Overview
| Property | Value |
|---|---|
| Country | Turkey |
| Primary Source | Wind |
| Installed Capacity (2025) | 13 GW |
| Electricity Share | 10% |
| Target Capacity (2035) | 30 GW |
| Offshore Target (2035) | 5 GW |
Wind power is a significant component of Turkey's energy infrastructure, currently generating approximately 10% of the country's total electricity output. The sector has seen substantial growth since the initial commissioning of wind facilities in 1998, establishing wind as a major renewable energy source within the national grid.
As of 2025, Turkey operates over 13 gigawatts (GW) of installed wind turbine capacity. This capacity is not evenly distributed across the country; generation is concentrated primarily in the western regions, specifically the Aegean and Marmara regions. These areas benefit from favorable wind resources that support the operational efficiency of the installed turbines.
Future Expansion Targets
The Turkish Energy Ministry has outlined an ambitious expansion plan for the wind sector, aiming to nearly double the current installed capacity within the next decade. The target is to reach almost 30 GW of total wind capacity by 2035. This expansion strategy includes a specific focus on developing offshore wind resources, with a dedicated target of 5 GW of offshore capacity included in the 2035 goal. This shift indicates a strategic diversification of wind energy sources, moving beyond the traditional onshore dominance in the Aegean and Marmara regions to exploit coastal wind potential.
The growth of wind power reflects its increasing share in the broader renewable energy mix in Turkey, contributing to the diversification of the national electricity supply. The transition from a nascent sector in the late 1990s to a multi-gigawatt industry underscores the strategic importance of wind energy in Turkey's long-term energy planning.
History of wind energy in Turkey
Turkey’s engagement with wind energy spans centuries, evolving from traditional mechanical applications to a cornerstone of the national electricity grid. Historical records indicate the presence of stone windmills in the region dating back approximately 400 years, primarily utilized for grain milling and water pumping in coastal areas. These early structures laid the cultural and infrastructural groundwork for the modern sector, although the transition to electrical generation was gradual. The contemporary era of Turkish wind power began in 1998 with the commissioning of the country’s first modern wind farm, marking the shift from experimental installations to utility-scale production (per Energy Ministry data).
Early Growth and Acceleration
The initial phase of modern wind development saw steady but modest expansion. By 2006, the total installed wind capacity in Turkey reached 19 MW. This period was characterized by pilot projects and the establishment of feed-in tariff mechanisms that attracted early investors. The growth trajectory accelerated significantly in the following years. Between 2006 and 2011, the sector experienced rapid scaling, with installed capacity increasing from 19 MW to 1600 MW. This five-year period established wind as a viable component of Turkey’s renewable energy mix, driven by favorable geographic conditions and policy incentives.
Recent Expansion and Future Targets
In recent years, wind power has become a major contributor to Turkey’s electricity generation, accounting for about 10% of the total output. The majority of these installations are concentrated in the western regions, specifically the Aegean and Marmara areas, which benefit from consistent wind speeds. As of 2025, Turkey operates over 13 GW of wind turbines, reflecting a substantial increase from earlier decades. The Energy Ministry has outlined ambitious plans to further expand this capacity, targeting almost 30 GW by 2035. This future projection includes the development of 5 GW of offshore wind capacity, signaling a strategic diversification beyond onshore sites. The sector continues to grow, gradually increasing its share of the country’s renewable energy portfolio.
What are the main wind farms in Turkey?
Turkey's wind power sector is concentrated primarily in the western regions, specifically the Aegean and Marmara areas. As of 2025, the country operates over 13 gigawatts (GW) of installed wind capacity, contributing approximately 10% of national electricity generation (Energy Ministry, 2025). The operational landscape includes significant onshore developments, with the Energy Ministry targeting nearly 30 GW of total capacity by 2035, which includes a specific allocation of 5 GW for offshore wind projects (Energy Ministry, 2025).
Notable Onshore Wind Farms
Major onshore installations are located in key wind corridors. The Soma wind farm and the Karaburun wind farm are prominent examples of existing infrastructure contributing to the national grid. These facilities operate within the broader western concentration of Turkish wind energy assets. While specific capacity factors for individual farms vary based on local meteorological conditions, the aggregate performance supports the sector's growth trajectory.
| Wind Farm | Region | Type | Key Operator/Developer |
|---|---|---|---|
| Soma | Aegean | Onshore | Borusan EnBW Enerji |
| Karaburun | Aegean | Onshore | Borusan EnBW Enerji |
Borusan EnBW Enerji is a major operator in the Turkish wind market, developing and managing significant onshore assets such as those in Soma and Karaburun. The expansion of these onshore facilities forms the backbone of the current 13 GW capacity, while future plans emphasize diversification into offshore zones to meet the 2035 targets. The operational status of these farms remains active, contributing to the gradual increase in renewable energy share within Turkey's electricity mix.
How is wind power regulated and priced in Turkey?
The regulatory framework for wind energy in Turkey is primarily structured around competitive auctions and feed-in tariffs, designed to integrate wind power into the national grid and stabilize pricing. The Energy Ministry plays a central role in planning and implementing these mechanisms, aiming to expand the installed capacity from over 13 gigawatts (GW) in 2025 to nearly 30 GW by 2035, including 5 GW of offshore wind.
Auctions and Feed-In Tariffs
Turkey utilizes a system of auctions, often referred to as YEKA (Yeni Enerji Kaynakları Alanı, or New Energy Source Area), to allocate wind farm sites to developers. These auctions determine the price at which electricity is fed into the grid, providing revenue certainty for investors. Feed-in tariffs (FITs) are used to guarantee a fixed price for wind-generated electricity over a specified period, encouraging investment in both onshore and offshore projects. The FIT mechanism helps to reduce the financial risk associated with wind power generation, making it more attractive to private sector participants.
Wholesale Price Caps and Economic Impact
Wholesale price caps are implemented to manage the variability of wind power and its impact on the electricity market. These caps help to stabilize prices and prevent extreme fluctuations, which can be particularly important given the growing share of wind power in Turkey's electricity mix. The expansion of wind power also contributes to economic savings by reducing the country's reliance on natural gas imports. As wind power generates about 10% of Turkey's electricity, mainly in the west in the Aegean and Marmara regions, it plays a significant role in diversifying the energy mix and enhancing energy security.
Future Projections and Offshore Expansion
The Energy Ministry's plan to reach almost 30 GW of wind capacity by 2035, including 5 GW offshore, reflects a strategic focus on expanding wind power to meet growing electricity demand and reduce carbon emissions. Offshore wind projects are expected to leverage Turkey's extensive coastline, particularly in the Aegean and Marmara regions, to harness stronger and more consistent wind resources. This expansion is part of a broader effort to increase the share of renewable energy in the country's total energy mix, contributing to both economic and environmental goals.
What is the potential for offshore wind in Turkey?
Turkey is actively developing its offshore wind resources to diversify its renewable energy mix and reduce reliance on imported fossil fuels. The country possesses significant untapped potential, with assessments indicating approximately 12 GW of capacity suitable for fixed-bottom turbines and an estimated 63 GW for floating wind technology. These figures represent a substantial expansion beyond the current onshore-dominated landscape, offering a pathway to reach the Energy Ministry's target of nearly 30 GW of total wind capacity by 2035, which includes a specific allocation of 5 GW for offshore installations.
Geographic Suitability: Marmara and Black Sea
The primary focus for near-term offshore development is the Marmara Sea, which offers relatively shallow waters ideal for fixed-foundation turbines. This region benefits from proximity to major load centers such as Istanbul and Ankara, reducing transmission losses and infrastructure costs. The Black Sea coast is also identified as a key area for offshore wind, characterized by consistent wind speeds and deeper waters that may necessitate a mix of fixed and floating technologies depending on the specific site bathymetry. These locations are strategically chosen to leverage existing grid infrastructure while capitalizing on favorable meteorological conditions.
Grid Code Improvements and Technical Integration
Integrating large-scale offshore wind into the national grid requires significant technical upgrades and regulatory adjustments. Turkey has been working on improving its grid codes to accommodate the variable nature of wind power, ensuring stability and frequency control. These improvements include enhanced forecasting models, advanced inverter-based resources, and dynamic line rating systems to manage the influx of power from offshore farms. The transition to a higher share of renewables, particularly wind, necessitates a more flexible and resilient grid architecture. The Energy Ministry's plans emphasize the need for synchronized development of transmission lines and offshore substations to efficiently channel power from the Marmara and Black Sea regions to the main transmission network. These technical enhancements are critical for maintaining grid reliability as the share of wind power continues to grow, supporting the country's broader energy security and decarbonization goals.
What is the environmental impact of wind farms in Turkey?
Wind energy is widely regarded as a low-carbon alternative to fossil fuels, yet its deployment in Turkey involves specific environmental trade-offs. The lifecycle greenhouse gas emissions for wind power in the country are approximately 15 g CO2eq/kWh, a figure that underscores its efficiency in mitigating climate change compared to Turkey’s historically coal-heavy grid. However, the physical presence of turbines intersects with local ecosystems, particularly along bird migration routes.
Bird Migration and Avian Collisions
Turkey’s geographic position as a bridge between Europe and Asia makes it a critical corridor for migratory birds. The concentration of wind farms in the Aegean and Marmara regions places turbines directly in the path of these avian flyways. Species such as raptors and waterfowl are particularly vulnerable to blade collisions and displacement. While the exact mortality rates vary by site, the overlap between high-wind corridors and migration paths requires careful siting to minimize ecological disruption. The expansion of capacity to nearly 30 GW by 2035, including 5 GW of offshore installations, intensifies the need for ornithological studies to balance energy output with biodiversity conservation.
Lifecycle Emissions and Carbon Footprint
The cited emission factor of 15 g CO2eq/kWh encompasses the entire lifecycle of wind energy, from manufacturing and transportation of turbine components to installation, operation, and eventual decommissioning. This low carbon intensity is a key driver for Turkey’s renewable energy strategy, aiming to reduce reliance on imported natural gas and hard coal. As the installed base exceeds 13 GW, the cumulative reduction in CO2 emissions contributes significantly to the nation’s climate targets. The efficiency of this metric depends on the capacity factor of the turbines, which is generally higher in the western coastal regions where wind resources are most consistent.
Recycling and End-of-Life Challenges
A growing environmental concern is the management of decommissioned wind turbine components. The blades, often made of composite materials like fiberglass and carbon fiber, are difficult to recycle using conventional methods. As the first generation of turbines in Turkey, many commissioned around 1998, reaches the end of its operational life, waste management strategies become critical. Current practices often involve landfilling or energy recovery through incineration, but these methods are less sustainable than material recovery. The industry is increasingly exploring chemical and mechanical recycling techniques to recover resins and fibers, reducing the long-term environmental footprint of wind power infrastructure. Addressing these recycling challenges is essential for maintaining the sustainability credentials of wind energy as Turkey scales up its renewable capacity.
Manufacturing and supply chain
The development of Turkey’s wind power sector is closely tied to the localization of its manufacturing and supply chain capabilities. As the country expands its installed capacity toward the Energy Ministry’s target of almost 30 GW by 2035, including 5 GW of offshore wind, domestic production has become a strategic priority to reduce reliance on imports and stabilize costs.
Local Manufacturing and Key Components
Turkey has established a robust ecosystem for wind turbine component manufacturing, with significant contributions from both domestic firms and international joint ventures. A notable example is the production of Siemens nacelles, which highlights the integration of global technology with local assembly lines. Siemens Gamesa has maintained a strong presence in the Turkish market, leveraging local facilities to produce critical turbine components such as nacelles, which house the generator, gearbox, and control systems. This localization effort supports the operational status of the country’s wind farms, contributing to the current capacity of over 13 GW as of 2025.
The supply chain localization strategy extends beyond single components to include towers, blades, and foundations. Domestic manufacturers have increasingly taken over the production of steel towers and concrete foundations, benefiting from Turkey’s strong metallurgical and construction industries. This vertical integration helps mitigate supply chain disruptions and reduces the levelized cost of energy (LCOE) for new projects, particularly in the Aegean and Marmara regions where wind power generates about 10% of the country’s electricity.
Green Hydrogen Potential
The expansion of wind power in Turkey is also seen as a foundational element for the country’s emerging green hydrogen sector. With plans to increase wind capacity significantly by 2035, the surplus electricity generated by wind farms, especially in high-capacity regions, can be used to power electrolyzers for hydrogen production. This synergy between wind energy and green hydrogen aims to diversify Turkey’s renewable energy mix and create new export opportunities. The Energy Ministry’s inclusion of 5 GW of offshore wind in its 2035 targets underscores the potential for large-scale, consistent power generation suitable for hydrogen production, further integrating wind power into Turkey’s broader energy infrastructure and decarbonization strategy.