Agri-Photovoltaics, also called AgriPV or agrivoltaics, refers to the simultaneous use of the same land for both agriculture and solar photovoltaic power generation. The core idea is not simple land diversion from farming to solar, but dual land use in which crop cultivation, grazing, horticulture, or other agricultural activity continues alongside solar panels.
Core idea
The basic principle of AgriPV is that the same sunlight and land area are shared between:
• Photosynthesis for crops or vegetation
• Photovoltaic conversion for electricity generation
That is why AgriPV is seen as a land-efficiency model rather than a pure energy project.
Main types
AgriPV systems are commonly understood in two broad forms:
• Overhead systems where solar panels are mounted high enough for farming activity below
• Interspace systems where agriculture continues in the spaces between ground-level solar rows
Some frameworks also include grazing, orchards, greenhouse integration, and vertical bifacial systems where land occupation is relatively low.
How it works
AgriPV tries to optimize both farming and power generation together. The solar installation is designed in a way that agricultural activity is maintained, and in some cases even improved, depending on crop type, climate, shading pattern, water stress, and panel layout.
Agricultural activities possible under AgriPV
AgriPV can support different kinds of farm use such as:
• crop cultivation
• fodder production
• horticulture
• grazing by sheep or other livestock
• pollinator vegetation
• greenhouse-linked farming
The exact suitability depends on local ecology, crop choice, spacing, and system design.
Why it is important
AgriPV is important because it addresses a major policy tension: food production versus solar expansion. Instead of treating agriculture and solar as competing land uses, it tries to integrate both. This is why it has gained strong global attention in recent years.
Major advantages
Better land-use efficiency
The same land parcel can produce both food and electricity, which is the biggest advantage of AgriPV.
Additional farm income
Farmers may earn not only from crops or grazing but also from solar electricity, lease payments, or power sales.
Climate resilience
In some cases, partial shade from solar panels can reduce crop heat stress, lower evaporation, and improve water-use efficiency, especially in hot and dry regions.
Renewable energy expansion without full agricultural displacement
AgriPV can reduce the conflict between farmland preservation and utility-scale solar growth.
Limitations
• not all crops perform equally well under solar shading
• system design is more complex than ordinary ground-mounted solar
• installation cost may be higher
• agricultural productivity and energy output must be balanced carefully
• policy definitions and incentives differ across countries
Whether a project truly qualifies as AgriPV often depends on the project-level design and the extent to which meaningful agriculture is actually maintained.
Global trend
Recent international solar reporting shows that agrivoltaics has become one of the major diversifying applications of PV. Global agencies and technical platforms are increasingly studying definitions, incentives, design standards, and performance trade-offs, which shows that AgriPV is moving from an experimental idea toward mainstream solar policy.
AgriPV and India
For India, AgriPV is especially relevant because of:
• pressure on agricultural land
• need for decentralized renewable energy
• rising irrigation energy demand
• interest in farmer income diversification
• relevance to solar-agriculture schemes such as PM-KUSUM
In Indian policy discussions, AgriPV is important because it can allow solar deployment without fully removing land from farming use. This is an inference based on the dual-use model and current solar-agriculture policy direction.
