Agrivoltaics Companies in Europe: How to Choose an Agri-PV Developer (2026 Guide)

What agrivoltaics actually is (and what it is not)

Agrivoltaics — agri-PV, agrisolar, or dual-use solar — is the deliberate co-location of photovoltaic generation and continued agricultural production on the *same* land, so that farming remains the primary purpose and the panels are engineered around it. It is not a ground-mounted solar farm with a few sheep let in afterwards, and it is not a greenhouse that happens to have panels on an unused roof.

The defining test is intent and design: an agrivoltaic system is sized, spaced, and elevated so a defined crop or livestock activity can continue productively underneath or between the modules. Two ideas anchor every serious project:

• Ground Coverage Ratio (GCR) — the share of land the panels cover. Agri-PV runs a deliberately *low* GCR compared with a conventional solar farm, trading some energy density for light reaching the crop.
• Land Equivalent Ratio (LER) — a dual-yield metric comparing the combined food-plus-energy output of the shared land against farming and solar done separately on their own plots. A well-designed system aims for an LER above 1, meaning the shared hectare beats splitting the two uses.

If a company cannot talk fluently about GCR and LER for *your* crop, it is selling you a solar farm, not agrivoltaics.

The main agri-PV system types

European agrivoltaics has consolidated around three structural families, each suited to different crops and mechanisation. The right developer picks the type to fit the farm — not the other way round.

• Overhead / elevated (stilted) systems. Panels sit on tall steel structures several metres up, with farming directly *underneath*. This is the classic choice for permanent and special crops — orchards, berries, viticulture — where partial shade and hail/frost protection are a benefit and machinery needs clearance. This maps to what the German DIN SPEC 91434 specification calls Category I (use directly beneath the modules).

• Vertical bifacial systems. Double-sided modules stand upright in rows with wide gaps between them, so arable machinery and crops run *between* the rows. They capture morning and evening sun (typically east/west facing), spread generation across the day, and shade very little ground — well suited to grain, fodder, and grazing. This aligns with DIN SPEC Category II (use between the rows).

• Interspace / low ground-mounted and greenhouse-integrated systems. Spaced ground-level arrays leave cultivable strips between rows, while greenhouse-integrated PV builds semi-transparent or selectively-shading modules into protected-cropping structures. Several national frameworks (Italy's among them) recognise elevated, vertical, and interspace configurations as distinct categories.

Each type changes the shading pattern, so each demands its own crop-light model — a company that only offers one structure is fitting the crop to its product.

The EU and national policy angle — mechanisms, not numbers

Agrivoltaics sits at the intersection of energy and agriculture law, so the rules come from several directions at once. Treat the following as mechanisms to check with the official source for your country and project year — the specific rates, caps, and auction volumes change frequently and vary by member state.

• EU level. The EU Solar Energy Strategy explicitly encourages member states to build agrivoltaics support into their Common Agricultural Policy (CAP) national strategic plans, and the wider renewables framework (the Renewable Energy Directive, RED) drives the deployment targets that agri-PV helps meet. The European Commission has also recognised solar as a complementary tool for agriculture — a signal that dual-use can keep land agriculturally classified rather than reclassified as industrial.

• National frameworks vary — and that matters commercially. Several leading markets run dedicated agri-PV support schemes and permitting rules, typically expressed through mechanisms such as: a minimum share of land kept available for farming, a maximum panel coverage / GCR ceiling, a minimum relative crop yield the project must preserve versus open-field, and sometimes height-based or configuration-based auction categories. Germany's DIN SPEC 91434 provides the technical reference behind several of these; France, Italy, and others operate their own agricultural-first rules.

• Why the detail is load-bearing. These thresholds decide whether a project keeps agricultural land status, qualifies for a support scheme, and remains bankable. A developer must design *to the specific rule set of the site's country and the current programme year* — confirm figures against the national energy agency or ministry, never against a blog (including this one).

How to choose an agri-PV developer

A conventional solar EPC optimises one number: energy yield. An agrivoltaics company must optimise a *system* of two coupled yields — crop and power — under a regulatory constraint. Screen candidates on genuinely dual competence.

• Agronomy on staff, not outsourced as an afterthought. Ask who models the crop. The best developers pair PV engineers with agronomists (or partner formally with agricultural institutes) and can name the crop model and light-simulation approach they use.
• Dual-yield modelling — both harvests. Require a simulation that predicts *crop* outcome (light reaching the canopy, Daily Light Integral, relative yield versus open field) alongside the electrical yield. Dynamic systems may use tracking strategies that prioritise the crop's light needs before pivoting the trackers to generation.
• Standards and category fit. Look for design to DIN SPEC 91434 (or the relevant national standard) and a clear statement of which category and system type suits your crop, with GCR and expected LER stated.
• Land, permitting, and grid track record. Agri-PV permitting is more complex than standard PV — land-use classification, farming-continuity obligations, and grid connection all interact. Ask for reference projects that reached operation, not just pilots, in your country.
• Bankability and monitoring. Serious projects carry a data framework that proves ongoing agricultural use (so support and land status hold) plus standard PV performance guarantees. Weak signals: no agronomist, one fixed product for every crop, energy-only yield decks, and pilots but no operational references.

Use the criteria table below as a scorecard, then shortlist verified companies from the category listing on this site.

Why agrivoltaics is growing in Europe

The momentum is structural, not a fad, and it stacks several pressures onto the same solution.

• Land scarcity and the food-versus-energy conflict. Ground-mounted solar competes for the same good land farmers need. Agri-PV defuses that conflict by sharing the hectare — and research has suggested that covering only a small fraction of the EU's agricultural area with agrivoltaics could contribute very significantly toward the bloc's PV deployment ambitions, without taking land out of farming (see the EU Joint Research Centre for the underlying figures).
• Farmer income diversification and resilience. A dual-use field can add an energy revenue stream and lower on-farm energy costs, hedging volatile commodity and input prices.
• Climate adaptation as a co-benefit. Partial shading can cut soil evaporation and crop water stress, extend irrigation intervals, and buffer heat and hail — increasingly valuable in drought-prone southern Europe. Pollinator-friendly designs add biodiversity and can support premium sourcing.
• Policy and target pull. CAP integration, national agri-PV schemes, and EU renewables targets are converging to make dual-use both permitted and, in several markets, actively supported.

The brake is real, though: permitting complexity, grid-connection queues, and higher up-front structural cost than plain ground-mount. That is precisely why developer selection — capability, standards, and references — is the decision that determines whether an agri-PV project pencils out.