Bifacial vs Polycrystalline Solar Panels Benefits for Farmers

Key Takeaways:

• Bifacial solar panels can generate up to 30% more energy than standard panels by capturing sunlight from both sides — making them a powerful option for open farmland with reflective ground surfaces.
• Polycrystalline panels cost 10–20% less upfront than premium alternatives, offering farmers a reliable, budget-friendly entry point into solar energy.
• The right panel type depends on your farm’s specific conditions — including available land, ground surface type, climate, and budget — not just efficiency ratings alone.
• Bifacial panels deliver stronger long-term ROI despite higher initial costs, particularly for operations planning 20+ year energy strategies.
• Agrivoltaic setups using bifacial technology allow crops and energy production to share the same land — a strategy explored further inside this article.

Choosing between bifacial and polycrystalline solar panels could be one of the most financially significant decisions a farmer makes this decade. Whether you’re powering irrigation systems, barns, or processing equipment, the panel technology you select will shape your energy costs for the next 25 to 30 years.

Both bifacial and polycrystalline panels are legitimate, proven solar technologies. But they perform very differently depending on where and how they’re installed. This comparison cuts through the marketing noise and gives you the technical clarity needed to make the right call for your operation.

Bifacial vs Polycrystalline Solar Panels: What Farmers Need to Know First

These two panel types are not direct competitors in the traditional sense — they serve different operational profiles. Bifacial panels are a design format, meaning they can be built using monocrystalline or even polycrystalline cells but feature a transparent rear surface that captures reflected light. Polycrystalline panels refer to a specific cell manufacturing process where multiple silicon crystals are fused together, creating that recognizable blue, fragmented appearance.

The distinction matters because farmers often compare these two as if they’re in the same category, when in reality the conversation is about design architecture vs. cell technology. A bifacial panel with monocrystalline cells will outperform a standard polycrystalline panel on nearly every efficiency metric — but at a meaningfully higher cost. Understanding this difference upfront prevents costly mismatches between panel selection and farm environment.

For agricultural operations, the key evaluation factors are energy output per acre, installation flexibility, durability under field conditions, and total cost of ownership over a 25-year horizon. Both panel types have a legitimate place in farm energy strategy — the goal is matching technology to terrain.

“What are Bifacial Solar panels …” from ontario-solar-installers.ca and used with no modifications.

How Bifacial Solar Panels Work on a Farm

Bifacial panels flip the conventional solar model on its head. Instead of capturing light only from the top surface, they use a transparent backsheet or dual-glass construction to absorb reflected light from below as well. On a farm, that reflected light comes from soil, crops, gravel paths, snow cover, and any light-colored surface beneath the array.

Dual-Side Energy Capture Explained

The front side of a bifacial panel functions identically to any standard solar panel — photovoltaic cells convert direct sunlight into electricity. The rear side, however, captures albedo light: sunlight that has bounced off the ground and surrounding surfaces back up toward the panel. This rear-side contribution typically adds between 10% and 30% additional energy generation depending on ground conditions, panel elevation, and geographic location.

In practical farm terms, a bifacial array rated at 400W per panel under standard test conditions can realistically deliver 440W to 520W per panel under optimal field conditions. That gap compounds significantly across a large agricultural installation.

How Ground Reflectivity Affects Output

Ground reflectivity — measured as albedo — is the single biggest variable in bifacial panel performance on a farm. Different surfaces reflect radically different amounts of light back to the panel’s rear face:

• Fresh snow: reflects up to 90% of incoming sunlight — the highest possible albedo boost
• Light-colored gravel or sand: reflects approximately 25–40%
• Dry, light soil: reflects around 20–30%
• Green grass or crops: reflects approximately 15–25%
• Dark, wet soil: reflects as little as 5–10%

This means a farm in a northern climate that experiences significant snow cover during winter months can see bifacial rear-side gains of up to 35–40% during those periods — a substantial seasonal production advantage that polycrystalline monofacial panels simply cannot match.

Best Farm Surfaces for Maximizing Bifacial Performance

The ideal installation environment for bifacial panels is an open, elevated mounting structure over a highly reflective ground surface. Ground-mounted systems work best when panels are elevated at least 1 to 1.5 meters above the ground, allowing diffuse and reflected light to reach the rear cells from wide angles.

White or light-colored ground covers, gravel beds, and snow-prone open fields represent the highest-value environments for bifacial deployment. Farms that practice agrivoltaics — where crops grow beneath elevated solar arrays — also benefit from bifacial technology, since the crop canopy, soil, and atmospheric scatter all contribute to rear-side light capture.

How Polycrystalline Solar Panels Work on a Farm

Polycrystalline panels are manufactured by melting multiple silicon crystal fragments together and casting them into square cells. This process is less refined than the single-crystal growth method used for monocrystalline cells, which is exactly why polycrystalline panels cost less to produce — and less to buy. The result is a panel with slightly lower efficiency but very solid real-world performance, especially in the wide-open, high-temperature conditions common to agricultural settings.

Multi-Crystal Silicon Technology Explained

During manufacturing, raw silicon is melted and poured into molds where it solidifies into a block made up of many small crystals oriented in different directions. These multi-directional crystal boundaries create minor resistance to electron flow, which is why polycrystalline panels typically achieve efficiency ratings of 13–17% compared to monocrystalline’s 17–22%. The trade-off is a significantly lower cost per watt — making large-scale farm installations more financially accessible.

Why Polycrystalline Panels Handle Heat Well

One underappreciated advantage of polycrystalline panels in farm settings is their relatively stable performance in high ambient temperatures. All solar panels lose efficiency as temperatures rise — a metric called the temperature coefficient. Polycrystalline panels typically have a temperature coefficient of around -0.40% per °C, which is comparable to many monocrystalline options and makes them a practical choice for farms in warmer southern climates where summer heat is a consistent factor in energy planning.

Bifacial vs Polycrystalline: Side-by-Side Comparison for Farmers

Putting both technologies side by side reveals where each panel type wins and where it falls short for agricultural use. The table below summarizes the most relevant performance and cost metrics for farm decision-making.

Energy Output and Efficiency Rates

Bifacial panels win decisively on total energy output when installed in the right environment. The front-side efficiency alone already meets or exceeds monocrystalline standards, and the rear-side gain pushes total system output well beyond what any monofacial polycrystalline system can deliver at equivalent capacity ratings. For farms where every kilowatt-hour directly reduces operating costs, that output gap translates to real dollars saved annually.

Upfront Cost and Long-Term Return

Polycrystalline panels carry a meaningful cost advantage at the point of purchase. For farms with tight capital budgets or those looking to deploy solar across large flat areas quickly, polycrystalline systems offer the lowest barrier to entry. However, when factoring in energy yield over a 25-year system life, bifacial panels frequently deliver a stronger total return — particularly when agricultural solar incentives and tax credits are applied to offset that initial premium.

Durability and Weather Resistance

Both panel types are engineered to survive decades of outdoor exposure, but bifacial panels have a structural edge in harsh agricultural environments. Most bifacial panels use a dual-glass construction — replacing the traditional polymer backsheet with a second layer of tempered glass — which significantly improves resistance to moisture, UV degradation, and mechanical stress from wind and hail. This frameless or dual-glass design also eliminates the potential for backsheet cracking, a common long-term failure point in standard polycrystalline panels exposed to repeated freeze-thaw cycles.

Field Note: In a dairy farm installation case study, bifacial dual-glass panels maintained over 92% of their rated output after 10 years of continuous operation in a northern climate with heavy snow loads and significant temperature swings. Equivalent polycrystalline installations in similar conditions typically showed 88–90% output retention over the same period — still strong, but measurably lower.

Polycrystalline panels are by no means fragile. Most carry the same IP68 weatherproofing ratings and IEC 61215 certification as premium panel types, meaning they’ve been tested against wind loads, hail impact, and humidity cycling. For barn roof installations or sheltered ground mounts, polycrystalline panels offer more than adequate durability at a lower cost point.

The real durability gap emerges in fully exposed, open-field installations where panels face maximum environmental stress year-round. In those conditions, the dual-glass bifacial construction consistently outperforms polymer-backsheet polycrystalline panels over a 20-plus year horizon — making it the lower-maintenance choice for large agricultural ground arrays.

Land Use and Installation Flexibility

Land is a farmer’s most valuable asset, and solar technology that competes with crop production for that land creates real operational tension. This is where bifacial panels introduce a genuinely transformative option: elevated bifacial arrays installed at 2 to 4 meters above the ground allow full crop cultivation, equipment access, and livestock movement beneath the panels — turning a single piece of land into a dual-income asset.

Polycrystalline panels are more commonly deployed in roof-mounted configurations on barns, equipment sheds, and processing buildings — locations where land use conflict simply doesn’t exist. For farmers who already have substantial roof space available, polycrystalline systems offer a clean, cost-effective installation without any compromise to agricultural land productivity.

When ground mounting is the only option and land is limited, the choice between these two technologies becomes more consequential. A bifacial agrivoltaic setup can generate solar income while maintaining 60–70% of normal crop yield beneath the array — a land efficiency outcome that no monofacial polycrystalline installation can replicate.

• Barn and shed rooftops: Polycrystalline panels are the cost-efficient default choice
• Open flat ground with no shade: Bifacial panels maximize output per acre
• Agrivoltaic dual-use setups: Bifacial elevated arrays are the clear technical fit
• Partially shaded or irregular terrain: Polycrystalline systems with microinverters offer installation flexibility
• Snow-prone northern farms: Bifacial panels capture reflected snow light for significant winter production gains

Installation flexibility ultimately depends on matching panel architecture to the physical realities of each farm site — not defaulting to one technology across all use cases. For more insights, explore the benefits of bifacial solar panels for farmers.

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5 Key Benefits of Bifacial Panels for Agricultural Operations

Bifacial technology was developed specifically to extract more energy from the same installed footprint — and in agricultural settings, that core design goal aligns perfectly with farm economics. More energy per panel means fewer panels needed, lower balance-of-system costs, and a smaller land footprint for equivalent output. Learn more about solar panels for agricultural use.

For farming operations planning long-term energy independence, these five advantages represent the strongest case for choosing bifacial over conventional polycrystalline systems.

1. Up to 30% More Energy from the Same Footprint

In optimal agricultural installations — particularly those over high-albedo surfaces like gravel, sand, or snow — bifacial panels typically produce 20–30% more energy annually than equivalent monofacial panels of the same rated wattage. That’s not a marginal improvement. On a 100kW farm installation, a 25% rear-side gain translates to an effective 125kW output without adding a single additional panel or square meter of land.

This output advantage directly compresses payback periods. When a bifacial system produces significantly more energy than its nameplate rating suggests, the annual savings in grid electricity purchases accelerate the return on the premium upfront investment — often closing the cost gap with polycrystalline systems within 3 to 5 years of operation.

2. Longer Lifespan with Lower Annual Degradation

Bifacial panels — especially those built with dual-glass construction — degrade at a slower annual rate than standard polycrystalline panels. Premium bifacial modules from manufacturers like LONGi Solar and JA Solar carry degradation warranties of less than 0.45% per year, compared to the industry-standard 0.5–0.7% annual degradation typical of polycrystalline panels. Over 25 years, that difference in degradation rate means bifacial panels retain measurably more output capacity — generating more energy in year 20 and year 25 than a polycrystalline system installed on the same date.

3. Dual Land Use for Crops and Energy Production

Agrivoltaic farming — the practice of combining solar energy generation with active crop cultivation on the same land — is one of the most compelling developments in agricultural sustainability. Bifacial panels are the technology of choice for these systems because their elevated installation height and dual-sided light capture are architecturally compatible with the open-frame structures required for equipment and crop access beneath the array.

Research into agrivoltaic systems has shown that certain shade-tolerant crops, including lettuce, spinach, herbs, and some berry varieties, can actually benefit from the partial shading provided by overhead solar panels — reducing heat stress and water evaporation during peak summer months. This creates a scenario where the solar array improves both energy output and crop conditions simultaneously.

4. Better Performance in Diffuse and Low-Light Conditions

Bifacial panels demonstrate stronger performance during overcast conditions, early morning, and late afternoon periods — times when direct irradiance is low but diffuse atmospheric light is still significant. The rear side of a bifacial panel captures scattered and diffuse light reflected from the ground and surrounding environment, contributing to energy generation even when direct sunlight is reduced. Learn more about the best solar panels for agricultural use.

For farms in northern latitudes or regions with frequent cloud cover, this characteristic meaningfully increases total annual energy production compared to monofacial alternatives. The additional hours of productive generation at the beginning and end of each day accumulate into thousands of additional kilowatt-hours annually across a full farm-scale installation.

Winter performance is where this advantage peaks. When snow covers the ground around and beneath a bifacial array, the near-total reflectivity of fresh snow — up to 90% — drives rear-side generation to its maximum potential. Northern dairy farms, grain operations, and livestock facilities that run year-round energy loads benefit most from this seasonal production behavior. For more information on how solar panels can be beneficial for agricultural use, check out best solar panels for farmers.

5. Higher Long-Term ROI Despite Premium Upfront Cost

The financial case for bifacial panels strengthens considerably when evaluated over a full system lifespan rather than at the point of purchase. Higher annual energy output, lower degradation rates, and longer effective service life combine to produce a total cost of ownership that frequently outperforms polycrystalline systems when calculated over 20 to 25 years.

When U.S. federal investment tax credits (ITC), USDA REAP grants, and state-level agricultural solar incentives are applied to bifacial installations, the effective payback period drops significantly — in many cases to 6 to 9 years on a system designed to produce for 30 years. That’s a 20-plus year window of near-zero-cost energy production, directly improving farm operating margins for the long term.

5 Key Benefits of Polycrystalline Panels for Agricultural Operations

Polycrystalline panels have powered farm operations for decades, and their continued relevance in modern agricultural solar planning is well-earned. While bifacial technology captures headlines for efficiency gains, polycrystalline systems deliver genuine, measurable value for specific farm scenarios where cost efficiency and installation simplicity take priority.

These five advantages explain why polycrystalline panels remain a practical, financially sound choice for a wide range of agricultural operations — particularly those with constrained capital budgets or existing roof-mounted installation opportunities.

• Lower cost per watt reduces initial capital requirements significantly
• Proven 25–30 year field performance with well-documented degradation rates
• Compatible with standard roof-mount and ground-mount racking systems
• Widely available from multiple manufacturers with strong warranty support
• Effective power output for core farm loads including irrigation, lighting, and refrigeration

For farms where the primary goal is reducing grid dependence at the lowest possible upfront cost, polycrystalline technology delivers exactly that — without compromising on reliability or operational lifespan.

1. Lower Upfront Cost Makes Entry More Accessible

Polycrystalline panels consistently price 10–20% below monocrystalline and bifacial alternatives on a cost-per-watt basis. For a mid-scale farm installation in the 50kW to 150kW range, that cost differential can represent a savings of $8,000 to $30,000 or more at the point of purchase — capital that stays in the farm operation rather than being committed to solar hardware. For farmers entering solar for the first time or operating on tight annual budgets, that accessibility is a decisive factor.

This cost advantage also makes it financially viable to deploy larger total system capacity from the same budget. A farmer who can afford 80kW of bifacial panels might be able to install 95–100kW of polycrystalline capacity for the same investment — resulting in higher total output despite the lower per-panel efficiency rating.

2. Reliable Performance in High-Temperature Climates

In consistently hot agricultural regions — including the southern United States, Mediterranean-climate farms, and tropical growing regions — polycrystalline panels deliver dependable performance without the premium cost of bifacial technology. Their temperature coefficient of approximately -0.40% per °C means output reduction in high heat is manageable and predictable, making energy modeling straightforward for farm energy planning in warm climates where rear-side albedo gains from bifacial panels would be minimal anyway.

3. Strong Shade Tolerance for Partially Obstructed Installations

Barn and shed rooftop installations frequently deal with partial shading from roof vents, chimneys, adjacent structures, and nearby trees. Polycrystalline panels paired with microinverters or DC power optimizers handle these partial-shade conditions effectively — ensuring that shading on one panel doesn’t disproportionately reduce output across the entire array. This makes polycrystalline technology a pragmatic choice for the irregular rooflines and mixed-shade environments common in working farm buildings.

The wide availability of polycrystalline panels in multiple wattage formats and physical dimensions also makes them easier to fit across varied roof geometries — an underrated practical advantage when designing systems for older barn structures or buildings with non-standard roof configurations.

4. 25-30 Year Lifespan Supports Long-Term Energy Planning

Polycrystalline panels carry manufacturer performance warranties of 25 to 30 years — matching the lifespan guarantees offered on bifacial systems. For farm energy planning purposes, this means a polycrystalline installation made today will still be generating meaningful power well into the 2050s. Most manufacturers guarantee that panels will retain at least 80% of their rated output at the 25-year mark, giving farm operators a reliable long-term energy production baseline for financial forecasting and loan servicing calculations.

The established track record of polycrystalline technology in real-world agricultural environments also provides something equally valuable: predictability. Decades of field data from farm installations across diverse climates confirm that polycrystalline panels perform consistently and age gracefully — with well-documented degradation curves that make 20-year energy yield projections highly accurate for financing and grant applications.

5. Cost-Effective Power for Irrigation and Barn Operations

Irrigation pumping systems, barn lighting, ventilation fans, refrigeration units, and feed processing equipment represent the core energy loads on most farm operations. Polycrystalline panels deliver clean, reliable electricity for all of these applications at the lowest installed cost of any crystalline silicon technology. A 50kW polycrystalline system powering a center-pivot irrigation operation, for example, can eliminate 40,000 to 60,000 kWh of annual grid electricity consumption — translating to $4,000 to $8,000 in annual energy cost savings depending on local utility rates.

Which Panel Type Suits Your Farm Best

There is no universally correct answer between bifacial and polycrystalline panels — the right choice is always farm-specific. The variables that matter most are installation location (roof vs. open ground), ground surface reflectivity, available capital, climate zone, and whether dual land use through agrivoltaics is a strategic priority. Matching panel technology to those specific conditions determines which system delivers superior value over the full operational lifespan.

When Bifacial Panels Are the Right Choice

Bifacial panels deliver their strongest value proposition in open, unobstructed ground-mount installations where the rear side of the panel has a clear view of a reflective surface below. The wider the installation, the higher the elevation of the mounting structure, and the more reflective the ground material, the greater the rear-side energy contribution — and the faster the premium upfront cost pays itself back through superior energy yield. Learn how to maximize energy and cut electric bills on farms with bifacial solar panels.

Northern farms are particularly well-positioned to benefit from bifacial technology. The combination of high-albedo snow cover during winter months and long summer days with diffuse morning and evening light creates an operating environment where bifacial panels consistently outperform their nameplate ratings. A dairy farm in Wisconsin or Minnesota, for example, might see rear-side gains of 25–35% during winter months alone — a production advantage that adds up to tens of thousands of kilowatt-hours over a full year.

Agrivoltaic operations represent another clear fit for bifacial technology. Farmers exploring dual-use land strategies — growing shade-tolerant crops beneath elevated solar arrays — need panels that can capture light from both direct overhead irradiance and ground-level scatter simultaneously. Bifacial panels are the only technology designed to do exactly that, making them the default choice for any serious agrivoltaic planning.

The long-term ROI case for bifacial panels also strengthens for farms with access to strong federal and state incentive programs. When USDA REAP grants cover up to 25% of installed system costs and the federal ITC reduces tax liability by 30%, the effective net cost of a bifacial system approaches polycrystalline pricing — while still delivering superior long-term energy output.

• Open ground-mount installations over gravel, sand, or snow-prone fields
• Northern climate farms with significant winter snow cover and high seasonal albedo
• Agrivoltaic operations where crop production continues beneath the solar array
• Large-scale energy users with high annual kWh consumption and strong incentive eligibility
• Operations planning 20+ year energy strategies where long-term ROI outweighs upfront cost sensitivity

When Polycrystalline Panels Make More Sense

Polycrystalline panels are the practical, financially sound choice for farms with existing roof space on barns, sheds, or processing buildings — particularly those in warmer southern climates where snow albedo gains are irrelevant and budget efficiency is the primary driver. They also suit operations deploying solar for the first time on a limited capital budget, farms needing to power specific high-draw loads like irrigation pumps without committing to a premium full-farm system, and agricultural businesses that need a proven, low-maintenance technology with a straightforward installation profile. When the farm environment doesn’t support meaningful rear-side light capture — dark soil, dense crop canopy at ground level, or shaded rooftop locations — the bifacial premium simply doesn’t pay back, and polycrystalline delivers equivalent practical value at a lower cost.

Conclusion: Bifacial Panels vs Polycrystalline Solar Panels: What is the Better Choice for the Farmer

For most farmers with open land and a long-term energy vision, bifacial panels represent the higher-performance investment — delivering more energy per panel, slower degradation over time, and the unique ability to support agrivoltaic crop-and-energy dual-use strategies that polycrystalline systems simply cannot replicate. However, for operations focused on rooftop installations, warm-climate deployments, or maximizing system size within a fixed budget, polycrystalline panels remain a proven, cost-effective, and highly reliable solution that will serve the farm well for three decades. The best choice is not the most technically advanced panel — it’s the one that best aligns with your farm’s specific terrain, climate, capital position, and energy goals.

Frequently Asked Questions

Farmers evaluating solar technology for the first time often encounter the same practical questions about installation, maintenance, land requirements, and financial incentives. The answers below address the most common concerns specific to agricultural bifacial and polycrystalline solar deployments.

Both panel types are mature, well-supported technologies with established installation ecosystems — meaning qualified agricultural solar installers are familiar with both systems and can provide accurate site-specific quotes based on your farm’s unique conditions.

Can I still use my tractor and farm equipment around bifacial solar installations?

Yes — bifacial solar panels installed on elevated ground-mount structures are specifically designed to allow vehicle and equipment access beneath the array. Standard agrivoltaic installations use mounting structures elevated 2 to 4 meters above grade, which is sufficient clearance for most standard tractors, combines, and irrigation equipment. Row spacing within the array can also be engineered to accommodate equipment turning radiuses, ensuring full operational access to the land beneath and between panel rows without disrupting energy generation.

Do polycrystalline panels require more maintenance than bifacial panels on a farm?

Neither panel type requires intensive maintenance under normal agricultural operating conditions. Both bifacial and polycrystalline panels benefit from periodic cleaning — removing dust, pollen, bird droppings, and crop debris that accumulate on the front surface and reduce light transmission — typically two to four times per year depending on local conditions. Bifacial dual-glass panels may require slightly less frequent backsheet inspection since glass is more resistant to UV degradation and cracking than polymer backsheets used in some polycrystalline models. Both panel types should have electrical connections, inverter performance, and mounting hardware inspected annually by a qualified solar technician.

How much land do I need to install either panel type on my farm?

As a general rule, a 1-megawatt ground-mounted solar installation requires approximately 4 to 6 acres of land, depending on panel efficiency, row spacing, and mounting angle. For smaller farm-scale systems, a 100kW polycrystalline installation typically requires roughly 0.5 to 0.7 acres of dedicated ground space, while a 100kW bifacial agrivoltaic installation — designed with elevated panels and crop access — may use 1 to 1.5 acres but with active crop production continuing beneath the array, effectively neutralizing the land use cost.

Rooftop installations eliminate the land requirement entirely. A standard 10,000-square-foot barn roof can accommodate 80kW to 120kW of polycrystalline capacity depending on roof orientation, pitch, and shading conditions — making rooftop deployment the most land-efficient option available for farms with suitable building structures.

Can bifacial solar panels be used in agrivoltaic farming setups?

Bifacial panels are ideally suited for agrivoltaic farming — in fact, they are the preferred technology for most serious agrivoltaic installations precisely because their dual-sided energy capture aligns with the elevated, open-frame mounting structures that agrivoltaic systems require. When panels are elevated 2 to 4 meters above the crop canopy, they receive direct sunlight from above and reflected and diffuse light from the crop surface and surrounding soil below — exactly the operating environment bifacial panels are engineered to exploit.

Research into agrivoltaic systems consistently shows that shade-tolerant crops maintain commercially viable yields beneath elevated solar arrays, and in some cases actually benefit from the partial shade provided during peak summer heat. Crops including lettuce, spinach, kale, herbs, strawberries, and certain root vegetables have demonstrated strong performance in agrivoltaic environments — while the farm simultaneously generates solar electricity from the same land area.

The economic case for bifacial agrivoltaic installations is particularly compelling when land values are high and agricultural margins are tight. Converting a single acre into a dual-income asset — generating both crop revenue and solar energy income — can meaningfully improve total farm profitability without requiring additional land acquisition.

Structurally, agrivoltaic bifacial systems require more robust mounting infrastructure than standard ground arrays due to the elevated panel height and the need for equipment clearance beneath. This adds to upfront installation costs, but the dual-use land revenue typically justifies that additional investment within the first several years of system operation.

• Shade-tolerant crops — lettuce, spinach, herbs, kale — perform well beneath bifacial agrivoltaic arrays
• Strawberries and berry crops benefit from heat stress reduction under partial panel shading
• Root vegetables including carrots and beets maintain strong yields in agrivoltaic environments
• Grazing livestock can utilize the land beneath elevated bifacial arrays for pasture — a common dual-use strategy on sheep and goat farms
• Pollinator habitats and cover crops can be maintained beneath the array to support ecosystem health and soil quality simultaneously

What government incentives are available for farmers switching to solar in 2024?

The USDA Rural Energy for America Program (REAP) is the most directly relevant federal incentive for agricultural solar installations. REAP provides grants covering up to 25% of eligible project costs and loan guarantees for the remaining balance — making it one of the most powerful financial tools available to farmers investing in solar energy. Applications are accepted on a rolling basis, and both bifacial and polycrystalline installations qualify provided they meet the program’s agricultural business eligibility criteria.

The Federal Investment Tax Credit (ITC), currently set at 30% of total installed system cost under the Inflation Reduction Act, applies to farm solar installations and can be combined with REAP grants to dramatically reduce effective system costs. For a $200,000 bifacial installation, combining a 25% REAP grant with the 30% ITC effectively reduces the farmer’s net investment to approximately $90,000 — making the premium bifacial system financially comparable to an unsubsidized polycrystalline installation in terms of effective out-of-pocket cost.

Many U.S. states offer additional agricultural solar incentives including property tax exemptions on solar equipment, net metering programs that credit farm energy accounts for surplus electricity exported to the grid, and state-level grant programs specifically targeting agricultural renewable energy adoption. Farmers should consult with a qualified agricultural solar installer and tax professional to identify the full stack of available incentives in their state before finalizing technology selection or system sizing decisions. For more insights, explore how solar panels work on farms.