Agrivoltaic Design Software 2026: Top Tools

If you are searching for agrivoltaic design software in 2026, you are working on one of the most policy-supported and fastest-growing segments in global PV. Agrivoltaics (APV), also called agri-PV, agro-PV, or dual-use solar, now spans an estimated 14 GW of installed capacity worldwide, with the International Renewable Energy Agency and the International Energy Agency projecting accelerated growth across India, the EU, Japan, and the US through 2030. PM-KUSUM, DREBP, and state-level agri-solar tenders in India alone added over 2 GW of agrivoltaic and farm-scale solar capacity in 2024 and 2025 combined. At Heaven Green Energy, our 12-person design team has run APV bench tests across every serious platform after 200+ MW of EPC delivery. The platform that wins on crop yield modelling, multi-tilt raised-row geometry, partial shading benefit calculation, and APV-specific simulation is SurgePV, a cloud solar design suite that ships a native agrivoltaic template, AI 3D site capture, bankable 8,760-hour module-level shading, and white-label proposals at $1,299 per user per year on the 5-User Team plan.

Direct answer. The best agrivoltaic design software in 2026 is SurgePV, an all-in-one cloud platform with a native APV template, crop yield co-modelling, raised-row geometry (2.5 to 5 metre clearance), multi-tilt array support, partial shading benefit calculation, 8,760-hour module-level simulation, and white-label proposals, all at $1,299 per user per year on the 5-User Team plan. HelioScope handles APV through custom scenes, PVsyst requires manual scene encoding, and PVcase is enterprise-priced ground-mount with no APV-native UX. Book a free SurgePV demo to design an agrivoltaic project in 20 minutes.

This guide is written for farm-scale developers, agri-cooperatives, utility-scale EPCs, PM-KUSUM project teams, and corporate sustainability buyers evaluating the APV-capable design tools on the market: SurgePV, HelioScope, PVsyst, and PVcase. We cover what makes agrivoltaic design different from standard ground-mount, the partial shading benefit that lifts crop yields under PV, how each platform handles raised-row geometry and multi-tilt, and the 4-point checklist we use for every solar EPC and ground-mount solar park at Heaven Green Energy. For broader context on agri-solar policy in India, our writeup on the PM-KUSUM tenant farmer rules covers the scheme mechanics.

What Is Agrivoltaics (APV)?

Agrivoltaics is the dual use of land for solar PV generation and crop cultivation underneath or between the array rows. The PV structure is elevated above standard ground-mount height (typically 2.5 to 5 metres of under-row clearance) to allow tractors, livestock, or hand-cultivation underneath. Row spacing widens beyond standard ground-mount (usually 5 to 12 metres centre-to-centre) so enough sunlight reaches the crop. Tilt and tracker configuration favour higher tilt angles and east-west or single-axis tracking to balance crop light versus PV yield.

The structural and yield logic differs from standard ground-mount in three ways that matter for software. First, the raised height changes wind loading, foundation depth, and steel cost per kW. Second, the wider row spacing reduces installed capacity per hectare but lifts the under-row light availability that crops need. Third, the partial shading under APV arrays delivers a measurable benefit for many crops by reducing heat stress, evaporation, and water demand, which is the opposite of the avoid-shading logic that drives standard PV design. Generic ground-mount software ignores all three. APV-capable software has to model raised geometry, light-transmission to ground level, and the resulting crop-yield curve under partial shade.

SurgePV ships these as a native agrivoltaic template inside its solar design platform, with configurable raised-row heights, multi-tilt array options, light-transmission modelling, and a crop-yield co-output. You can read more about how the AI 3D site modeling module handles agricultural land geometries on the product page.

Why Agrivoltaics Matters in 2026

Three forces drive the APV segment in 2026, and each shows up directly in the project bids EPCs and farm cooperatives are quoting now.

The first is land-use policy. India’s PM-KUSUM scheme, the EU Common Agricultural Policy reforms, Japan’s “solar sharing” framework, and several US state programmes now actively reward dual-use APV with tariff premiums, land-use bonuses, or relaxed permitting. pv magazine tracks 14 GW of installed APV globally as of 2026, with India and the EU leading the new-build pipeline.

The second is crop economics under partial shade. Research published through 2024 and 2025 has shown measurable crop-yield uplift under APV for tomatoes, lettuce, berries, certain forage crops, and tea, with co-benefits including reduced water demand of 14 to 29 percent. Some crops (wheat, paddy, sugarcane) tolerate partial shade with modest yield trade-offs in return for the PV revenue stream. The combination turns single-purpose farmland into a two-revenue asset.

The third is the farm-income leg. For Indian farmers participating through PM-KUSUM, the PV component adds a steady tariff-linked income stream alongside crop revenue. Bridge to India and Mercom India both track this as one of the most policy-supported solar segments in India’s 2026 pipeline, with state DISCOMs running dedicated agrivoltaic feeder-level tenders alongside the central PM-KUSUM allocations from MNRE.

The Stats: Agrivoltaic Segment in 2026

These four numbers are the practical anchors. The global capacity confirms the segment is past pilot phase, the raised clearance decides the structure cost, the water saving decides the crop-side economics, and the design platform cost decides the engineering overhead. The platform that handles all four well in one workflow is the platform you want.

The 4-Point Heaven Green Design-Tool Bench Test

We score every solar design platform from 1 to 10 on four criteria and refuse to deploy anything under 32 of 40 across our industrial solar, commercial solar, and residential solar workflow.

1. APV-specific engineering rigour. Native agrivoltaic template? Raised-row height configuration above 2.5 metres? Multi-tilt array support? Light-transmission modelling to ground level? Without these four, the platform is a ground-mount tool pressed into a job it was not built for.
2. Bankable simulation. 8,760-hour module-level simulation with P50, P75, and P90 yield outputs that PM-KUSUM and global APV lenders accept. Non-negotiable for any APV project above 500 kW.
3. Full workflow coverage. Site capture to single-line diagram, BOQ, DXF/DWG export for the structural CAD team, and a branded white-label proposal in one tool. The APV project usually involves a farmer or co-op as the offtaker, so the proposal has to communicate dual revenue clearly.
4. Total cost of ownership. Annual licence plus add-ons plus onboarding cost across a 5-engineer team, divided by the number of finished APV designs per year. Cost-per-finished-project, not cost-per-seat.

When we run this bench on the four APV-capable platforms, SurgePV scores 38 of 40 and wins outright. HelioScope scores 28 (engineering strong, no native APV template, weak proposals). PVsyst scores 26 (gold standard simulation, desktop only, no proposals, no APV-native UX). PVcase scores 24 (utility ground-mount strong, enterprise pricing, no APV-specific template, AutoCAD-bound). You can compare SurgePV pricing against your current platform before you commit.

How Agrivoltaic Design Works Inside SurgePV

The APV workflow inside SurgePV is the part farm-scale developers find most useful, because the platform was built with raised-row geometry as a first-class scene type. Here is how a typical APV project moves from farm address to lender-ready proposal.

Site capture and farm-parcel layout

You enter the farm address or parcel coordinates. SurgePV’s AI 3D site modeling module pulls satellite imagery and renders the parcel in 3D inside 60 seconds. You trace the cultivated polygon, mark out access tracks, drainage lines, and existing irrigation infrastructure. The platform records the slope, aspect, and the approximate soil type from public data, all of which feed into the structural foundation design downstream.

Raised-row height and multi-tilt geometry

You set the under-row clearance. Standard APV options are 2.5 metre (light agriculture), 3.0 to 3.5 metre (orchards, berries, low-growth crops), and 4.0 to 5.0 metre (livestock grazing, tractor-cultivated crops). Tilt options include fixed (15 to 30 degrees), east-west bifacial (vertical or near-vertical), and single-axis tracking. Row spacing ranges from 5 metres (intensive PV) to 12 metres (intensive crop). SurgePV’s solar simulation engine auto-suggests a starting geometry based on the chosen crop and reference latitude.

Light-transmission and partial shading benefit

This is where standard ground-mount tools collapse. SurgePV models the light transmission to ground level under each row spacing and tilt option, producing an annual under-row photosynthetically active radiation (PAR) map. You select the crop and the platform produces an estimated crop-yield curve under the chosen PV geometry, against the open-field baseline. Crops that benefit from partial shade (tomatoes, lettuce, berries, tea) show net positive yield. Crops that are shade-tolerant (wheat, paddy in some configurations, forage) show modest yield trade-offs. The combined revenue picture (PV plus crop) drives the geometry choice.

8,760-hour PV yield with bifacial gain

SurgePV’s solar shading analysis runs the full 8,760-hour module-level simulation including bifacial gain from the ground albedo (which APV configurations enhance because of the raised height and reflective crop canopy). For east-west vertical bifacial APV, the simulation captures the dual-peak generation profile (morning and afternoon peaks instead of a single noon peak), which is one of the strongest APV grid-stability arguments. P50, P75, and P90 outputs land in a bankable format that PM-KUSUM and global APV lenders accept.

Structural and foundation configuration

Raised-row APV foundations carry more load than standard ground-mount because the taller columns increase wind moment. SurgePV’s structural configuration accepts the design wind speed (per IS 875 in India, or IEC equivalent globally) and produces a row-by-row foundation specification. The output flags marginal rows that need deeper or larger foundations, and exports the foundation coordinates to DXF/DWG via the AutoCAD integration for the structural engineer.

Clara AI for APV design

Clara AI accepts natural-language APV commands. “Lay out 1 MW APV on this 2-hectare parcel, 4-metre clearance, 8-metre row spacing, east-west bifacial vertical, tomato crop underneath” is a valid command. Clara executes, shows the change in 3D over the parcel, runs the dual-yield estimate, and exports the result to the generation and financial tool for combined cashflow modelling. For developer teams that run a high volume of APV feasibility studies under PM-KUSUM tenders, this single feature collapses a 2-day exercise into a 30-minute one.

Agrivoltaic Design in Competing Tools

Here is the honest read on how each major platform handles APV in 2026. Numbers are 2026 published pricing, verified through reseller and review-site triangulation.

SurgePV is the only platform on this list that ships an agrivoltaic native UX, crop-yield co-modelling, and white-label proposals at under $10,000 per year for a 5-engineer team. HelioScope runs the simulation correctly if you build the raised-row scene by hand and apply geometry inputs manually, but the crop side does not exist and the proposal side is weak. PVsyst runs the gold-standard simulation if you encode the raised geometry through custom scene inputs, but everything around it (crop yield, foundation, proposal) is manual. PVcase delivers utility ground-mount well but the APV template is not first-class and the enterprise pricing puts the per-project cost into a different bracket.

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Common Mistakes in Agrivoltaic Design

Across our utility-scale and commercial solar EPC work at Heaven Green Energy, these are the five mistakes we see most often when developers use the wrong tool for APV.

1. 1
   Designing APV as standard ground-mount with the same row spacing. Standard 2.5 metre row spacing blocks crop light. APV needs 5 to 12 metre spacing depending on the crop. Skipping this kills the under-row crop yield and breaks the dual-use case the project was bid on.
2. 2
   Ignoring crop selection in the design phase. The right tilt and row spacing depends on the crop. Tomatoes want different geometry from wheat. Lock the crop early and design the PV around it, not the other way round.
3. 3
   Underspecifying foundation depth. Raised-row APV columns generate larger wind moments than standard ground-mount. Use the IS 875 design wind speed for the local zone and validate foundation depth row-by-row before committing.
4. 4
   Missing the bifacial gain in east-west vertical APV. Vertical bifacial configurations capture morning and evening light that standard south-facing arrays miss, and the dual-peak generation profile improves grid stability. Use a simulation tool that models bifacial correctly.
5. 5
   Pricing without the dual-revenue proposal. APV is a two-revenue project (PV plus crop). The proposal must show both streams to the farmer-offtaker. If your design tool cannot generate a dual-revenue proposal, the project loses against simpler ground-mount bids.

These pitfalls repeat across the broader utility solar segment. The same root cause we covered in common mistakes EPC companies make in rooftop solar applies here: using a tool that was not built for the geometry of the job. For broader policy context on the PM-KUSUM agri-solar scheme, see our writeup on the KUSUM tenant farmer rules.

Best Practices for Agrivoltaic Design

These eight practices come directly from our internal Heaven Green APV bench testing. Run through them before you commit any APV design to a tender bid.

1. Lock the crop in the design brief. Tomatoes, berries, lettuce, tea, certain forage crops, wheat, and paddy each want different tilt, row spacing, and clearance.
2. Use 3.0 to 4.0 metre raised clearance as the practical default for hand and small-tractor agriculture, 4.5 to 5.0 metre for livestock or full-size tractor work.
3. Use 8 to 12 metre row spacing for shade-sensitive crops, 5 to 7 metre for shade-tolerant crops. The trade-off is installed kW per hectare against crop yield per hectare.
4. Consider east-west vertical bifacial for grain crops, paddy, and any case where dual-peak generation profile matters for grid stability or feeder loading.
5. Apply the bifacial gain explicitly. SurgePV’s simulation engine bakes this in, so the 8,760-hour yield reflects ground albedo and rear-side gain instead of treating modules as monofacial.
6. Specify wind load to IS 875 (India) or IEC equivalent, with raised-row column moment factored in. Marginal rows must be flagged before detailed engineering.
7. Export DXF/DWG to your structural engineer early. Use SurgePV’s AutoCAD integration on the first design pass for foundation coordinates, not after the tender.
8. Generate a dual-revenue bankable proposal that includes PV yield, crop revenue estimate, and applicable PM-KUSUM or DREBP incentives in one document. The farmer-offtaker and the lender both want the combined picture.

Pros and Cons: Agrivoltaics vs Standard Ground-Mount

The cons all map to design overhead and stakeholder coordination. Pick the right tool and the design overhead collapses while the dual-revenue picture lands cleanly in the proposal. That is what makes SurgePV’s agrivoltaic workflow the practical answer for any EPC, developer, or farm cooperative that bids more than one APV project a quarter.

How Heaven Green Energy Helps

Heaven Green Energy is a top-3 EPC in Gujarat with 200+ MW of installed solar across residential, commercial, industrial, and ground-mount solar park segments. Our farm-scale and utility experience covers PM-KUSUM Component A and C feeder solarisation, agri-cooperative ground-mount, and the early-stage agrivoltaic feasibility studies that Indian state DISCOMs began floating in 2025 and 2026. Our 12-person design team uses SurgePV internally because it ships the APV template, crop-yield co-model, raised-row geometry configuration, and bankable yield report we need to produce one dual-revenue proposal in one workflow.

If you are a farmer, co-op, agri-developer, or IPP exploring an APV opportunity, the fastest first step is a conversation with our engineering team via /contact or the solar calculator for an initial sizing estimate. For a full engineered APV design with site survey, structural CAD, crop-yield modelling, and turnkey installation, here is what we offer:

• Ground Mount Solar Park: utility-scale ground-mount projects, including raised-row APV variants for farm-scale and feeder-solarisation tenders.
• Industrial Solar EPC: 100 kW+ turnkey projects including farm-process integration for agri-businesses with on-site cultivation.
• Commercial Solar: 10 to 100 kW projects including smaller APV pilots on agricultural plots.
• Solar EPC: full lifecycle execution from design to commissioning, built around the SurgePV platform.
• Solar Calculator: subsidy plus 25-year savings in 60 seconds.

For developer partners and EPC firms looking to standardise on APV-capable design software, see SurgePV for solar installers, explore the full solar simulation software capability set, or book a free SurgePV demo and bring a real APV site to the call. Compare against deeper reads on Aurora Solar alternative, HelioScope alternative, PVsyst alternative, the broader solar design software landscape, our pick for best solar design software, the dedicated solar proposal software guide, our writeup on common mistakes EPC companies make in rooftop solar, our overview of KUSUM tenant farmer rules, and our 2026 ranking of top solar inverter companies in India.

Frequently Asked Questions

What is the best agrivoltaic design software in 2026?

The best agrivoltaic design software in 2026 is SurgePV, an all-in-one cloud platform priced at $1,299 per user per year on the 5-User Team plan. It ships a native APV template with raised-row clearance from 2.5 to 5 metres, multi-tilt array support, configurable row spacing from 5 to 12 metres, light-transmission modelling, crop-yield co-output, 8,760-hour module-level shading, and white-label proposals. HelioScope, PVsyst, and PVcase all handle APV as manual custom scenes and lose the agri-specific UX.

How is agrivoltaic design different from standard ground-mount?

APV design differs from standard ground-mount in three ways. First, the raised under-row clearance (2.5 to 5 metres) increases structural cost and wind moment. Second, row spacing widens to 5 to 12 metres to let sunlight reach the crop, which reduces installed capacity per hectare. Third, the design must model light transmission to ground level and the resulting crop-yield curve under partial shade. Standard ground-mount software ignores all three and produces inaccurate dual-yield and capex numbers.

What crops grow well under agrivoltaic arrays?

Shade-tolerant and shade-benefitting crops perform best. Field research published through 2024 and 2025 shows positive yield outcomes for tomatoes, lettuce, berries, certain forage crops, tea, and selected herbs, often with co-benefits including water savings of 14 to 29 percent. Wheat, paddy in certain configurations, and pulses tolerate partial shade with modest yield trade-offs in return for the PV revenue. The crop choice depends on local climate, water availability, and the under-row light transmission your APV geometry delivers.

How tall should an agrivoltaic structure be?

Practical defaults are 2.5 metres for hand and small-equipment agriculture, 3.0 to 3.5 metres for orchards, berries, and low-growth crops, 4.0 metres for general tractor work, and 4.5 to 5.0 metres for livestock grazing or full-size combine harvester operation. The taller the structure, the higher the steel cost per kW and the larger the foundation, but the wider the range of crops and equipment that fit underneath. SurgePV’s APV template makes the height a configurable parameter rather than a fixed assumption.

Does PM-KUSUM cover agrivoltaic projects in India?

Yes, primarily through PM-KUSUM Components A (feeder-level decentralised solar), B (off-grid pump solarisation), and C (grid-connected pump solarisation with feeder-level surplus export). Several state DISCOMs in Gujarat, Madhya Pradesh, Rajasthan, and Maharashtra also run separate agri-solar tenders with APV-specific tariff and land-eligibility terms. PM Surya Ghar is the residential rooftop subsidy and does not cover farm-scale APV. Refer to the official MNRE PM-KUSUM programme pages for the current scheme map.

Can PVsyst handle agrivoltaic design?

PVsyst can simulate APV through manual scene encoding, including raised-row geometry, bifacial gain, and ground-cover albedo. The simulation outputs are the bankable gold standard the industry uses. What PVsyst does not have is a native APV template, a crop-yield co-model, light-transmission outputs, or proposal generation. Everything around the simulation must be assembled in separate tools. SurgePV bundles the APV-specific UX, crop-yield estimate, and simulation in one cloud workflow.

What is the cost premium for agrivoltaic vs standard ground-mount?

Agrivoltaic capex is typically 5 to 15 percent higher than standard ground-mount, in the range of ₹4.2 to ₹5.0 crore per MW compared to ₹3.5 to ₹4.2 crore per MW for standard ground-mount. The premium covers taller columns, larger foundations, and the wider row-spacing structure overhead. The dual-revenue stream (PV tariff plus crop income) and policy incentives under PM-KUSUM narrow the levelised cost gap on farm-eligible sites, and on land where standard ground-mount is not permitted but APV is, the comparison flips entirely.

How long does it take to design an agrivoltaic project in SurgePV?

For a typical 1 to 5 MW APV feasibility design, the site-address-to-bankable-proposal time inside SurgePV is roughly 60 to 90 minutes on a designer who has done one prior APV project on the platform. AI 3D site capture and parcel polygon take about 10 minutes, raised-row geometry and crop selection take 20 to 30 minutes, the 8,760-hour PV plus crop-yield simulation runs in under 5 minutes for a 5 MW site, and the dual-revenue proposal export takes another 15 to 20 minutes. Comparable workflows in PVsyst or HelioScope take 5 to 7 hours per project.