A 365 Metre Wind Turbine Rises on Former Mining Land in Germany

Near Schipkau in Brandenburg, a wind turbine now rises 365 metres into the sky. The structure stands on land in Germany’s Lusatia region, an area whose landscape has been shaped by more than a century of open-cast lignite mining. According to Good Green News, engineering firm GICON completed the project, and it is reported to be the tallest onshore wind turbine built so far. At nearly the height of Berlin’s television tower, it offers a striking example of how energy infrastructure can take a very different form on land associated with coal.

The project’s significance is not simply its height. The tower has been designed to reach winds that are stronger and more consistent than those closer to the ground. That approach could be particularly relevant for inland places where wind conditions at conventional turbine heights may be less reliable. Still, the Schipkau installation is a single project, and its long-term performance will matter more than its record-setting dimensions.

Built to reach higher winds

Wind speed often changes with altitude. Near the ground, trees, buildings, terrain, and other features can slow or disrupt the air moving across a site. Higher up, wind may be steadier, which can help a turbine generate electricity more consistently. GICON’s design seeks to take advantage of those conditions without relying on an unusually large rotor.

The turbine’s rotor measures 126 metres across. Its tower uses a telescopic steel lattice structure, which means parts of the tower can be raised through its central section during construction. Rather than using a single solid tower, as many people associate with wind turbines, the project relies on an open steel framework designed to support the machinery at an exceptional height.

That distinction matters because wind energy depends on more than blade size. A rotor captures energy from moving air, but electricity output also depends on how often suitable winds are available. By lifting the turbine higher, the project aims to make better use of the wind resource at its location. The reported design is intended to produce more electricity than a conventional turbine with a similar rotor, although regular operation has yet to test that expectation.

The developer projects that the turbine could generate enough electricity for around 7,500 households. Household comparisons can help readers picture the project’s scale, but they are estimates, not guarantees of output. Actual generation depends on wind conditions, maintenance, operating time, and how the turbine performs across seasons.

A different use for a coal-shaped landscape

Lusatia has long been associated with lignite, a form of coal mined in large open pits. Mining has affected the region’s land, economy, and communities for generations. A wind project does not erase that history or resolve every question involved in an energy transition. It does, however, show one possible direction for places where the physical and economic legacy of fossil fuel extraction remains visible.

Former mining areas can present complex choices. Land may require restoration, local workers may need access to new opportunities, and communities may have strong views about what should be built nearby. Renewable energy projects also bring practical questions about planning, grid connections, visual impact, wildlife, and public support. The Schipkau turbine should therefore be viewed as a specific engineering project, not as a simple template for every former coal region.

Its location gives the structure a particular symbolic weight. The same broad landscape that supported coal extraction now tests an approach intended to draw electricity from moving air. That change is not instant, and it is not complete. Yet it reflects the practical work of shifting an energy system, including finding suitable land, building new infrastructure, and learning what works in real operating conditions.

What the project may show over time

Record height alone is not a measure of success. The more useful question is whether the tower can deliver reliable electricity at a level that justifies the added engineering, materials, and construction effort. If it performs as projected, the design could provide useful evidence for developers considering sites with weaker winds near the ground. If results differ from expectations, the project could still offer valuable lessons about the limits and costs of building higher.

The turbine also points to a broader question about how renewable infrastructure might use land efficiently. In some settings, reaching better wind conditions at altitude could allow a site to generate more power without expanding across a larger area. Whether that makes sense will vary by place. Local wind patterns, construction requirements, economics, and community priorities will all shape the answer.

For now, the Schipkau turbine is best understood as a carefully watched experiment in scale and location. It combines an unusual tower design with a landscape already marked by energy production. The next chapter will be quieter than the construction itself: months and years of data showing how the turbine behaves when the wind rises above Brandenburg.