Serbia has the potential to establish itself as a near-shore green manufacturing hub for European Union supply chains, contingent upon significant advancements in its energy infrastructure. The country must focus on enhancing its energy credibility, particularly in delivering reliable and scalable green electricity to energy-intensive exporters under the Carbon Border Adjustment Mechanism (CBAM). Without these improvements, Serbia risks losing its geographical advantages.
The ongoing discourse often misinterprets CBAM as merely an external tax risk. However, EU manufacturers are proactively adjusting their sourcing strategies, favoring suppliers that can exhibit consistent decarbonization efforts. The reliability of electricity is critical in this evaluation, as it directly impacts production costs and operational efficiency.
To become a viable near-shore hub by the end of the decade, Serbia must satisfy three essential criteria. First, it needs to ensure that exporters can access between 1.5 to 2.5 terawatt-hours (TWh) of dependable green electricity annually, with aspirations to increase this to 3.0 to 4.0 TWh in favorable scenarios. Second, the electricity supply must be reliable under actual grid conditions, maintaining curtailment levels below 2-3% for industrial use. Third, procurement frameworks must withstand buyer audits without frequent adjustments or exceptions.
Achieving these goals requires more than just increasing megawatt capacity; it necessitates a comprehensive system that integrates generation, grid management, aggregation, and industrial consumption. This transformation will involve uncomfortable shifts across various institutional boundaries.
The first necessary shift involves prioritizing technology. Serbia’s decarbonization strategy should be anchored in wind energy rather than solar power. Wind energy offers higher capacity factors and more consistent output compared to solar, which should complement wind generation only when conditions permit and in conjunction with storage solutions. A balanced energy mix by 2028-2030 should include approximately 400-700 megawatts (MW) of wind, 400-800 MW of solar, and between 100-200 MW or 200-400 MWh of battery storage.
The second shift pertains to measurement metrics. Success should be evaluated based on the amount of usable TWh generated during peak demand rather than solely on installed MW capacity. For instance, a portfolio that generates 1.3 TWh from an installed capacity of 1,500 MW would not meet industrial requirements, whereas a smaller installation providing 2.0 TWh would be deemed successful.
The third shift emphasizes the importance of aggregation as an infrastructure component. Without effective aggregation, renewable energy output remains inconsistent and fragmented, placing undue risk on industrial consumers. By implementing aggregation strategies that combine diverse energy sources and enhance market access, Serbia could significantly reduce costs associated with imbalance and curtailment.
This aggregation function must not be developed on a project-by-project basis; it requires a large-scale approach with robust data access and institutional authority. Models centered around Elektroprivreda Srbije or similar entities are better positioned to capture systemic value than fragmented merchant developments.
Furthermore, grid synchronization with industrial needs is crucial. Upgrades to the grid should be planned in accordance with industrial delivery timelines to prevent delays that could hinder compliance and disrupt procurement processes.
Additionally, Power Purchase Agreements (PPAs) need to evolve from being price-focused to infrastructure-oriented contracts that prioritize stability and reliability over low costs. A PPA that guarantees consistent annual volumes within defined limits is more valuable than one that offers lower prices but lacks predictability.
Buyer-centric transparency is also essential for establishing Serbia’s near-shore status under CBAM. EU buyers increasingly require verifiable evidence regarding the provenance and reliability of electricity supplies. Serbian exporters must be equipped to provide clear documentation without ambiguity.
The implications for investment are significant; Serbia’s ability to offer reliable green electricity will attract capital not only in renewable sectors but also in downstream manufacturing industries favored by EU firms seeking near-shore options devoid of carbon exposure risks.
Electricity decarbonization serves as a temporary measure that allows time for deeper changes in industries such as steel and cement while stabilizing margins and fostering buyer relationships during transition periods.
Inaction may lead to gradual displacement rather than abrupt collapse; suppliers perceived as lower risk may gain contracts at the expense of others. While Serbia remains geographically close to EU markets, failure to adapt commercially could result in lost competitiveness.
Ultimately, Serbia’s potential as a near-shore green manufacturing hub hinges on treating green electricity as essential industrial infrastructure rather than an ancillary market element. The focus must be on wind energy as a cornerstone of supply, selective solar deployment, reliable storage solutions for deliverability, institutionalized aggregation strategies, aligned grid timelines with industry needs, and shifting metrics from MW capacity to TWh deliverability.
If these conditions are fulfilled before 2030, Serbia could offer EU buyers both proximity and credibility; otherwise, it risks becoming commercially distant despite its geographical advantages.
