Serbia is expanding its international space cooperation through parallel relationships with Russia’s Roscosmos and the U.S.-led Artemis Accords, while satellite technology and Earth observation emerge as potential areas of industrial development. The Russian government has authorised Roscosmos and the Foreign Ministry to negotiate a 10-year cooperation agreement with Serbia covering remote Earth sensing, satellite systems, space meteorology and medicine, launch activities, spacecraft operations and joint scientific projects. The proposed framework would also provide for exchanges of technology, expertise and equipment, with separate commercial agreements potentially covering individual projects. No agreement with Serbia has yet been signed.
- Parallel cooperation with Russia and the United States
- Earth observation offers industrial applications
- Satellite data could support energy and agriculture
- Focus shifts toward domestic technology capabilities
- CubeSats and engineering skills
- Regulatory and human-capital requirements
- Commercialisation remains the key measure
Parallel cooperation with Russia and the United States
Russia has approved its draft framework and authorised negotiations, meaning the initiative remains an institutional arrangement rather than a committed investment programme. Serbia also became the 69th country to sign the NASA-led Artemis Accords, establishing a formal relationship with the U.S.-led framework for peaceful civil-space cooperation. NASA has identified potential areas including scientific research, payload development and CubeSat technology. The two cooperation tracks place Serbia in a position of maintaining relationships with competing international space-technology ecosystems. The immediate economic value of the Roscosmos framework remains limited because no satellite, launch programme, ground station, investment value or Serbian industrial participant has been identified.
Earth observation offers industrial applications
The strongest commercial applications could come from Earth observation, with satellite data potentially supporting agriculture, flood and drought monitoring, forest-fire detection, mining, infrastructure, urban development and environmental management. Serbia has activities and investment across these areas, including agriculture, mining and major road, railway and energy projects requiring monitoring over large territories.
Satellite-based observation could therefore support industrial and infrastructure operations rather than being limited to scientific programmes. For mining, remote sensing can contribute to geological mapping, exploration targeting, environmental monitoring and surveillance of tailings facilities and land disturbance. Serbia has expanded its mining activity through copper and gold production and a wider exploration pipeline. Combining satellite imagery with geological information and artificial intelligence could support exploration and environmental monitoring.
Satellite data could support energy and agriculture
Energy infrastructure represents another potential application. Transmission lines, pipelines, hydropower reservoirs, wind farms and solar facilities can be monitored remotely. Satellite information can be used to identify vegetation risks around power grids, assess reservoir levels, monitor construction progress and track changes around critical infrastructure.
Agriculture offers a broader potential user base. Earth-observation systems can provide information on crop conditions, soil moisture, drought stress and irrigation requirements. Such information can support decisions by farmers, insurers and banks, while government agencies can use satellite data for drought management and crop forecasting.
Focus shifts toward domestic technology capabilities
The industrial-policy opportunity is centred less on developing an independent launch capability and more on building domestic expertise in satellites, sensors, geospatial software, data processing and specialised engineering. Small satellites and CubeSats have reduced entry barriers for countries without large national space programmes. Universities and technology companies can develop payloads and components without financing an entire independent space system. Serbia’s existing ICT, artificial intelligence, data-centre, robotics and advanced-manufacturing sectors could provide connections to space-related technologies.
The commercial value of an Earth-observation satellite depends heavily on the ability to process its data into usable information. This requires cloud infrastructure, AI, geospatial analytics and software engineering. Serbia’s state data-centre infrastructure could also support this activity. The country has invested in the Kragujevac State Data Centre and is planning another major facility in Niš. The resulting industrial chain could link satellites collecting information with Serbian computing infrastructure processing datasets and local software companies developing commercial applications.
CubeSats and engineering skills
The same model applies to CubeSats, which can give universities and engineering companies practical experience in electronics, communications, sensors and systems integration at lower costs than traditional spacecraft. Artemis participation provides one route into the international space ecosystem, while Russian cooperation could provide another.
The main challenge is interoperability. Space technologies are increasingly affected by export controls, sanctions and national-security restrictions. Western governments have tightened controls on advanced electronics, aerospace components and dual-use technologies, particularly where Russian entities are involved. Russia’s space sector is also subject to extensive Western sanctions.
These restrictions could limit Serbia’s ability to participate simultaneously in U.S.-linked and Russian technology programmes, depending on the technologies involved. A Serbian institution or company cooperating with Roscosmos could face restrictions involving certain Western components or programmes, while NASA- or European-linked projects could contain contractual limitations on technology transfer.
Regulatory and human-capital requirements
Cooperation involving scientific research, Earth observation and non-sensitive satellite applications may be easier to maintain across competing ecosystems than projects involving advanced propulsion, communications, navigation or military-adjacent technologies. Serbia therefore faces a distinction between political cooperation and commercially interoperable technology.
The same issue extends to domestic regulation. Space activities require frameworks covering frequency allocation, orbital registration, liability, export controls, data governance and intellectual-property rights. Clear coordination of national space policy is also required to prevent projects from becoming fragmented among universities, ministries and individual international partnerships. Human capital represents another requirement. Serbia has engineers and software developers, while space systems require specialised expertise in aerospace engineering, satellite communications, orbital mechanics, remote sensing and systems assurance. International cooperation could help develop these capabilities while increasing the share of engineering work carried out by Serbian institutions and companies.
Commercialisation remains the key measure
The economic benefit of space technology depends less on assembling imported systems and more on acquiring engineering capabilities that allow domestic companies to participate in higher-value parts of the supply chain. Software and data services can provide commercial opportunities without requiring Serbia to manufacture every satellite component domestically.
Companies could develop services based on agricultural imagery, mining data or infrastructure monitoring without owning spacecraft themselves. The Roscosmos initiative therefore represents an additional potential source of technical cooperation, while the Artemis relationship provides access to another international network. Maintaining both tracks could expand opportunities where technologies and regulations remain compatible, although geopolitical restrictions could make cooperation more difficult in advanced technology fields. No major investment has been committed under the Russian framework, limiting the immediate financial exposure.
The next stages include identifying concrete satellite or Earth-observation projects, establishing domestic funding, selecting industrial partners and defining how Western and Russian cooperation tracks will operate alongside each other. Those developments would determine whether Serbia’s space policy produces activity in AI, advanced manufacturing, computing infrastructure, Earth observation, satellite data, small spacecraft and geospatial software.
