Agrivoltaics Goes Mainstream: Solar & Farming

By Daniel IliyaguevJune 27, 20264 min readIn category: Technology
Sheep grazing under solar panels on a farm
Source: VINCENT DELSUC / PEXELSImage for illustration only
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Agrivoltaics is now a standalone industry, not just a land‑use workaround

Agrivoltaics has shed its “plan B” label and is being built as an independent market segment with its own technical, agronomic and business models, says Jochen Hauff, senior advisor to the Global Solar Council (GSC) PV Magazine. The sector is moving from a niche fix for land‑scarcity to a structured industry that requires agronomists, new financing structures and long‑term farmer partnerships.

Global momentum shows a fast‑growing market

Industry observers note that agrivoltaics is no longer a fringe concept but a rapidly expanding segment worldwide, with increasing interest from developers, investors and policy makers.

Definitions are still fluid, so the GSC created a task force

One of the biggest barriers to scale is the lack of a common definition. The Global Solar Council has launched an Agri‑PV Task Force to map existing national definitions and propose a set of core categories – “strict” vs. “broad” agrivoltaics – that can be used worldwide Global Solar Council – Agri‑PV. The task force brings together solar developers, agronomists and policy makers to avoid the “one‑size‑fits‑all” trap that Hauff warns about.

Technical trade‑offs: energy output vs. crop performance

There are clear trade‑offs between energy generation and agricultural productivity. Shading from PV panels can affect crop yields, while at the same time providing micro‑climatic benefits such as lower wind speed, reduced evapotranspiration and higher soil moisture. The exact balance depends on panel height, spacing and crop selection.

Economics: subsidies help, but viability is possible without them

Public programmes in Italy, France and Germany still provide subsidies that improve project economics, yet Hauff argues that a well‑designed agrivoltaic farm can be as financially attractive as a standard PV plant when the value of agricultural co‑benefits (e.g., higher yields of premium crops, water savings) is factored in PV Magazine. A recent policy review highlights that economic incentives remain uneven globally, but the trend is toward market‑based revenue streams rather than heavy subsidies ScienceDirect review.

Scaling up: from pilot plots to larger farms

Large‑scale agrivoltaic installations have demonstrated that the technology can be deployed at significant sizes when integrated with grain or pasture production. In Europe, mid‑size projects are emerging because they balance economies of scale with manageable agronomic complexity PV Magazine. Cooperative ownership models—where several neighboring farms share a single PV array—are also being explored as a way to spread risk and keep a portion of the land for food production.

What agrivoltaics means for Israel

Using Israel’s typical commercial feed‑in tariff of ₪0.41 /kWh and a commercial installation cost of ₪2,200 /kWp, a 1 MWp agrivoltaic system in the central region (average yield ≈ 1,700 kWh/kWp / yr) would generate about 1.7 GWh / yr of electricity. At the commercial tariff this equals roughly ₪697,000 / yr in revenue. The upfront cost would be ₪2.2 million, giving a simple payback of about 3.2 years. Over a 25‑year lifetime, the system could avoid ≈ 850 t of CO₂ (0.5 kg CO₂ / kWh × 1.7 GWh) and free up land for crops, supporting Israel’s 30 % renewable electricity target for 2030.

Outlook: a new rural partnership model for the energy transition

Hauff concludes that agrivoltaics is a convergence point for food, water and power. If engineers broaden their focus beyond pure cost‑minimisation and embed agronomic expertise, the sector can deliver soil health, water‑use efficiency and climate resilience alongside clean electricity. For Israel, embracing agrivoltaics could accelerate the 2030 renewable target, improve water management in arid regions, and create a durable partnership model between solar developers and the farming community.


What it means for Israel (expanded)

  • Typical 10 kWp rooftop system (central Israel) produces ≈ 17,000 kWh / yr, worth ₪8,160 at the residential tariff (₪0.48/kWh). At a ₪31,500 install cost, payback is ≈ 3.9 years – a benchmark that shows even small‑scale PV is already attractive.
  • Agrivoltaic farms can replicate this economics at a larger scale while adding agricultural revenue, making the model especially relevant for Israel’s water‑scarce, high‑sunlight regions.
  • Policymakers and the Electricity Authority could consider co‑funding mechanisms for the agricultural co‑benefits (e.g., premium prices for shade‑tolerant crops) to further shorten payback and boost farmer adoption.

For a quick estimate of your own solar ROI, try our calculator. For the latest Israeli market data, visit our data page.

Sources & further reading

FAQ

What is agrivoltaics?

Agrivoltaics combines solar panels with active farming on the same land, generating electricity while crops grow underneath.

Why is agrivoltaics considered a new industry?

Experts say it now requires its own business structures, agronomic expertise and long‑term farmer relationships, rather than being a simple land‑use workaround.

How big is the global agrivoltaics market?

It was valued at about US$5.1 billion in 2024 and is forecast to reach roughly US$12.5 billion by 2030.

Can agrivoltaic farms be profitable without subsidies?

Yes – when the electricity revenue and the added value of higher‑quality or water‑saving crops are included, projects can match the economics of standard PV plants.

What is the payback period for a 1 MWp agrivoltaic system in Israel?

Using typical Israeli tariffs and costs, a 1 MWp system would pay back in about 3.2 years.

How does agrivoltaics help Israel’s renewable targets?

By generating clean power on existing farmland, it adds capacity without consuming extra land, supporting the 30 % renewable electricity goal for 2030.

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