An annual reduction of 500 ktCO₂e in emissions and 1 TWh savings per year in final energy consumption could be achieved in Hungary if we respond to the oil price shock not merely as a crisis, but as an industrial structural turning point. According to our latest study, the bioeconomy, circularity, and green electrification are no longer just climate policy targets, but critical components of national economic self-defence.
Due to the impacts of the war in Iran, global market prices for petroleum-based fuels, raw materials, and products have risen sharply. Practical experience shows that domestic actors are not entirely insulated from these spillover effects, even though Hungary is currently supplied by Russian rather than Middle Eastern oil (while the timeline for decoupling from Russian oil is approaching). In this crisis situation, shifting toward the bioeconomy (natural, plant-based industrial products, etc.) and circularity (reuse, recycling) could offer a transformative breakthrough point for Hungarian industry, which traditionally suffers from high import dependency, thereby increasing domestic added value.
Among the numerous legislative and strategic initiatives released by the European Commission under the Clean Industrial Deal over the last two years, the measures targeting enhanced circularity and the establishment of bioeconomy supply chains represent the most significant departure from the previously projected path for domestic industrial transformation. This transition is further reinforced by EU financial support.
The international oil price shock could also further accelerate domestic industrial electrification. However, this process should be accompanied by a continued acceleration of renewable electricity generation in order to avoid a rebound in national greenhouse gas emissions through increased emissions from the power sector. In this regard, wind energy holds significant untapped potential, while grid modernization, energy storage, and demand-side response are also key factors.
According to our modeling, these changes could bring about an annual savings of approximately 500 ktCO₂e in GHG emissions and 1 TWh in final energy consumption over the 2030–2035 horizon, meaning they are significant not only for material efficiency but also from climate policy and energy efficiency perspectives. To put this into context, the estimated emissions savings are equivalent to the annual greenhouse gas emissions of a large cement plant.
The detailed study prepared by our professional climate policy think tank is available below (in Hungarian):
