Europe’s climate transition is often discussed as a technological transformation driven by renewable energy, electrification and green innovation. Yet for countries positioned at the edge of the European Union’s industrial system, the transition is equally an economic and geopolitical challenge. Serbia sits precisely at that intersection. Its manufacturing base is deeply integrated with European markets, while its domestic energy system remains heavily dependent on lignite coal. The tension between these two realities is beginning to define the country’s industrial future.
More than 65–70% of Serbia’s exports are directed toward European Union markets. Steel, metals, machinery, chemicals and automotive components produced in Serbian factories supply industrial chains stretching from Germany and Italy to Central Europe. For years this export model relied primarily on cost competitiveness and geographic proximity. European climate policy is now adding a new dimension to that equation: carbon intensity.
The introduction of the Carbon Border Adjustment Mechanism (CBAM) represents one of the most consequential regulatory shifts affecting Serbia’s industrial economy. The mechanism applies carbon pricing to imported products from sectors such as steel, aluminium, cement, fertilisers and electricity, ensuring that foreign producers face a carbon cost comparable to EU manufacturers operating under the EU Emissions Trading System (ETS).
For Serbian exporters the implications are profound. Industrial products entering EU markets will increasingly be evaluated not only by price and quality but also by the amount of carbon embedded in their production. Factories operating with carbon-intensive electricity or inefficient processes may face higher effective costs once CBAM is fully implemented.
The challenge stems partly from the structure of Serbia’s power system. Coal-fired generation remains the dominant source of electricity, with lignite plants historically providing the majority of domestic power supply. While these plants ensured energy security for decades, they also produce significant carbon emissions compared with modern renewable or gas-based generation systems.
Industrial facilities consuming electricity from such a grid inherit part of that carbon footprint through indirect emissions. Under CBAM accounting methodologies, these emissions contribute to the carbon intensity of exported products.
For sectors such as steel production in Smederevo, copper processing in Bor and fertiliser manufacturing in Prahovo, this dynamic introduces new economic calculations. Maintaining competitiveness in European markets may require significant investments in energy efficiency, cleaner technologies and renewable electricity sourcing.
Yet the carbon transition also creates opportunities.
European manufacturers are increasingly seeking suppliers capable of delivering low-carbon materials and components. Automotive companies transitioning to electric vehicles, construction firms implementing sustainable building standards and technology companies developing renewable energy infrastructure all require materials produced with lower emissions.
Serbia’s industrial base could potentially adapt to serve these markets. Modernising manufacturing facilities, expanding renewable electricity generation and integrating energy storage systems would reduce carbon intensity while strengthening long-term export competitiveness.
The energy sector therefore plays a critical role in the broader industrial transition. Expanding wind and solar generation, upgrading transmission networks and deploying battery storage systems could gradually reduce the carbon intensity of Serbia’s electricity mix. Over time such changes would lower the embedded emissions associated with industrial production.
Financing this transformation represents a major economic challenge. Analysts estimate that Serbia may require more than €30 billion in energy sector investment by 2040 to modernise generation capacity, develop renewable energy and upgrade transmission infrastructure.
International financial institutions and private investors are likely to play an important role in mobilising this capital. Infrastructure funds, energy developers and multilateral lenders increasingly view Southeast Europe as a key region for renewable energy expansion.
The outcome of this transition will influence Serbia’s position within Europe’s industrial system. Countries capable of adapting to carbon regulation while maintaining manufacturing competitiveness will retain strong access to European markets. Those that fail to modernise risk gradually losing industrial capacity as production relocates to lower-emission environments.
Serbia therefore faces a strategic choice. Treating climate policy as a regulatory burden could slow adaptation and undermine competitiveness. Viewing the transition as an opportunity for industrial modernisation could strengthen the country’s long-term economic prospects.
The coming decade will reveal which path Serbia ultimately chooses.
The new industrial geography of Europe: Why manufacturing supply chains are moving toward Southeast Europe
For decades Europe’s manufacturing geography followed a predictable pattern. High-value industrial production concentrated in Western Europe while labour-intensive activities migrated to lower-cost regions in Eastern Europe and Asia. Globalisation extended these supply chains across continents, connecting factories in Europe with suppliers thousands of kilometres away.
Recent geopolitical developments and supply chain disruptions are beginning to reshape this model. Companies are increasingly reconsidering the risks associated with long-distance manufacturing networks. Transport delays, rising shipping costs and geopolitical tensions have exposed vulnerabilities in global supply chains that once appeared efficient.
As a result, European manufacturers are exploring a strategy often described as near-shoring: relocating production closer to final markets while maintaining cost competitiveness. Southeast Europe has emerged as one of the most promising regions within this new industrial geography.
Serbia occupies a particularly strategic position within this shift. Its location between Central Europe and the Balkans allows companies to maintain close proximity to EU markets while benefiting from lower production costs. Trucks leaving industrial zones near Belgrade or Novi Sad can reach Budapest, Vienna or northern Italy within a single day.
This logistical advantage becomes especially valuable for industries relying on just-in-time manufacturing systems. Automotive production provides the clearest example. Modern vehicle assembly lines depend on a constant flow of components delivered within precise time windows. Suppliers located too far from assembly plants risk disrupting production schedules.
Manufacturing operations in Serbia can supply components to European automotive plants quickly and reliably. As a result, numerous automotive suppliers have established facilities across the country, producing wiring systems, metal structures and electronic modules integrated into vehicles assembled throughout Europe.
Electronics manufacturing and industrial equipment production are following similar patterns. Companies producing sensors, industrial automation components and precision machinery increasingly view Southeast Europe as an attractive location for supporting European industrial networks.
Labour costs remain a significant factor driving this relocation. Manufacturing wages in Serbia remain substantially lower than those in Western Europe while the workforce maintains strong technical skills. Universities and technical institutes produce engineers capable of supporting complex manufacturing processes.
Infrastructure investment further strengthens the region’s attractiveness. Modern highways and upgraded rail corridors connect Serbia with Central European logistics networks, reducing transit times and improving freight reliability.
Environmental considerations also contribute to the near-shoring trend. Shorter supply chains reduce transport emissions and allow companies to better monitor environmental standards across their production networks.
The emerging industrial geography therefore reflects a combination of economic efficiency, geopolitical stability and environmental responsibility.
Southeast Europe, once considered peripheral to European manufacturing, is gradually becoming a central component of this evolving industrial landscape.
Energy transition and industrial power demand in Serbia: The €30 billion transformation of the power system
Electricity lies at the heart of modern industrial economies. Steel mills, copper refineries, manufacturing plants and digital infrastructure all depend on reliable and affordable power supply. As Serbia’s industrial sector expands and European climate policies reshape energy markets, the country’s electricity system faces one of the most significant transformations in its history.
Historically Serbia relied heavily on lignite coal for electricity generation. Large thermal power plants located near mining basins ensured stable power supply for decades. This system supported industrial development but produced high levels of carbon emissions compared with modern energy technologies.
The energy transition now requires a gradual shift toward cleaner generation sources. Renewable energy technologies such as wind and solar power are becoming increasingly cost competitive, while European climate policy encourages countries to reduce dependence on carbon-intensive fuels.
For Serbia this transition involves both expanding renewable energy capacity and modernising existing infrastructure. Analysts estimate that achieving a modernised energy system capable of supporting industrial growth could require €30 billion or more in investment by 2040.
Wind energy represents one of the most mature renewable technologies available. Northern Serbia’s plains offer favourable wind conditions, and several large wind farms already contribute to electricity generation. Additional projects under development could significantly increase installed capacity.
Solar energy also presents considerable potential. Serbia’s climate provides substantial solar irradiation across much of the country, making photovoltaic generation increasingly attractive for both utility-scale projects and distributed generation.
Yet integrating renewable energy into the electricity system requires significant upgrades to transmission infrastructure. The grid must accommodate fluctuating generation patterns and transport electricity across greater distances as renewable plants connect in new locations.
Energy storage technologies such as battery systems and pumped-storage hydropower plants will play an important role in balancing the system. These technologies store electricity during periods of surplus generation and release it during peak demand.
The energy transition therefore represents not only an environmental objective but also a major industrial investment programme capable of reshaping Serbia’s economic landscape.
Critical minerals, energy infrastructure and industrial policy: Serbia’s strategic role in Europe’s resource security
The global shift toward renewable energy and electrified transport has triggered a new competition for industrial resources. Minerals such as lithium, copper, nickel and rare earth elements are essential components of batteries, electric motors and renewable energy technologies. Ensuring reliable access to these materials has become a strategic priority for industrialised economies.
Europe faces a particular challenge in this regard. Many critical minerals are currently sourced from distant regions, creating supply chain vulnerabilities that could affect the continent’s energy transition.
Serbia possesses several mineral resources capable of contributing to Europe’s resource security strategy. Copper production from the Bor mining complex represents one of the most important sources of this metal in Southeast Europe. Copper demand is expected to increase dramatically as electrification expands across transport and energy systems.
Lithium resources present another strategic opportunity. Lithium plays a central role in battery production for electric vehicles and energy storage systems. Developing these resources responsibly could allow Serbia to participate directly in Europe’s emerging battery supply chain.
Yet mining represents only one stage of the value chain. Processing and refining minerals into high-purity materials used by manufacturers create much of the economic value. Developing refining capacity within Serbia could therefore strengthen the country’s industrial ecosystem while supplying European industries with critical materials.
Achieving this vision requires careful industrial policy balancing resource development, environmental protection and economic diversification.
If managed effectively, Serbia’s mineral resources could play an important role in supporting Europe’s transition toward a low-carbon economy while strengthening the country’s strategic economic position within the continent’s industrial system.
