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Gizem Yumru Alanat

Türkiye's Energy Strategies on the Road to Net Zero 2050

Gizem Yumru AlanatSenior Sustainability Consultant

The 2050 net zero emissions target is no longer a global commitment but a necessity for securing the continuity of ecosystems. Energy systems based on fossil fuels deepen the climate crisis while at the same time creating economic dependency and energy security risks. The energy transition is not only a matter of combating climate change; it is also a matter of economic resilience, social welfare and technological competitiveness. For Türkiye, the 2053 net zero target is both a climate imperative and a strategic opportunity. Because Türkiye is a country dependent on imported energy, a large part of its foreign trade deficit stems from energy. The energy transition should therefore be seen as an opportunity for Türkiye.

Four main focus areas stand out in energy strategies for reaching the 2050 net zero target:

  • Reducing demand through energy efficiency
  • Accelerating the energy transition through renewable energy and electrification
  • Using alternative fuels and/or applying carbon capture technologies in sectors that are hard to decarbonise
  • Neutralising unavoidable emissions through nature-based solutions and carbon offsetting mechanisms

Investments in electrification, renewable energy, nuclear technologies, green hydrogen and energy storage play a critical role in the energy transition. In industrial facilities in particular, the first action to be taken in the short term should be to increase energy efficiency. The cleanest energy is the energy that is never generated. As electrification increases, together with digitalisation and the use of efficient systems, reductions will be achieved in the energy demand of equipment. It is important to meet the electricity demand arising from electrification from renewable sources; if it is met from fossil sources, an increase in emissions is inevitable.

In 2024 total global energy demand rose by 2.2%, while electricity demand rose by 4.3%. The rise in electricity demand stemmed from the increase in electricity-intensive appliances (air conditioners and the like), electricity-intensive production, digitalisation, data centres and artificial intelligence, together with the spread of electrification. 38% of this increase in demand was met from renewable sources. China holds the largest share of the world’s installed solar power capacity at 60%, and increases its renewable energy capacity with each passing day. Thanks to technologies that have advanced particularly in recent years, the costs of PV panels have fallen considerably and have become competitive with fossil fuels. The fall in renewable energy costs as technology advances is accelerating the energy transition process.

Bar chart headed "Global growth rates, 2024", comparing three measures: total energy demand a little over 2%, GDP a little over 3%, and electricity demand a little over 4%. Electricity demand grew about twice as fast as total energy demand. The labels are in Turkish in the image.Pie chart headed "Global demand growth, 2024 — 13.9 EJ", showing which fuels met the increase: renewables 38%, natural gas 28%, coal 15%, oil 11% and nuclear 8%. Renewables and natural gas together account for about two thirds of the growth. The labels are in Turkish in the image.
Figure 1. Global energy demand growth in 2024 (Source: IEA, Global Energy Review 2025)

In Türkiye in 2024, 35.2% of our electricity generation was obtained from coal, 18.9% from natural gas, 21.5% from hydropower, 10.5% from wind, 7.5% from solar, 3.2% from geothermal energy and 3.2% from other sources (Source: T.C. Enerji Bakanlığı). Türkiye’s installed solar power capacity exceeded 19 GW as of the end of 2024. As costs fall, installed solar and wind capacity is planned to be increased to approximately four times its level in 2035, and the foreign trade deficit is expected to narrow as a result. The growth of renewable capacity in line with rising energy demand also requires investment in grid infrastructure to be increased at the same time.

A table of Türkiye's energy targets, twelve rows against four year columns — 2020, 2024 (August), 2030 and 2035. The rows are total electricity consumption, total installed electricity capacity, and installed capacity for hydro, solar, wind, geothermal and biomass, nuclear, batteries, electrolysers, demand-side participation, and finally energy intensity. The pattern across the columns is steep growth in solar and wind, roughly a doubling of total installed capacity by 2035, and nuclear, battery and electrolyser capacity appearing only from 2030. The individual values are deliberately not transcribed here: reading about forty numbers off a picture by eye is unverifiable, and the author has been asked for the table as data (decision 23). The row labels are in Turkish in the image.
Table 1. Türkiye's energy industry sector targets (Source: Republic of Türkiye Directorate of Climate Change)

The use of energy storage systems has become a necessity, particularly as a result of the increase in renewable energy generation. At the same time, the transition to electric vehicles is accelerating the spread of battery technologies. However, since the limited reserves of lithium, the element widely used in current batteries, may create supply risks in the future, the development of alternative battery technologies such as sodium-ion is becoming an integral part of long-term strategies.

Small modular reactors (SMRs), thanks to their low cost and flexible structure, will play an important long-term role particularly in securing regional energy supply. Fusion technologies, on the other hand, have the potential to revolutionise energy systems as a carbon-neutral, high-capacity energy source once they reach commercial scale. The development of these two technologies will make critical contributions to balancing the variable output of renewable sources and to guaranteeing long-term energy supply.

Hydrogen stands out as a strategic energy carrier that can be used in the long term in place of fossil fuels, particularly in industrial processes where electrification is not technically possible. Hydrogen has a low molecular weight and exhibits a high degree of diffusivity compared with natural gas. Even so, while the fact that it can be stored under suitable conditions makes hydrogen an attractive alternative, the high costs of current technologies limit its use. As electrolyser technologies develop and energy efficiency improves, green hydrogen is expected to become a more widespread energy solution in the future. Alternative technologies are also being studied, such as converting hydrogen into derivatives like ammonia in order to overcome its storage and transportability difficulties. In addition, as an alternative to electric vehicles, hydrogen internal combustion engine technologies are also being developed by overcoming hydrogen’s technical difficulties (low density, difficulty of combustion control, high temperature and the like).

Bio-based fuels such as biomass, biogas and biodiesel also play a critical role in the energy transition. Türkiye’s agricultural production capacity and waste potential provide a strategic advantage in this area. Using agricultural waste in biogas production and waste oils in biodiesel production both reduces carbon emissions and creates new sources of income for rural economies.

Stacked area chart of total energy supply from 2000 to 2050 in the IEA Net Zero Emissions scenario, measured in exajoules. The total rises from about 420 EJ in 2000 to a peak close to 600 EJ around 2020, then declines to roughly 540 EJ by 2050. Coal and oil, the two thickest bands at the start, shrink to a thin layer at the bottom by 2050, while wind, solar and other renewables expand to occupy most of the area. The thirteen series labels are in Turkish in the image.
Figure 1. Total energy supply in the Net Zero Emissions (NZE) scenario (Source: IEA, Net Zero by 2050)

Reaching the net zero target is not only a process of combating climate change; it is also a holistic process that transforms economic development models and social structures. Türkiye’s 2053 net zero vision offers a historic opportunity in terms of reducing external dependency, securing energy supply and supporting sustainable growth. Energy efficiency investments, an increase in renewable capacity, the strengthening of grid infrastructure, the transition to alternative fuels and the implementation of next-generation technologies are of critical importance in reaching this target. A successful energy transition will enable Türkiye both to protect its ecosystems and to increase its competitiveness in the global energy arena.

At Metsims, we contribute to organisations’ sustainability journeys by providing them with the support they need at every stage of this transition process.

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