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Hydrogen-readiness and the role of decarbonised gases in Serbia’s future energy mix

Hydrogen has moved from a speculative technology to a central pillar of Europe’s long-term decarbonisation framework. For Serbia, the question is no longer whether hydrogen will play a role in the energy transition, but how quickly and at what scale the country can adapt its infrastructure, regulatory environment and industrial strategy to integrate decarbonised gases. Although Serbia is not yet part of the hydrogen strategies shaping Western Europe, the momentum within the EU ensures that hydrogen-ready infrastructure will become a prerequisite for future energy integration. Serbia cannot afford to lag behind.

The starting point is Serbia’s current gas architecture—pipelines, compressor stations, metering systems, storage facilities and distribution networks. Much of it was built in an era when natural gas was expected to grow indefinitely as a clean transition fuel. Today, that assumption has changed. Europe’s long-term carbon neutrality goal requires that gas infrastructure either be retired or converted to carry low-carbon molecules such as hydrogen or synthetic methane. For Serbia, whose energy system remains heavily dependent on fossil fuels, hydrogen-readiness becomes both a technical requirement and a strategic opportunity. It determines whether the investments of the 2020s remain useful in the 2040s.

The gas-to-power investments now under discussion must therefore be hydrogen-ready from the outset. Modern combined-cycle and open-cycle gas turbines are increasingly capable of operating on blends of natural gas and hydrogen, with OEMs offering turbines capable of 20–30 percent hydrogen blending initially and higher shares as technology matures. Serbia cannot afford to invest in new gas-fired capacity that becomes stranded because it cannot align with Europe’s decarbonised power system. If Serbia intends to maintain long-term electricity security while retiring coal, hydrogen-compatible turbines offer a bridge between the fossil past and the renewable future.

Hydrogen-readiness, however, extends beyond power generation. Serbia’s transmission pipelines, managed by the national operator, will eventually need to transport hydrogen blends or pure hydrogen. This requires material compatibility, pressure adjustments, integrity management and advanced monitoring systems. At present, much of Serbia’s network is technically capable of limited blending, but far from ready for high-volume hydrogen transport. European TSOs are already mapping hydrogen corridors—future pipelines that will transport green hydrogen from North Africa, Spain, Portugal and the Eastern Mediterranean into Central Europe. Serbia’s strategic dilemma is whether it integrates into these future corridors or remains at the periphery of a system oriented toward clean molecules.

One of the most overlooked elements of hydrogen strategy is storage. Serbia’s underground gas storage at Banatski Dvor, frequently referenced by Serbia-energy.eu, is a critical piece of the country’s energy security but may not be suited for future hydrogen storage without substantial upgrades. Hydrogen’s physical properties differ from methane’s; not all geological formations are compatible with pure hydrogen storage, and salt caverns—ideal for hydrogen—are not widely available in the region. Serbia must therefore explore both geological suitability and alternative storage concepts if it intends to develop hydrogen ecosystems. Without storage, Serbia cannot balance seasonal demand or build resilience.

Industrial demand is another powerful driver. Serbia’s fertilizer industry, metal sector and refinery complex all use hydrogen today—but almost exclusively in the form of grey hydrogen produced from natural gas. Transitioning these sectors to low-carbon hydrogen would dramatically reduce emissions, but such a shift requires competitive pricing. Europe’s hydrogen economy is still in its infancy, and green hydrogen remains significantly more expensive than fossil-based alternatives. Serbia will need targeted policy support, EU alignment and integration into regional hydrogen value chains to make industrial decarbonisation financially viable.

The export dimension should not be ignored. As the EU’s Carbon Border Adjustment Mechanism matures, industries in countries outside the union will face tariffs unless they reduce their carbon intensity. Serbia’s industrial competitiveness will increasingly depend on adopting decarbonised gases not only for environmental reasons but to maintain market access. Hydrogen becomes not only a technological issue but a trade policy necessity. Countries that delay hydrogen adoption may find their industries disadvantaged in European supply chains.

Hydrogen also plays a role in balancing a renewable-heavy power system. As Serbia expands solar and wind capacity, it will confront seasonal mismatches—excess electricity in spring and summer, deficits in winter. Hydrogen offers a means of converting surplus electricity into storable energy through electrolysis and reusing it when demand peaks. This summer-to-winter shift will become crucial as Serbia reduces reliance on coal and faces growing climate variability affecting hydropower. The long-term resilience of Serbia’s electricity system may depend on whether it can integrate hydrogen at scale.

Serbia’s hydrogen future ultimately hinges on governance. A national hydrogen strategy, aligned with EU frameworks, is essential. Without regulatory clarity on blending limits, grid conversion, certification of renewable hydrogen and incentives for industrial adoption, the market cannot develop. Serbia will also need to position itself within regional hydrogen alliances—initiatives linking production centres, pipelines, consumers and storage sites across Southeast Europe.

Hydrogen is not a distant aspiration. It is a structural requirement for Serbia’s long-term energy alignment with Europe. The country can either begin preparing now—ensuring infrastructure is hydrogen-ready, developing industrial demand, securing regulatory frameworks—or face a future where its energy system becomes incompatible with the rest of the continent. Hydrogen offers Serbia a path to deep decarbonisation and resilience, but only if the foundations are laid in this decade.

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