Agrivoltaic Solar PV Mounting System

Engineered for dual land-use applications, combining agricultural productivity with optimized solar energy generation through elevated structural design — enabling simultaneous crop cultivation, livestock grazing, and clean electricity production on the same land area.

Agrivoltaic systems are the fastest-growing segment of the solar PV market by land-use innovation, with global installed capacity growing from less than 5 GW in 2020 to over 14 GW by 2024. The driving force is straightforward: agricultural land represents some of the most accessible, flat, and sun-exposed terrain available for solar deployment, and agrivoltaic structures allow this land to simultaneously produce food and electricity — resolving the land-use competition between renewable energy expansion and food security that constrains conventional solar farm development. Explore our full range of solar mounting system types to find the configuration best matched to your land assets and project goals.

Technical Overview

System Type

An agrivoltaic solar PV mounting system is an elevated-clearance variant of the standard ground-mount solar platform, specifically engineered to raise the PV array to a structural height of 2–4 m above the ground surface — sufficient to permit agricultural activity, crop cultivation, and machinery operation beneath the module plane. Built upon the structural principles of ground mounted solar systems, the agrivoltaic configuration replaces the standard low-profile fixed-tilt racking with tall steel pile columns and elevated cross-beam assemblies, creating an open agricultural workspace beneath the array that maintains the land’s productive function. The IEA PVPS has defined three primary agrivoltaic sub-categories: elevated crop agrivoltaics (panels above growing crops), livestock agrivoltaics (grazing animals beneath panels), and integrated greenhouse agrivoltaics — all served by the same elevated structural platform with configuration adjustments for the specific agricultural use case.

Structural Design

The defining structural characteristic of agrivoltaic mounting is pile column height — typically 2.0–3.5 m from finished grade to the underside of the module array for crop applications, and 2.5–4.0 m for tractor access zones requiring full machinery clearance. This elevated height substantially increases the structural moment arm for wind and eccentric load, requiring larger-diameter steel pile sections and deeper concrete or driven pile foundations compared to equivalent-capacity standard ground-mount systems. Wide row spacing — typically 6–12 m center-to-center between module rows, versus 3–5 m for standard ground-mount — is engineered to optimize the light distribution pattern reaching crops below: enough partial shading to reduce thermal stress and evapotranspiration, while maintaining sufficient direct and diffuse radiation for the target crop species’ photosynthetic requirements.

Foundation Method

Agrivoltaic systems typically use driven steel pile foundations — hot-dip galvanized I-section or circular hollow section piles, hydraulically driven to depths of 1.5–3.0 m below finished grade using tracked pile-driving equipment that can operate on agricultural terrain without road preparation. Driven piles are preferred over concrete piers for most agricultural applications because they can be installed faster, cause minimal soil disturbance, and are fully removable at end of project life — preserving the soil profile and agricultural productivity of the land for farming restoration. Where soil conditions (rock, shallow bedrock, or low-bearing-capacity soils) prevent effective pile driving, reinforced concrete pier foundations are used as the alternative. For comparison, alternative non-penetrating methods include ballasted solar mounting systems suited to flat rooftops, though these serve a fundamentally different structural environment than agrivoltaic ground installations.

Suitable Terrain

Agrivoltaic systems perform best on flat to gently sloping agricultural land — cropfields, vegetable growing areas, orchards, vineyards, pastoral grassland, and irrigated paddy fields. Slopes up to 15° can be accommodated through variable pile height adjustment (typically ±300 mm) without site grading, while steeper terrain requires terracing or stepped array configurations. Soil conditions should support adequate pile bearing capacity at the design embedment depth; agricultural soils that have been ploughed or are prone to saturation may require driven pile depth increases of 20–40% over standard specifications.

Typical Project Scale

Agrivoltaic systems are commercially deployed across a wide scale range: small farm systems start at 500 kW covering 5–10 hectares of farmland, while utility-scale agricultural solar parks reach 50 MW and above over hundreds of hectares. The most commercially active agrivoltaic segment is the 2–20 MW range — large enough to achieve economy of scale in structural procurement but small enough to match typical farm landholding sizes and local grid connection capacity in agricultural regions.

System Architecture

Main Structural Components

The agrivoltaic structural assembly integrates the following principal elements:

• Steel Pile Columns: Hot-dip galvanized I-section (wide-flange) or circular hollow section (CHS) steel piles, sized to carry the full module array dead load and transferred wind moment at the elevated column height. Column sections range from H-pile 150×150 to 200×200 (HE / UC section) for standard systems, with depth and section size determined by site wind speed and column height per structural engineering calculation.
• Cross Beams: Steel strongback beams spanning between pile top connections, providing the primary transverse load transfer path for module array dead load and wind uplift. Cross beams are bolted to pile top brackets and pre-drilled for purlin attachment at module-row spacing.
• Mounting Rails: 6005-T5 anodized aluminum extrusion rails, bolted to cross beams at module column spacing (typically 900–1,100 mm c/c), providing the module clamping surface and electrical grounding path.
• Module Clamps: A4-316 stainless steel end and mid-clamps providing mechanical retention and bonding continuity for all standard framed module types, including large-format 700 W+ bifacial modules compatible with agrivoltaic elevated configurations.

Height & Spacing Configuration

The height and row spacing of the agrivoltaic structure are the two design parameters with the greatest influence on the system’s agricultural performance. Minimum clearance height is determined by the tallest agricultural element beneath the array: 1.2 m is the minimum for low-growing vegetable crops; 2.0–2.5 m for medium-height crops and sheep/cattle grazing; and 3.5–4.5 m for full agricultural tractor access with implement clearance. Row spacing is determined by the shading ratio target: wide spacing (10–12 m) delivers high light transmission (60–75%) for light-demanding crops such as cereals and vegetables; closer spacing (6–8 m) delivers higher module density and greater shading (40–60% transmission) suitable for shade-tolerant crops, herbs, and berry fruits that benefit from reduced heat and evapotranspiration stress.

Corrosion Protection Strategy

The agricultural environment presents specific corrosion challenges beyond the standard atmospheric exposure of conventional ground-mount systems: fertilizer spray, pesticide and herbicide applications, irrigation moisture, animal waste in livestock configurations, and the elevated humidity of crop canopy microclimates all accelerate corrosion of metallic surfaces. All structural steel — piles, cross beams, and base brackets — is hot-dip galvanized to a minimum 85 µm zinc thickness per ASTM A123 / ISO 1461. In regions with high-intensity irrigation or chemical application exposure, 140 µm galvanizing or epoxy topcoat is specified. Aluminum rail profiles are hard-anodized to ≥ 10 µm. All fasteners are A4-316 stainless steel throughout to prevent galvanic contact corrosion and to resist chemical exposure from agricultural applications.

Engineering Specifications

Parameter	Typical Specification
Wind Load Resistance	40–55 m/s (144–198 km/h) design wind speed; elevated column increases base moment vs standard ground-mount
Snow Load Capacity	1.4–2.0 kN/m² (29–42 PSF) per ASCE 7 / EN 1991; elevated array reduces ground snow drift accumulation
Structure Height (Bottom of Array)	1.2 m minimum (low crop); 2.0–2.5 m (livestock / tall crop); 3.5–4.5 m (tractor clearance)
Row Spacing	6–12 m center-to-center (crop-type dependent; optimized by shading simulation)
Module Tilt Angle	10°–60° (latitude-matched; adjustable variants available for seasonal optimization)
Light Transmission to Crops	40–75% depending on row spacing and tilt angle (crop-specific target per agronomy study)
Pile Column Material	Hot-dip galvanized H-pile or CHS; 85–140 µm zinc per ASTM A123 / ISO 1461
Rail Material	6005-T5 anodized aluminum; A4-316 stainless fasteners throughout
Foundation Type	Driven steel piles (preferred for agricultural land); reinforced concrete pier (rock or soft soil)
Design Life	25+ years; pile removal at end of life restores soil profile for continued farming

Agricultural Load Considerations

Agrivoltaic structures must be designed for load cases beyond those applicable to standard ground-mount solar systems. Tractor and agricultural machinery operating beneath the array impose dynamic live loads and potential impact loads on structural columns — design specifications require a minimum lateral impact resistance of 3 kN at 1.0 m height on all columns within machinery access zones (per EN 1337 and equivalent structural design guidance). Irrigation system loads (drip lines, micro-sprinkler headers) suspended from the structural frame add distributed dead loads of 0.05–0.15 kN/m² depending on system type and crop. Harvesting and crop management equipment clearance must be verified against the as-installed column layout plan before agricultural operations commence.

Compliance & Structural Standards

Agrivoltaic mounting structures are designed and documented to the following standards across all target markets:

• ASCE 7-22: Wind, snow, seismic, and load combination requirements for open freestanding structures on agricultural terrain
• EN 1993 / Eurocode 3: Steel structure design for column, beam, and connection engineering — applicable to European Union project permitting
• EN 1991 / Eurocode 1: Wind and snow action specification for European and export-market projects
• ASABE EP633.1: American Society of Agricultural and Biological Engineers equipment interaction clearance standard — used in US agrivoltaic project design documentation
• EU Machinery Directive 2006/42/EC: Equipment clearance and safety standards applicable to European agrivoltaic installations with tractor/machinery access
• CE / ISO 9001 / AS/NZS 1170: Product quality and load standard compliance for European, international, and Australasian markets

For projects that include building-integrated solar components alongside agrivoltaic ground structures, compliance may also extend to IBC / local building authority requirements. For roof-based compliance structures see roof mounted solar systems engineering documentation.

Installation Process

Site & Crop Planning

Agrivoltaic project design requires a multidisciplinary pre-construction assessment that integrates solar engineering with agronomic planning. The solar engineer determines the array layout, row spacing, and tilt angle to achieve the energy generation target; the agronomist or crop consultant determines the shading ratio, irrigation compatibility, and machinery access requirements for the intended agricultural use. These two design inputs are co-optimized — typically through iterative shading simulation — to produce a layout that meets both energy yield and agricultural productivity targets simultaneously. Regulatory coordination with local agricultural land-use authorities is also initiated at this stage to secure the agrivoltaic land designation required in many jurisdictions.

Foundation Preparation

Driven pile installation on agricultural land uses a tracked hydraulic hammer or vibratory driver that can access soft-ground field conditions without road preparation. Pile positions are staked using GPS-referenced survey equipment to ±20 mm positional tolerance, ensuring column alignment precision across the full array layout. Pile drive depth is monitored by blow count or set-per-blow records to confirm the required embedment resistance has been achieved, with over-length piles cut back to the design column height after driving. On sites with known underground drainage tiles or irrigation infrastructure, utility scanning is performed before pile driving to identify and avoid sub-surface conflicts.

Structural Assembly

Cross beams are bolted to pile top connection brackets and levelled using shim packs to achieve the design array plane geometry across the site’s natural terrain variation. The elevated column height in agrivoltaic systems — 2.0–4.0 m — requires the use of mobile elevated work platforms (MEWPs) or site-fabricated access scaffolding for all above-ground assembly work. Aluminum mounting rails are bolted to the cross beams at the specified module-row spacing. Structural assembly is completed and surveyed for alignment before module installation begins.

Module Mounting & Clearance Adjustment

Modules are installed from mobile elevated work platforms, with DC string wiring routed in UV-resistant conduit along the structural frame. After module installation, a final clearance survey confirms that the underside of the lowest module row achieves the design ground clearance at all points across the array — critical for certifying machinery access compliance before agricultural operations under the array commence. Bifacial modules are commonly specified for agrivoltaic applications to capture reflected irradiance from the crop surface or soil below, improving energy yield by 5–15% versus monofacial modules at the same installed capacity.

Performance & Return on Investment

Energy Yield Impact

Agrivoltaic systems accept a partial energy yield compromise relative to density-optimized standard solar arrays: the wider row spacing required for agricultural machinery access reduces ground coverage ratio (GCR) from the standard 0.40–0.55 to 0.25–0.40, and elevated tilt angles may be constrained by clearance requirements. This typically results in a specific energy yield (kWh/kWp) approximately 5–15% lower than a standard fixed-tilt system at the same location with optimized row spacing and GCR. However, compared to a fixed-tilt solar mounting system that excludes agricultural use entirely, the agrivoltaic system generates the same energy from the same land while simultaneously producing agricultural crops — making the yield differential academically interesting but commercially irrelevant when the full dual-use value is accounted for. Research consistently shows that Land Equivalent Ratio (LER) values of 1.3–1.7 are achievable — meaning an agrivoltaic system produces 30–70% more combined value (energy + food) from a given land area than either land use alone.

Dual Revenue Potential

The financial case for agrivoltaic systems is built on two independent revenue streams from the same land: electricity sales or on-site consumption offsetting purchased power, and continued agricultural income from crops or livestock produced beneath the array. For a 10 MW agrivoltaic installation on 80 hectares, electricity generation of approximately 14–16 GWh/year at $0.06–$0.10/kWh creates $840,000–$1,600,000 in annual energy revenue, while the underlying agricultural activity continues to generate $500–$2,000/hectare/year in crop or pastoral income — a combined revenue profile that significantly outperforms either activity alone on the same land parcel. In regions offering agrivoltaic-specific tariff premiums or government subsidies (Japan, South Korea, France, and several US states), the energy revenue can be enhanced by 10–30% above standard solar tariff levels.

CAPEX & Long-Term Value

Agrivoltaic systems carry a CAPEX premium of 20–40% over standard ground-mount fixed-tilt systems, reflecting the cost of elevated pile columns, heavier structural steel, wider foundation spacing, and the additional civil design required for machinery access compliance. A typical utility-scale agrivoltaic project runs $1.10–$1.60/W installed (versus $0.85–$1.10/W for standard fixed-tilt), with the premium diminishing at larger project scales. The incremental cost is justified by the dual revenue stream — the ongoing agricultural income from the land eliminates the land lease cost entirely for farm-owner operators, and provides a non-correlated income stream that improves overall project financial resilience through commodity price cycles.

Maintenance Considerations

O&M for agrivoltaic systems covers both the solar and agricultural components. Annual PV maintenance (module cleaning, structural inspection, electrical testing) runs $10–$18/kW/year — comparable to standard ground-mount. Agricultural operations (crop cultivation, irrigation, harvesting, livestock management) are conducted under the array with standard farm equipment, requiring coordination between farm and solar O&M schedules to prevent equipment conflict at column locations. Column base plates must be protected from direct cultivation implement contact, typically using driven timber or rubber bollards placed 300 mm from each column face within the machinery access corridor.

Advantages

• Dual Land Utilization: The same land parcel simultaneously generates renewable electricity and continues producing food or agricultural income — fundamentally resolving the land-use competition between solar energy development and food production that constrains conventional solar farm siting in agricultural regions.
• Increased Overall Land Productivity: Research across dozens of operational agrivoltaic projects worldwide consistently demonstrates Land Equivalent Ratio (LER) values of 1.3–1.7 — meaning 30–70% more total value is generated per hectare in an agrivoltaic configuration than either land use could achieve independently on the same area.
• Crop Microclimate Benefits: The partial shading created by the module array reduces crop surface temperature by 3–8°C during peak summer heat, lowers evapotranspiration by 14–30%, and reduces soil moisture loss — improving water use efficiency and protecting crops from drought and heat stress. Studies have documented yield increases for shade-tolerant crops including lettuce, spinach, herbs, and berry fruits when grown under appropriately designed agrivoltaic arrays.
• Government Subsidy Eligibility: Multiple jurisdictions have introduced agrivoltaic-specific tariff premiums, preferential land-use planning consent, agricultural subsidy compatibility, and green bond frameworks that are unavailable to conventional solar farms on non-agricultural land — creating a multi-layered financial incentive structure that can materially improve project economics versus standard ground-mount.
• Long-Term Structural Durability & Land Reversibility: The driven pile foundation approach allows the complete structural system to be removed at end of project life, restoring the land to full agricultural use without residual foundation constraints — a critical advantage for maintaining the agricultural classification and long-term value of the land asset.

Limitations

• Higher Initial CAPEX: Elevated column heights, heavier structural steel sections, and machinery clearance compliance requirements increase installed cost by 20–40% over standard fixed-tilt ground-mount systems — requiring a comprehensive dual-revenue financial model to justify the investment case versus lower-cost alternatives.
• Higher Design Complexity: Agrivoltaic projects require co-ordinated input from solar engineers, structural engineers, agronomists, and agricultural planners — a multidisciplinary design process that is longer, more complex, and more expensive to develop than a standard ground-mount solar project on the same land.
• Agricultural Planning Coordination Required: Land designated as agricultural may require specific planning consent, environmental impact assessment, or agricultural land quality designation changes to permit solar development — a permitting pathway that varies significantly by jurisdiction and can extend project development timelines by 12–24 months in regulatory-complex markets.
• Not Optimal for Yield Maximization Alone: Projects where maximizing energy yield per installed kWp is the sole objective — with no agricultural integration requirement — will achieve better economics with standard fixed-tilt or tracking systems that optimize GCR and tilt angle without agricultural clearance constraints. For projects prioritizing yield maximization, consider single axis tracking system solutions that deliver 15–25% yield uplift versus fixed-tilt without agricultural integration compromise.

Application Scenarios

Crop Cultivation Projects

Vegetable, herb, and specialty crop production under elevated solar arrays represents the most scientifically studied and commercially mature agrivoltaic application. Shade-tolerant and high-value crops deliver the best dual-use financial performance: lettuce, spinach, Swiss chard, basil, parsley, strawberries, and blueberries have all demonstrated equal or improved yields under partial shading compared to open-field conditions — with water use reductions of 15–30% providing an additional operational cost saving. Taller crops including peppers and tomatoes require 2.0–2.5 m minimum clearance and benefit from bifacial panel configurations that increase diffuse light within the canopy. Row spacing of 8–12 m is typical for vegetable production systems to maintain sufficient light transmission for crop photosynthesis while achieving meaningful solar generation per hectare.

Livestock & Pasture Integration

Sheep, goats, and cattle can graze freely beneath elevated agrivoltaic arrays where column spacing, module height, and electrical cable routing are designed to prevent equipment entanglement and animal injury. The shaded microclimate beneath the array reduces thermal stress on livestock during summer, potentially improving weight gain rates and reducing heat-related mortality. Pasture grasses maintain sufficient light for productive growth at 40–60% shading ratios, and the moisture retention benefit of shading reduces supplemental irrigation requirements for maintained pasture. Livestock integration also provides incidental O&M benefits — sheep grazing suppresses vegetation growth around column bases, reducing vegetation management costs and fire risk mitigation effort in dry climate regions.

Large-Scale Agrivoltaic Plants

Utility-scale agrivoltaic projects in the 10–50 MW range are actively being developed across Europe, Japan, the United States, and Southeast Asia — with governments in France, South Korea, Germany, and Japan having deployed thousands of megawatts under national agrivoltaic policy frameworks. Projects at this scale use standardized elevated mounting systems deployed across hundreds of hectares of arable land, combining electricity generation at utility tariff rates with continued agricultural production under land-lease agreements structured to preserve the farmer’s operational control of the agricultural activity. High-density solar farms requiring maximum energy yield per hectare without agricultural integration may alternatively use a dual axis tracking system to maximize irradiance capture, though this precludes simultaneous agricultural land use beneath the array.

Compare With Other Mounting Systems

vs Ground-Mounted Systems

Utility scale ground mounted systems maximize energy generation density through optimized tilt angles, closer row spacing, and lower structural profiles that reduce steel cost per watt — but they exclude all agricultural activity from the array footprint. The correct financial comparison is not cost per watt in isolation but total land value generated: agrivoltaic systems generate energy plus agricultural income from the same hectares, while standard ground-mount generates only energy. On high-quality agricultural land where crop income represents significant value, the agrivoltaic premium over standard ground-mount is typically recovered within 5–8 years through the preserved agricultural revenue stream.

vs Fixed-Tilt Systems

Fixed-tilt solar systems on open land deliver the lowest racking cost per watt and can be optimized to latitude-matched tilt angles without agricultural clearance constraints — achieving 5–15% higher specific yield than the same capacity in an agrivoltaic layout with wider spacing and clearance-constrained tilt. For landowners with open non-agricultural land, fixed-tilt is the cost-optimal choice; for farmers who wish to retain agricultural income while also generating solar revenue, the agrivoltaic configuration is the only viable option. Fixed-tilt agrivoltaic variants with elevated clearance represent a direct structural adaptation of standard fixed-tilt engineering principles to agricultural dual-use requirements.

vs Tracking Systems

A single axis tracking solution achieves 15–25% higher annual energy yield than fixed-tilt by rotating the module plane to follow the sun’s daily arc — but the rotation mechanism and drive system components require a clear horizontal movement envelope that conflicts with crop canopy growth, irrigation infrastructure, and livestock presence beneath the array. Single-axis tracking and agrivoltaic crop integration are therefore generally incompatible in practice, though experimental research on elevated single-axis agrivoltaic configurations is ongoing. Projects where tracking yield is a priority and agricultural co-use is not required should select a standard single-axis tracker on open land rather than attempting to combine tracking with active crop cultivation.

Frequently Asked Questions

What crops are suitable for agrivoltaic systems?

The most compatible crops are shade-tolerant species that benefit from reduced direct radiation, lower temperatures, and improved moisture retention under the array: leafy vegetables (lettuce, spinach, Swiss chard, kale), culinary herbs (basil, parsley, cilantro, mint), small fruits (strawberries, blueberries, raspberries), and root vegetables (beets, radishes, carrots). Light-demanding cereal crops (wheat, corn, soybeans) are less compatible with standard agrivoltaic shading ratios but can be accommodated with very wide row spacing (10–14 m) that limits shading to less than 25% of the growing surface — maintaining acceptable yields while still generating meaningful solar output.

What minimum structure height is required?

Minimum structure height (underside of lowest module to finished grade) depends entirely on the intended agricultural activity beneath the array. Low-growing vegetable crops (height ≤ 0.5 m) require a minimum of 1.2 m clearance to allow manual cultivation and harvesting equipment access. Medium-height crops and sheep grazing require 2.0–2.5 m. Cattle grazing requires 2.5–3.0 m. Full agricultural tractor access with mounted implements (ploughs, cultivators, spray equipment) requires 3.5–4.5 m depending on implement height — this is the most demanding specification and drives the largest structural cost premium in agrivoltaic design. Column height is specified in the structural engineering package and cannot be altered after pile installation without structural recalculation.

How does shading affect crop yield?

The effect of agrivoltaic shading on crop yield depends on crop species, shading intensity, and local climate. Research has documented three categories of outcomes: shade-tolerant crops (lettuce, herbs, strawberries) frequently show equal or improved yields under 30–50% shading due to reduced thermal stress and water demand; light-demanding crops (wheat, corn) show yield reductions of 10–30% at the same shading intensity; and intermediate crops (tomatoes, peppers, legumes) show variable outcomes depending on climate severity and shading distribution. Optimal agrivoltaic design matches the shading ratio to the target crop’s shade tolerance profile — a task performed by the project agronomist using site-specific irradiance modelling before structural layout is finalized.

What soil conditions require a pile foundation change?

Standard driven pile foundations are suitable for the majority of agricultural soil types from sandy loam through heavy clay at standard penetration test (SPT) N-values above 5. Soft organic soils (peat, muck), highly saturated clays, and soils with N-values below 5 may have insufficient lateral resistance for standard pile embedment depths — requiring either increased pile depth (adding 0.5–1.0 m), larger pile section sizes, or conversion to reinforced concrete pier foundations that engage deeper, more competent soil horizons. Rocky soils or shallow bedrock (within 1.5 m of surface) prevent driven pile installation entirely, requiring either rock-anchor pile systems or reinforced concrete caisson foundations drilled into competent rock.

What design standards are followed?

Agrivoltaic mounting structures are designed in compliance with ASCE 7-22 (US wind, snow, and seismic loads), EN 1993 / Eurocode 3 (steel structure design, European markets), EN 1991 / Eurocode 1 (wind and snow actions, European markets), ASABE EP633.1 (agricultural equipment clearance, US projects), EU Machinery Directive 2006/42/EC (machinery safety, European projects), NEC 2023 / IEC 62446 (electrical code compliance), and ISO 9001 / CE marking (product quality management and European market access). All structural engineering calculations are performed by licensed structural engineers and sealed for project permitting and lender’s technical advisor review.

Related Mounting Systems

Agrivoltaic systems deliver the unique dual-use agricultural-solar value proposition. For projects with different land types or energy objectives, explore the full PV Rack portfolio:

• Ground-Mounted Solar Systems — standard multi-row ground-mount platform for open non-agricultural land, delivering lower structural cost per watt where dual land use is not required and maximizing GCR for highest energy density per hectare
• Fixed-Tilt Solar Mounting System — lowest-cost ground-mount racking for open-land projects where latitude-optimized tilt at standard clearance height is sufficient and agricultural co-use is not a project requirement
• Single-Axis Tracking System — 15–25% annual yield uplift for utility and large C&I projects on open non-agricultural land where energy density optimization is the primary design objective
• Floating Solar Mounting System — water-surface PV alternative for agricultural sites with accessible irrigation reservoirs, ponds, or water retention basins where land-surface agrivoltaic deployment is not feasible

Start Your Agrivoltaic Solar Project Today

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