Wind energy is one of the key components for a climate-neutral future. Modern wind turbines harness the natural power of the wind to generate clean and renewable energy. This not only significantly contributes to the reduction of CO₂ emissions but also supports a stable and sustainable energy supply. Thus, wind power is essential for making the energy of tomorrow available today.
ContactWind turbines utilize the kinetic energy of the wind and efficiently convert it into electrical energy without emissions, at the highest level of technology. With rapid technological advancements, modern facilities achieve a new dimension in performance and land use. Every component, from the precise construction of rotor blades to intelligent grid adaptation, is designed to maximize the use of clean energy. With hub heights of up to 200 meters and powerful machines of over 7 MW, wind power sets new standards for a sustainable energy future.
With a strong pipeline of projects, we make a significant contribution to the energy transition 2.0 and drive the expansion of wind power.
Installed Capacity (On- & Offshore)
Federal Network Agency (2026). Available here
Number of wind turbines
Federal Network Agency (2026). Available here
EEF in the Market
Wind turbines deliver high energy yields while requiring little space. They enable optimal land use, creating attractive income opportunities for landowners. They can also be integrated in a way that allows agricultural use to continue – an aspect that EEF specifically considers in its planning.
Wind power is among the most cost-efficient energy sources, offering some of the lowest electricity production costs. Its high efficiency makes it an economically compelling investment with attractive profitability potential – a resilient solution for sustainable energy production in any region.
The expansion of wind power reduces dependence on energy imports and fossil fuels. Resource-poor countries benefit long-term from stable, cost-efficient electricity production. For Germany, this means significant economic benefits and increased security of supply.
The expansion of wind power creates numerous jobs along the entire value chain, from planning and construction to maintenance. As the leading sector in renewable energies, it drives employment and economic growth sustainably.
At EEF, innovation means rethinking, acting boldly, and pushing boundaries. With cutting-edge technologies, AI-based processes, and an experienced team, we shape wind power projects that are not only more efficient but also more sustainable and forward-looking.
Wind turbines deliver high energy yields while requiring little space. They enable optimal land use and create attractive income opportunities for landowners - for optimizing yields and in the proactive planning of maintenance and renewal.
EEF collaborates with partners in repowering who responsibly handle recycling and disposal. By dismantling existing facilities and constructing the latest plants, EEF not only contributes to increased efficiency but also actively promotes a sustainable circular economy.
EEF maintains close communication with manufacturers to continuously integrate the latest and most efficient technologies. We are already planning wind turbines that will lead in technology and ensure the highest efficiency even five years from now. By using cutting-edge turbines, we maximize energy yield and reduce operational costs.
The conversion of wind into energy occurs in multiple steps – a process in which every component perfectly interlocks.
1
The rotor blades of the wind turbine capture the wind's kinetic energy. Due to their aerodynamic shape, they begin to rotate even at low wind speeds.
2
The rotor blades are connected to the hub, which in turn is connected to the main shaft inside the nacelle. The shaft transfers the mechanical energy of the rotational motion.
3
A gearbox converts the rotational motion to higher speeds that drive the generator.
4
The generator converts mechanical energy into electrical energy by using rotational motion to generate electricity through electromagnetic induction.
5
Since the generator produces variable alternating current, it is first converted into direct current using a converter and then converted back into alternating current with a constant grid frequency (50 Hz).
6
The generated alternating current is stepped up to the grid voltage via transformers and fed into the public power grid. From there, it reaches households, businesses, and industry.
