Agrivoltaic systems enable agricultural production and solar energy generation on the same land. By integrating photovoltaic systems with crop cultivation, agricultural areas can remain productive while generating renewable electricity and creating additional economic value.
The system design is adapted to the agricultural use, crop requirements and site-specific conditions to balance energy generation with long-term agricultural productivity.
Agrivoltaic systems can improve growing conditions by providing partial shading and protection from extreme weather. Depending on the crop and system configuration, they can also support more efficient use of water and improve the microclimate.
Protection from rain, snow and hail, with the possibility to collect rainwater for irrigation.
Adjusted shading and module positioning can help balance sunlight exposure with the specific light requirements of different crops.
Partial shading can reduce evapotranspiration and lower irrigation requirements, particularly during hot and dry periods.
Well-designed agrivoltaic systems can help limit soil erosion through appropriate rainwater management and protection from extreme weather.
Partial shading can reduce heat stress and help retain soil moisture, supporting crop resilience.
Controlled shading and protection from extreme weather can support crop yields and potentially improve quality, depending on crop type and local conditions.
The suitability of an agrivoltaic system depends on the crop type, local climate and site-specific conditions. Key considerations include crop-specific light requirements, shading tolerance, seasonal solar exposure and water availability.
These factors help determine the appropriate PV configuration, including module positioning, spacing and shading levels, while maintaining suitable conditions for agricultural production.
Suitable applications can include fruit production, berries, leafy vegetables, herbs and vineyards.
Agrivoltaic electricity can be integrated into different energy and commercial models depending on the site, consumption profile and project requirements.
Use locally generated electricity directly and integrate battery storage where technically and economically suitable.
Connect local electricity generation and consumption through virtual self-consumption arrangements (vZEV) and local electricity communities (LEG), where applicable.
Structure long-term electricity offtake through PPAs or sell surplus generation into the electricity market.
Suitable project structures can provide agricultural landowners with additional lease income while maintaining agricultural use of the land.
As part of the OE-EN Group, Green Energy Venture and RSM Energy combine expertise in renewable energy development and agrivoltaic solutions.
Together, we provide an integrated approach covering agricultural requirements, technical feasibility, energy system design, commercial structuring and project implementation.
Assessment of agricultural use, crop requirements, shading tolerance, site conditions and energy potential.
Development of a suitable system configuration balancing agricultural production, crop protection and solar generation.
Technical and economic assessment of the project, including energy production, investment requirements and suitable utilisation and revenue models.
Coordination of the technical planning and relevant approval processes required to bring the project towards implementation.
Support in technology and partner selection, procurement and coordination of project implementation.
Integration of self-consumption, battery storage and electricity marketing models, with consideration of operational requirements and long-term system performance.
We assess agricultural, technical and commercial requirements together to identify a suitable concept for each site.
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