IN Brief:
- PÜSPÖK has secured €57m of EIB financing for hybrid renewable-energy infrastructure in Burgenland, Austria.
- The Nickelsdorf site combines wind power, photovoltaics, and battery storage through shared infrastructure.
- The project reflects Europe’s shift towards flexible renewable plants that combine generation, storage, and grid-aware operation.
PÜSPÖK has secured €57m of European Investment Bank financing to expand hybrid renewable-energy infrastructure in Burgenland, Austria.
The funding will support projects across four sites in the region, including the integrated hybrid energy site at Nickelsdorf. The development combines wind power, photovoltaics, and battery storage, using shared infrastructure to improve renewable electricity integration and support more flexible operation.
The EIB financing is being provided mainly through a direct loan to PÜSPÖK, with 10% of the facility made available to Erste Bank as national financing partner for refinancing purposes. The latest agreement brings total EIB support for the Burgenland programme to around €200m.
PÜSPÖK is one of Austria’s leading private renewable energy producers. The company operates 114 wind turbines and generates around one terawatt-hour of electricity annually, representing approximately 2% of Austria’s electricity demand. Its existing wind and agri-PV assets already supply renewable electricity equivalent to the demand of more than 300,000 Austrian households.
The Nickelsdorf development adds a stronger hybrid dimension to that portfolio. Wind, solar, and battery assets have different operating characteristics, and combining them through shared infrastructure can improve utilisation of grid connections while reducing exposure to curtailment and low-price periods. Storage also gives the operator more control over when renewable output is exported or held back.
Agri-photovoltaics are part of the project design, allowing agricultural land to host electricity generation while retaining productive use. This dual-use model is gaining traction in European markets where land availability, agricultural value, and local planning pressure are shaping renewable deployment. For large ground-mounted projects, the land strategy is now closely tied to the engineering and planning case.
Hybrid renewable projects are growing across Europe as grid constraints become a larger factor in project design. European renewable and battery pipelines are accelerating together, with developers adding storage to manage curtailment, negative pricing, and limited connection capacity. Nickelsdorf follows that direction, but with a broader combination of wind, solar, storage, and agri-PV.
Shared infrastructure can improve project economics, yet it also increases operational complexity. Metering, controls, market participation, battery dispatch, protection systems, grid-code compliance, and forecasting all have to work across multiple technologies. The plant must be able to manage changing output from wind and solar while using storage in a way that supports both commercial and grid requirements.
Battery storage at a hybrid site can provide energy shifting, balancing services, and better use of connection capacity. Its effectiveness depends on battery duration, degradation management, inverter configuration, control software, and the commercial rules under which the plant operates. Poorly integrated storage can become a separate asset bolted onto a renewable project; properly integrated storage changes how the whole site behaves.
Financing is also becoming more sophisticated as hybrid projects scale. Capital requirements extend beyond turbines, modules, and batteries into grid interface equipment, civil works, control platforms, land agreements, and long-term optimisation systems. EIB support through the EU’s REPowerEU framework reflects the level of infrastructure investment now required to turn renewable capacity into dispatchable, grid-compatible output.
Burgenland’s renewable build-out provides a clear example of that transition. The next phase of European clean-power deployment will rely less on single-technology generation projects and more on integrated sites that can combine output, storage, and grid services within constrained networks.


