernmental Panel on Climate Change to cross-check national emissions reports with independently derived satellite-based estimates.

NASA’s Orbiting Carbon Observatory-2 (OCO-2), launched in July 2014 and operated by NASA’s Jet Propulsion Laboratory, delivered high-resolution measurements of atmospheric CO2 that allowed scientists to identify regional sources and sinks at scales not previously achievable from space. The data contributed to significant revisions in scientific understanding of how tropical land ecosystems and Southern Ocean waters absorb and emit carbon, demonstrating that satellite-derived data can change the scientific foundations of climate policy when it contradicts or refines what ground-based measurements alone would suggest.

The Environmental Defense Fund (EDF) launched MethaneSAT in March 2024 with a specific mandate to measure methane emissions from oil and gas operations globally and make the data publicly available. MethaneSAT occupies an unusual regulatory and institutional space: it’s a non-governmental satellite operated by a nonprofit organization, funded through philanthropic and private sources, but with an explicit public accountability purpose that mirrors what a government program would be designed to accomplish. Existing national EO frameworks don’t map onto that hybrid character cleanly. The question of what legal and regulatory obligations attach to non-governmental EO satellites operating with a public mission will need to be addressed explicitly as more philanthropic and mission-driven operators enter the field.

At COP28 in Dubai in late 2023, small island developing states and several developing country coalitions pushed for stronger language on satellite-based monitoring in the Paris Agreement’s transparency framework. Separately, satellite-derived indicators for tracking progress toward the Global Goal on Adaptation were expected to be formally adopted at COP30 in November 2025, reflecting a years-long negotiation process in which EO data has moved from a supplementary tool to a recognized measurement standard within the UNFCCC system.

International Data-Sharing Frameworks and Coordination Bodies

EO data doesn’t respect national borders, and neither do the environmental, humanitarian, and security problems it’s used to address. Several intergovernmental coordination bodies manage the resulting need for cross-border data sharing and technical standardization, though the authority of each is limited in instructive ways.

CEOS, founded in 1984, coordinates civil space agency EO programs to ensure data product compatibility and to identify coverage gaps collectively. It has more than 30 member agencies including NASA, ESA, JAXA, ISRO, CNSA, and the Canadian Space Agency (CSA). Working groups address calibration and validation, data access, disaster management, and land surface imaging. The coordination is largely technical, but the agreements CEOS produces about data formats, calibration standards, and inter-agency data exchange have significant policy implications by determining whether satellite data from different national programs can be practically combined.

The failure of Sentinel-1B on December 23, 2021, illustrated the gap between technical coordination and political commitment. The satellite, a primary source of open SAR data for disaster monitoring, ice tracking, and land observation, failed in orbit. ESA scrambled to fill coverage gaps using commercial and partner data, but some regions had reduced or no SAR coverage for extended periods until Sentinel-1C launched in late 2024 and became operational in early 2025. There was no agreed international framework for backup coverage. No mechanism triggered a coordinated response. As one policy analysis published in early 2026 put it, “There was no agreed framework for backup. No mechanism that triggered a coordinated response.” The episode exposed that CEOS and GEO, however valuable their technical work, are voluntary and non-political bodies that can’t commit governments to anything when operational continuity matters most.

GEO, established in 2005 following a Ministerial Summit on Earth Observations in Tokyo, takes a broader approach, engaging governments, intergovernmental organizations, and private sector actors in building the Global Earth Observation System of Systems (GEOSS). GEO promotes open data access through its Data Sharing Principles, which call for full and open access to EO data with minimal restrictions on use and redistribution. More than 100 governments and 100 international organizations participate in GEO. But GEO’s principles are non-binding. Countries participate voluntarily and can decline to contribute data without violating any legal obligation. The system works well among countries with strong open-data traditions — the United States, the EU, Japan, and Australia — and less reliably in engaging states that apply data sovereignty doctrines.

The World Meteorological Organization (WMO) manages a separate but overlapping data-sharing framework for meteorological and climatological satellite data. WMO Resolution 40, adopted in 1995, established principles for the free exchange of meteorological data among member states, principles progressively extended to EO products used for weather prediction and climate services. The WMO framework is more institutionalized than GEO’s voluntary arrangements and historically achieves higher rates of data exchange, partly because weather data has a universally recognized civilian character that provokes less sovereignty anxiety than high-resolution optical imagery of specific geographic areas.

The Commercial EO Market and Its Policy Influence

The commercial EO market has grown substantially, and the industry’s increasing economic weight gives it growing influence over the shape of national and international regulatory policy. Analysis from BryceTech, which publishes annual assessments of the global space economy, placed the commercial EO market at approximately $4 billion in annual revenues in its 2024 assessment, with continued growth projected as demand for satellite analytics expands across agriculture, insurance, defense, infrastructure monitoring, and climate services. About two-thirds of total EO market revenue remains government-driven, according to sector analyses, meaning that the relationship between commercial operators and government customers — not just the regulatory relationship between operators and government — defines much of the industry’s strategic environment.

The dominant commercial operators include Maxar Technologies (taken private by Advent International in January 2023 and subsequently incorporated into a broader defense and geospatial services enterprise), Planet Labs (publicly traded on the New York Stock Exchange), Satellogic (a Latin American operator that went public through a SPAC merger), ICEYE(a Finnish SAR satellite company), and Capella Space (a US-based SAR operator). Each company operates under the licensing regime of its home country while selling data globally, creating a patchwork of regulatory jurisdictions that international customers must account for.

ICEYE’s growth illustrates how SAR constellations have reshaped the commercial EO market. Unlike optical satellites, SAR satellites collect imagery through cloud cover and at night, making them particularly valuable for maritime surveillance, ice monitoring, and disaster response in regions where persistent cloud cover would otherwise limit coverage. Combined with the constellation scale that ICEYE and US SAR operators like Capella and Umbra have achieved, high-revisit SAR data is now commercially available for applications that previously required government programs to access. In 2025, Rheinmetall and ICEYE secured a 1.7 billion euro contract to provide SAR satellite capabilities for the German armed forces, a contract that underscores how commercial SAR operators have become embedded in national defense procurement. Those applications sit squarely at the intersection of commercial data services and national security, creating regulatory questions that commercial licensing frameworks weren’t designed to answer.

Industry consolidation has created policy questions about market concentration and the reliability of commercial EO infrastructure for government users. When Maxar, which held some of the highest-resolution commercial optical imaging capabilities in the world, was reorganized under private ownership, US government agencies that relied on its imagery faced questions about long-term access, pricing stability, and service continuity. The dependence of national security workflows on a small number of commercial operators creates a strategic fragility that market analysis alone doesn’t capture.

Commercial EO companies have lobbied consistently for regulatory modernization, arguing that NOAA’s licensing process is slow, that its conditions aren’t always consistent with actual security needs, and that the existence of foreign operators with fewer restrictions creates an uneven competitive environment. The 2019 Commerce Department proposed rules under 15 CFR Part 960 would establish a tiered licensing approach calibrated to the sensitivity of the imaging system rather than applying uniform restrictions across all commercial operators. Those revisions remained incomplete as of early 2026, illustrating how slowly regulatory processes respond to a market that moves much faster.

Standards, Interoperability, and the Infrastructure of Global Data Access

Making EO data useful across borders requires more than political agreements about sharing: it requires technical standards ensuring that data from different sensors and operators can be combined, compared, and analyzed together. Development of those standards is less visible than geopolitical debates about data sovereignty, but it has a large practical effect on how usable EO data is as a governance and policy tool.

The Open Geospatial Consortium (OGC) develops and maintains open standards for geospatial data and services widely used in the EO community. OGC standards such as the Web Coverage Service and the SpatioTemporal Asset Catalog(STAC) make it possible to access EO data from different providers through consistent programmatic interfaces. Those standards aren’t mandated by any government, but national space agencies and commercial operators have adopted them widely because they reduce the cost of integrating data from multiple sources. The STAC standard, in particular, has become a de facto interoperability layer for cloud-hosted EO data, with adoption by NASA, ESA, USGS, and dozens of commercial operators.

The Copernicus Data Space Ecosystem, launched by the EU in January 2023, consolidated access to all Sentinel data and several contributing mission datasets through a single cloud-based platform, replacing the previous system of distributed access points. The platform adopts STAC and OGC standards, and its architecture has influenced how other national space agencies think about data delivery. The EU’s investment in cloud-based access infrastructure reflects a recognition that making data technically accessible is as important as making it legally available — a distinction that data-sharing policies have historically underestimated.

NASA Earthdata provides access to more than 9,000 data products from NASA’s EO missions through a similarly standardized interface. NASA and ESA coordinate through CEOS and bilateral agreements to ensure that their respective data products use compatible formats, so that data from Landsat 9 and Sentinel-2 can be combined to extend temporal coverage and improve land surface monitoring. The Analysis Ready Data (ARD) initiative, developed jointly by the US Geological Survey (USGS) and ESA, produces Landsat and Sentinel-2 data in a format that removes the need for users to apply atmospheric correction and geometric calibration themselves, reducing the technical barrier for non-specialist users and allowing broader uptake in applied policy contexts.

Australia’s Digital Earth Australia programme built its continental land monitoring system on top of those standardized data products and has influenced how Canada, several African nations, and Southeast Asian countries think about building national data cube infrastructure. Digital Earth Africa, modeled on the Australian approach and funded by GEO and bilateral donors, makes analysis-ready Landsat and Sentinel-2 products accessible for 54 African countries through a cloud-based platform. It demonstrates that the open-data policy frameworks established in Washington and Brussels generate real downstream value far beyond the countries that funded the original satellites.

Persistent Monitoring and the Missing Governance Framework

One of the most consequential gaps in EO policy is the complete absence of any international or domestic legal framework specifically addressing persistent monitoring — the capability, now commercially available, to image any point on Earth multiple times per day at high resolution, constructing detailed behavioral and activity patterns from space.

A factory’s operational status, a port’s shipping patterns, a military installation’s vehicle activity, and an official’s travel schedule can all be inferred from systematic analysis of persistent satellite observation. No democratic government has proposed regulations specifically addressing this capability, and the international community has not convened any formal process to negotiate norms. The absence isn’t simply an oversight. Governments that operate reconnaissance satellites have a strong interest in preserving their own freedom to monitor from space, which makes them reluctant to establish norms that might constrain their own activities alongside those of commercial operators. Commercial operators typically argue that their data products are subject to free speech protections and that imagery of publicly observable activity isn’t subject to privacy restriction. The resulting policy stalemate appears likely to persist until a specific high-profile incident — a government using commercial EO data to identify and suppress political dissent, for example — generates enough public attention to force legislative action.

Some scholars have proposed adapting the concept of privacy by design to EO systems, building architectural constraints on how data about individuals’ locations and movements can be retained and used downstream of the original collection. Whether the EU’s General Data Protection Regulation (GDPR) already applies to EO data that can be used to infer individuals’ locations remains unresolved. No European data protection authority has issued a definitive ruling, and the legal analysis is contested. The GDPR applies to the processing of personal data about natural persons, and the question of whether EO imagery that can be used to track an individual’s movements constitutes “personal data” turns on interpretive questions that the regulation’s drafters didn’t specifically address.

The OECD’s February 2026 analysis of EO data policy identified a related concern: the integrity of satellite imagery supply chains is vulnerable to spoofing attacks. Several EO satellites essential for disaster management transmit unauthenticated or decryptable signals, making their images susceptible to manipulation for malicious misdirection. As of early 2026, only a small number of OECD countries had explicit EO data regulation in place — including Canada, France, Germany, and Japan — suggesting that most nations are governing a strategically important global infrastructure through a combination of general national security law and voluntary industry practice rather than dedicated regulatory frameworks.

Africa, Small Island States, and the Political Dimensions of Data Access

The framing of EO policy as a contest between major space powers obscures the fact that many consequential policy decisions about EO data access directly affect countries that are primarily the subjects of remote sensing rather than the operators of the sensors.

The African Union’s space policy framework, developed through its 2016 Space Policy and Strategy, expressed ambitions to develop African EO capabilities and promote African access to satellite data for development purposes. Several African states have contracted for or launched national EO satellites. Yet most African countries still depend heavily on data from US, European, and Chinese satellites for day-to-day applications in agriculture monitoring, disaster management, and urban planning. The policy aspiration of African data self-reliance remains largely aspirational for the majority of AU member states.

Digital Earth Africa, operated with backing from GEO and bilateral donors, applies the open-data infrastructure model to African EO data, making analysis-ready Landsat and Sentinel-2 products publicly accessible for 54 African countries. The programme demonstrates that the open-data policies established in Washington and Brussels generate real value for African governments, agricultural planners, and disaster management agencies, even though those governments had no direct input into the policy decisions that determined what data would be freely available. That is either a success story about the positive externalities of open-data policy, or an illustration of the continuing asymmetry between who produces the infrastructure and who benefits from it — depending on one’s perspective on technological dependency.

Small island developing states have a particularly urgent interest in EO policy related to climate monitoring, sea-level rise, and extreme weather events. Several participated in advocacy at COP28 in Dubai in 2023 for stronger inclusion of satellite-based monitoring in the climate transparency framework, and satellite-derived indicators for the Global Goal on Adaptation were expected to be formally adopted at COP30 in November 2025. Their position reflected a specific and practical policy need: without reliable satellite-derived data on sea-level change and storm intensity, small island governments can’t effectively document the climate impacts on their territories for the purposes of loss-and-damage negotiations.

The Indo-Pacific Region’s EO Policy Architecture

South Korea’s Korea Aerospace Research Institute (KARI) has operated the KOMPSAT (Korean Multi-Purpose Satellite) series since 1999, producing commercial-quality optical and SAR imagery distributed through both government and commercial channels. Korea revised its Space Development Promotion Act in 2021 to include clearer provisions for private sector participation and data licensing, stimulating growth in Korean commercial space companies. Satrec Initiative, a Korean EO company, has developed satellite systems for international customers including the United Arab Emirates and other Middle Eastern governments, demonstrating that Korean EO technology has reached export-quality maturity.

Japan’s EO policy is managed across JAXA and the Geospatial Information Authority of Japan (GSI). Japan’s Basic Plan on Space Policy, updated in 2020, emphasized integrating EO data into national resilience planning and promoted commercial utilization of government EO data. The ALOS satellite series, operated by JAXA since 2006, has produced widely used land observation and digital elevation data that has been incorporated into disaster preparedness frameworks across the Asia-Pacific region. JAXA makes most ALOS data freely available through its Earth Observation Research Center, placing Japan alongside the United States and EU in the open-access data tradition. The NISAR (NASA-ISRO Synthetic Aperture Radar) mission launched in July 2025, representing a bilateral collaboration between NASA and ISRO that provides advanced SAR capabilities for global land, ice, and ecosystem monitoring — a rare example of a joint EO mission between a major Western space agency and India.

Australia’s Geoscience Australia has exerted policy influence through its Digital Earth Australia programme and through the country’s geographic position in the Southern Hemisphere, which makes Australian ground receiving stations valuable nodes for international satellite operators. Australia’s Civil Space Strategy covering 2019 to 2028 identified EO as a priority application area and committed to developing domestic capabilities in partnership with international agencies, a posture that reflects Australia’s integration into the US-led space architecture while also building independent national capacity for applications specific to the Southern Hemisphere.

The Indo-Pacific region’s EO policy environment is shaped partly by the Artemis Accords, a US-led set of principles governing space cooperation that by the end of 2024 had been signed by dozens of countries, including all major Indo-Pacific US allies. The Accords don’t specifically address EO data sharing, but they establish a framework for space cooperation that implicitly favors the open-access data norms championed by the US and EU over the data sovereignty approaches favored by China. Countries that sign the Artemis Accords are, in effect, signaling alignment with one side of that normative divide.

Artificial Intelligence, Automated Analysis, and Unresolved Governance Questions

The application of artificial intelligence to EO data has created a new layer of policy questions that sit partially outside existing EO regulatory frameworks and partially inside AI governance frameworks that weren’t designed with satellite imagery in mind.

Companies like Orbital Insight and Descartes Labs have built businesses around applying machine learning to satellite data at scale. The inputs to those analyses — individual satellite images that may be openly available — often reveal information that the source imagery alone would not obviously disclose. Counting cars in retail parking lots generates independent retail sales estimates useful for financial trading. Measuring vegetation health produces crop yield forecasts that move commodity markets. Tracking vessel movements from SAR data supports sanctions enforcement and smuggling interdiction for both government and commercial clients. Each of those applications generates intelligence from publicly available data without triggering any specific regulatory review under existing EO licensing frameworks, because those frameworks govern the collection and distribution of imagery, not what can be inferred from it.

The EU’s Artificial Intelligence Act, which entered into force in August 2024, establishes a risk-based framework that imposes the most stringent requirements on high-risk AI applications. The Act lists remote biometric identification as a high-risk application subject to specific conformity assessment requirements, but it doesn’t specifically address the use of AI to analyze EO imagery in ways that can characterize the activity patterns of groups or communities. Whether such applications fall under the high-risk category will require guidance from the European AI Office, established in 2024 to oversee the Act’s implementation.

The United States has addressed AI governance through a series of executive orders rather than comprehensive legislation. The Biden administration’s executive order on AI, issued in October 2023, directed agencies to develop sector-specific guidance but didn’t address EO analytics. The Trump administration’s executive order of January 2025 rescinded the Biden order and deprioritized new regulatory requirements for AI, emphasizing instead the removal of barriers to AI development. Neither approach produced specific guidance on the use of AI to analyze commercial satellite data.

The question of whether automated analysis of commercially available EO data constitutes surveillance requiring legal authorization remains an open one. In the EU, the GDPR’s restrictions on automated processing of personal data might apply if EO analytics can be used to infer information about identifiable individuals, but no supervisory authority has reached a definitive conclusion. In the United States, courts have generally held that information visible from publicly accessible vantage points isn’t subject to Fourth Amendment privacy protection, a doctrine derived from aerial surveillance cases that may not translate reliably to the capabilities of persistent commercial satellite monitoring of the kind now available.

A related concern is the authenticity of satellite imagery itself. As reported by the OECD in early 2026, 2025 saw multiple examples of deepfake satellite imagery used to exaggerate the effects of military strikes in ongoing conflicts. That development introduces a disinformation dimension to EO policy that existing frameworks don’t address: the concern is no longer just who can access satellite data or what they can do with it, but whether the data they’re accessing is. Authentication standards for satellite imagery, analogous to the provenance standards being developed for other digital media, are an emerging governance need that no regulatory body has yet moved to address formally.

How Newer Spacefaring Nations Are Shaping EO Regulatory Norms

The governance of EO data is no longer a conversation among a handful of established space powers. The number of countries with national space legislation, space agencies, or domestic EO programs has expanded significantly, and many of those newer participants are making active choices about which regulatory model to follow. Those choices, multiplied across dozens of countries, will determine whether the global EO governance architecture converges toward openness or fragments into incompatible regional data regimes.

Ghana implemented a national space policy in 2024, explicitly designed to coordinate the use of space technology for economic growth and to create a regulatory framework for space activities including EO applications. Nigeria, Ethiopia, and Kenya have each invested in national EO satellite programs or data processing capabilities through partnerships with foreign satellite operators. The Egyptian Space Agency, established in 2018, operates the EgyptSat-A satellite and has been developing ground infrastructure for receiving and processing EO data from both domestic and international satellite programs. Each of those countries is making decisions about data licensing, distribution, and access that will determine whether their EO programs serve domestic users effectively or become export-oriented commercial operations aligned with one of the major data governance philosophies.

Brazil’s Instituto Nacional de Pesquisas Espaciais (INPE), the National Institute for Space Research, has operated EO satellite programs since the 1980s and maintains one of the most consequential applications of satellite EO data in the world: the monitoring of Amazon deforestation through its PRODES system. PRODES uses Landsat and China-Brazil Earth Resources Satellite (CBERS) data to produce annual deforestation estimates that serve as the authoritative basis for Brazil’s international environmental commitments. Those estimates are cited in IPCC reports, invoked in trade negotiations, and scrutinized by environmental NGOs, making INPE’s methodological choices the subject of political controversy whenever Brazilian government policy shifts toward reduced environmental enforcement. That dynamic illustrates how national EO policy, even in a middle-power context, can produce data products with global policy significance.

The CBERS programme, the China-Brazil Earth Resources Satellite collaboration established in 1988, is the longest-running South-South space cooperation program in the world. It has produced seven satellites and generated large volumes of medium-resolution EO data distributed freely across Latin America and Africa through INPE’s data distribution system. CBERS data distribution policy mirrors the open-data philosophy of Landsat and Copernicus, and the programme has helped establish a precedent that South-South space cooperation can deliver open-access data infrastructure. That precedent matters for debates about whether open-data norms can extend beyond the US-European axis that established them.

New Zealand passed its Outer Space and High Altitude Activities Act in 2017, establishing a licensing framework for space activities that became internationally significant when Rocket Lab began launching commercial EO satellites for international customers from its Mahia Peninsula launch site. New Zealand’s licensing regime requires operators to hold a New Zealand license if they launch from New Zealand, regardless of the company’s nationality, and licenses can include conditions on EO data distribution. Luxembourg’s space resources law, enacted in 2017, established a broader space activities licensing framework that has been updated to address commercial EO operators. Both countries positioned themselves as competitive licensing jurisdictions, meaning their regulatory frameworks are partly designed to attract commercial operators rather than primarily to serve national security or public-interest EO objectives.

That competitive dynamic among licensing jurisdictions creates a concern analogous to regulatory arbitrage: commercial operators may gravitate toward the jurisdiction with the fewest restrictions, placing downward pressure on regulatory standards when jurisdictions compete on the dimension of minimal oversight. The European space law under development is partly designed to prevent EU-based commercial operators from re-registering in less regulated jurisdictions while still selling services in EU markets, an approach adapted from EU financial services regulation. Whether it will prove effective depends on how extraterritorial provisions are drafted and enforced.

The Spectrum Governance Dimension of Earth Observation Policy

Earth observation satellites don’t operate in regulatory isolation from the broader communications infrastructure of space. Their operation depends on radio frequency spectrum for command, control, and data downlink, and access to spectrum is governed by the International Telecommunication Union (ITU) through national filings, coordination requirements, and the Radio Regulations.

The Radio Regulations allocate specific bands for Earth exploration-satellite service (EESS), which covers most passive EO instruments like thermal and microwave sensors, and for remote sensing systems that actively transmit signals — SAR satellites fall into this active sensor category. The rapid proliferation of commercial EO satellites has created practical spectrum congestion challenges, particularly for downlink frequencies used to transmit large volumes of imagery data from orbit to ground stations. Optical inter-satellite links and laser-based data downlink are emerging technologies that could relieve some of those constraints by transmitting data at higher rates without consuming radio frequency spectrum, but they introduce their own regulatory questions about ground station licensing and interference management.

The ITU’s World Radiocommunication Conferences (WRC), held approximately every four years, periodically revise the Radio Regulations to address new satellite technologies. WRC-23, held in late 2023 in Dubai, addressed several issues relevant to the licensing of large commercial constellations including EO systems. Countries with large commercial space industries have strong incentives to participate actively in ITU negotiations, since the spectrum allocations resulting from those negotiations directly affect what frequencies their commercial operators can use for data downlink. That makes spectrum governance an under-appreciated but important dimension of EO policy that connects national regulatory frameworks to the international telecommunications governance system.

The Financing of EO Infrastructure and Its Policy Implications

One dimension of EO policy that receives less attention than regulatory frameworks is the question of who finances the satellite infrastructure that governments and commercial operators depend on. The answer has shifted significantly over the past decade, and the shift has regulatory implications.

For most of the history of EO, governments paid for satellites through public procurement, often as part of national scientific or defense programs with long planning horizons and stable multi-year budgets. That model remains dominant: approximately two-thirds of EO market revenue remains government-driven even in 2024, with large contracts such as the NGA’s $290 million analytics program and NASA’s $476 million commercial data acquisition contract demonstrating that government procurement continues to anchor the market. But private capital has flowed into the sector at scale, and private equity and venture capital funding has financed the growth of Planet Labs, ICEYE, Capella, and numerous smaller operators.

The entry of private capital has changed the regulatory environment in two ways. First, investors expect returns on a commercial timeline, which creates pressure on commercial EO operators to generate revenue quickly and to resist regulatory requirements that increase compliance costs or limit their ability to sell data. That dynamic reinforces the industry’s advocacy for lighter regulatory frameworks and faster licensing timelines. The 2025 total investment in EO was estimated at approximately $1.7 billion, with the data and analytics segments — rather than upstream satellite manufacturing — accounting for 95 percent of that figure, according to sector analysis. That distribution suggests the market is maturing past its hardware-build phase and toward applications, which increases the economic stakes of data governance decisions.

Second, the financial structure of commercial EO operators creates vulnerabilities that purely government-funded programs don’t face. Planet Labs, which went public through a SPAC merger and trades on the New York Stock Exchange, reported persistent operating losses through 2024 as it tried to build a sustainable analytics business on top of its imaging infrastructure. Operators dependent on continued access to government contracts face different regulatory incentives than operators with diversified revenue streams.

The philanthropic financing model represented by MethaneSAT adds another dimension. When a nonprofit organization with a public mission operates a satellite, the accountability relationships look different from both government and commercial models. MethaneSAT’s data is freely available, its mission is focused on a specific public good, and its governance involves the EDF as mission owner rather than a government agency or corporate board. But it operates within the US commercial remote sensing licensing framework, which wasn’t designed with philanthropic satellite missions in mind. As more environmental and humanitarian organizations consider satellite programs, the question of how licensing and data governance rules apply to non-commercial, non-governmental satellite operators will need explicit regulatory attention that current frameworks don’t provide.

Summary

EO governance has evolved from a single foundational treaty and a handful of national programs into a fragmented, multi-layered system spanning dozens of national licensing regimes, several intergovernmental coordination bodies with limited binding authority, and a commercial sector that operates fluidly across jurisdictions. The Outer Space Treaty’sprinciple that space activities must benefit all of humanity coexists uncomfortably with commercial data markets priced out of reach for many developing countries, national security restrictions that shape what commercial operators can sell and to whom, and data sovereignty doctrines that treat geographic information as a strategic state asset to be controlled rather than shared.

The tension between the open-data philosophies of the United States and EU on one side and the data sovereignty practices of China on the other reflects deep differences in how those governments view the relationship between state power and information flow. Technical standards for interoperability and multilateral coordination bodies like CEOS and GEO do valuable work, but they can’t resolve what is, at bottom, a political disagreement about the obligations that arise when satellite imagery crosses national borders.

What has demonstrably worked, in terms of generating broad-based economic and scientific value from EO data, is the Copernicus open-data model and the long-standing US policy of distributing Landsat data freely through USGS. Both decisions generated far more downstream economic and scientific activity than their architects anticipated, built large communities of dependent users who now resist any move to restrict access, and created infrastructure and standards that other countries have modeled their own programs on. India’s trajectory since 2020 illustrates that the liberalization direction has a compelling domestic rationale, not just an external argument. The August 2025 award of India’s first commercial EO constellation contract to a private consortium represents a concrete policy outcome rather than an aspirational statement.

The governance gaps that remain are not incidental. Persistent monitoring, AI-driven EO analytics, non-governmental satellite missions with public purposes, deepfake satellite imagery, and the use of commercial data in armed conflict all represent categories of activity that existing frameworks don’t address cleanly. In each case, the absence of specific rules reflects a political or commercial interest in avoiding constraints. Whether the international community addresses those gaps proactively or waits for governance to catch up after something goes badly wrong will be the defining policy question for EO over the next decade.

Appendix: Top 10 Questions Answered in This Article

What is the legal basis for commercial satellite imaging of foreign territory without prior consent?

The Outer Space Treaty of 1967 does not prohibit remote sensing of foreign territories from space, and UN General Assembly Resolution 41/65 of 1986 reinforced that principle by establishing non-binding data-sharing obligations rather than prior consent requirements. The legal framework effectively permits any state or commercial operator to image foreign territory from orbit without needing permission from the state below. That principle has never been successfully challenged in international law, despite sustained advocacy by developing countries in the 1970s and 1980s.

How does the United States license commercial earth observation satellite operators?

The Land Remote Sensing Policy Act of 1992 authorized private commercial remote sensing satellite operations subject to licensing by NOAA’s Commercial Remote Sensing Regulatory Affairs office. Licenses set conditions on data collection capabilities, distribution restrictions, and national security provisions including shutter control authority. The framework has been progressively liberalized since 1992, with resolution restrictions relaxed in 2014 to permit commercial sale of 25-centimeter imagery, and a tiered approach introduced in the 2020 Commercial Remote Sensing Space Policy.

What is the Copernicus programme and who can access its data?

Copernicus is the European Union’s earth observation programme, operated through ESA under a European Commission mandate and governed by EU Space Programme Regulation No 2021/696. It comprises a fleet of Sentinel satellites providing data on the atmosphere, land, oceans, climate, and emergency situations. Data is available free of charge to any user globally, subject only to registration, and in 2024 more than 200 petabytes of EO data were made available through the Copernicus Data Space Ecosystem.

What is shutter control and when has it been used?

Shutter control is the legal authority that governments reserve to restrict or suspend commercial satellite imagery collection or distribution during national security emergencies. The United States exercised it during Operation Enduring Freedom in Afghanistan in 2001 by purchasing exclusive commercial imagery rights over the theater of operations to prevent adversaries from accessing satellite imagery of US troop positions. As commercial EO constellations have proliferated from multiple countries, the practical effectiveness of shutter control has declined significantly, since no single government can now control all available imagery of a given area.

How does China’s approach to earth observation data governance differ from Western nations?

China’s Data Security Law of 2021 classifies geospatial data about Chinese territory as sensitive information subject to export restrictions, treating geographic information as a strategic state asset rather than a tradeable commodity. Chinese commercial EO companies can sell imagery of non-sensitive areas internationally but face legal constraints on sharing data the government deems strategically significant. This approach contrasts sharply with the open-access data philosophies of the United States and EU, and has limited China’s participation in multilateral data-sharing arrangements despite its formal membership in CEOS and GEO.

How are earth observation satellites being used to monitor climate commitments?

Satellites monitor atmospheric greenhouse gas concentrations, track deforestation and land use change, and identify industrial methane emissions, providing independent data to cross-check countries’ self-reported emissions inventories under the Paris Agreement transparency framework. Japan’s GOSAT missions, NASA’s OCO-2 satellite, the Copernicus Atmosphere Monitoring Service, and the EDF-backed MethaneSAT mission all contribute to emissions verification. Satellite-derived indicators for tracking the Global Goal on Adaptation were expected to be formally adopted at COP30 in November 2025.

What is the Committee on Earth Observation Satellites and what does it do?

CEOS, founded in 1984, is an intergovernmental body that coordinates civil space agency EO programs to ensure data compatibility and address coverage gaps collectively. It has more than 30 member agencies including NASA, ESA, JAXA, ISRO, and CNSA. CEOS working groups develop technical standards for calibration, validation, data access, and inter-agency exchange that allow satellite data from different national programs to be used together, though the body has no binding authority over its members.

What governance gaps exist around persistent satellite monitoring from commercial constellations?

No national or international legal framework specifically addresses the commercial capability to image any point on Earth multiple times daily at high resolution, enabling the construction of detailed behavioral patterns from space. Existing frameworks govern imagery collection and distribution but not what intelligence can be derived from persistent observation. Privacy advocates, legal scholars, and some policymakers have flagged this gap, but competing interests from governments that operate their own reconnaissance satellites have prevented any formal international process to address persistent monitoring norms.

How has the Ukraine conflict influenced commercial EO policy?

The war in Ukraine, beginning in February 2022, was the first large-scale conflict in which commercial satellite imagery played a visible public intelligence role, with Planet Labs, Maxar, and BlackSky providing near-real-time imagery tracking military movements and documenting attacks. The conflict accelerated US government contracting with commercial EO providers through agencies including the NGA, and prompted policy discussions about the responsibilities of commercial operators in armed conflict, the dual-use character of civilian satellite data, and whether commercial imagery companies should establish enforceable codes of conduct for conflict zones.

How has India’s earth observation policy changed since 2020?

India established IN-SPACe in 2020 to authorize private sector space activities, ending ISRO’s effective monopoly on satellite operations. The Space Policy 2023, released in April 2023, explicitly permitted private companies to build and operate end-to-end EO satellite systems with clearer rules for data licensing and commercialization. In August 2025, IN-SPACe awarded a contract worth more than 1,200 crore rupees to a Pixxel-led consortium to build India’s first indigenous commercial EO satellite constellation of 12 satellites under a public-private partnership framework.