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Priscila Mc Geehan

Agrivoltaics: A Sustainable Path Forward for Ireland

In the face of climate change and a growing population, innovative solutions like agrivoltaics offer a promising way to achieve both food security and renewable energy. Agrivoltaics involves the strategic placement of solar panels above or between crops, enabling the simultaneous cultivation of food and harvesting of solar energy. This practice not only maximises land use efficiency but also enhances crop yields, conserves water, and diversifies farmers' revenue streams.

Solar farm
Photo credit: Greener Ideal - Agrivoltaics – Growing Crops & Energy on the Same Land

Agrivoltaics creates a symbiotic relationship between solar panels and agriculture. The panels provide partial shade, which helps moderate temperatures and reduce water evaporation. This shading can enhance the growth of shade-tolerant crops, such as lettuce and spinach, while also protecting them from extreme weather. The space beneath the panels can be utilised for various agricultural activities, including livestock grazing and the creation of pollinator habitats.


This approach is gaining traction as a viable solution for optimising land use and addressing the intersecting challenges of food security and climate change.


Insights from the Ember Report: Empowering Farmers in Central Europe

A recent Ember report highlights significant benefits and potential for agrivoltaics (agri-PV), particularly in Central Europe, offering valuable lessons for Ireland. According to the Ember analysis, integrating solar panels with agricultural practices in Central Europe could increase crop yields by up to 16% for certain crops. This improvement is achieved by creating a modified microclimate that enhances crop growth and shields against adverse weather conditions.


The report estimates that Central European countries, including Czechia, Hungary, Poland, and Slovakia, could deploy up to 180 GW of agri-PV capacity. This potential includes 39 GW for shade-benefitting crops like berries and an additional 141 GW from vertical solar panels placed between crops. Such a deployment could nearly triple the region’s current renewable electricity generation, increasing from 73 TWh to 191 TWh annually. Notably, just 9% of this potential would be sufficient to meet the electricity needs of the agriculture and food processing sectors.

Implications for Ireland

For Ireland, these findings underscore the considerable advantages of adopting agri-PV technologies. By integrating solar panels with agricultural activities, Ireland can enhance land use efficiency, increase agricultural productivity, and advance its renewable energy targets. The combined benefits of agri-PV could significantly contribute to Ireland’s 2030 solar capacity goals while supporting the agricultural sector.


Challenges and Recommendations

While the benefits are clear, effective implementation will require supportive legislation and strategic planning. The Ember report emphasises the need for legislative frameworks that accommodate various types of agri-PV systems and ensure continued support for farmers. For Ireland, this could involve developing policies that promote the integration of solar panels in farming operations without compromising agricultural subsidies or land use.


Benefits of Agrivoltaics

  • Optimised Land Use: By producing both food and energy on the same land, agrivoltaics addresses land scarcity issues, particularly crucial in densely populated areas.

  • Increased Crop Yields: Certain crops thrive in the partial shade provided by solar panels, potentially leading to higher yields and more efficient water use.

  • Water Conservation: The reduced evaporation under the shade of the panels translates to less water usage, mitigating drought stress and conserving this precious resource.

  • Economic Resilience: Farmers benefit from an additional income stream through solar energy production, providing financial stability against agricultural market volatility.

  • Environmental Impact: Generating clean solar energy helps reduce greenhouse gas emissions, contributing to the fight against climate change and supporting sustainable agricultural practices.

  • Biodiversity: Agrivoltaics supports biodiversity by creating habitats for pollinators and beneficial insects, promoting healthy ecosystems and natural pest control.


Overcoming Challenges

Despite its promise, agrivoltaics faces several challenges:

  • Technical Considerations: Optimising the design of agrivoltaic systems to balance energy production and crop growth is critical.

  • Regulatory Hurdles: Streamlined permitting processes and incentives are needed to support the adoption of agrivoltaic installations.

  • Crop Selection: Choosing the right crops for partial shade environments is essential for the economic viability of these systems.

  • Financial Viability: While initial costs may be high, long-term benefits such as increased productivity and diversified income can offset these expenses.


Future Outlook

Ongoing research and pilot projects are refining agrivoltaic practices and exploring optimal configurations. Technological advancements, such as smart monitoring systems, are expected to enhance the efficiency and scalability of these systems, paving the way for a sustainable future where agriculture and renewable energy harmoniously coexist.


Agrivoltaics represents a convergence of agricultural and renewable energy production that holds significant promise for a sustainable future. By maximising land use, conserving resources, and mitigating climate impacts, this innovative practice can play a pivotal role in advancing Ireland's solar energy agenda and creating a more resilient and sustainable agricultural landscape.


For further details on agrivoltaics, visit Greener Ideal.

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