Expert Verified — Written by Keyur Rakholiya, SurgePV Editorial. 10 tools reviewed for agrivoltaic design work. Pricing verified July 2026. Based on 1+ GW of delivered projects and ground-mount engineering across 50+ countries.
Agrivoltaics is moving from pilot projects to real pipelines. Global agrivoltaic capacity reached roughly 2.8 GW by 2020, and research from the University of Arizona and others keeps showing dual land use can work. Panels over crops can cut water demand and, in heat stress, raise yields, according to research summarized by the US Department of Energy and NREL.
The engineering problem is software. Standard rooftop tools assume a fixed surface and dense packing. An agrivoltaic array needs 3 to 5 m clearance, 6 to 12 m row pitch for tractors, and bifacial gain from crop albedo. Pick the wrong tool and you either fake these inputs or skip them.
We reviewed 10 tools against actual agrivoltaic workflows: elevated fixed-tilt, pasture grazing arrays, and tracker-based crop systems. Every tool gets honest strengths and honest limits. That includes our own product.
Quick Picks
| Pick | Tool | Why |
|---|---|---|
| Best for utility-scale agrivoltaic plants | RatedPower | Automated layout, topography, BESS, batch design |
| Best for CAD-based detailed engineering | PVCase Ground Mount | Terrain-following trackers, grading, PVsyst export |
| Best for bankable bifacial yield | PVsyst | The lender standard, deep bifacial and albedo modeling |
| Best for elevated structures and 3D shading | PV*SOL | Hourly 3D shading on custom geometry, mid-price |
| Best for fast C&I ground-mount iteration | HelioScope | Module-level simulation, DNV validated |
| Best free research tool | NREL SAM | Open-source, bifacial plus deep financial models |
How We Evaluated
We scored each tool on 5 criteria. Weighting reflects what dual-use projects actually need.
| Criterion | Weight | What We Measured |
|---|---|---|
| Ground-mount depth | 25% | Elevated structures, row pitch control, terrain handling |
| Yield accuracy | 25% | Bifacial modeling, albedo inputs, shading realism |
| Crop compatibility | 20% | Clearance and spacing control, hourly light maps |
| Engineering output | 15% | SLDs, cable sizing, export to bankable tools |
| Cost fit | 15% | Price vs. typical agrivoltaic project size |
At-a-Glance Comparison
| Tool | Best For | Starting Price | Free Trial | Cloud | Standout |
|---|---|---|---|---|---|
| RatedPower | Utility-scale plants | Custom | Demo only | Yes | Layouts in under 60 seconds |
| PVCase Ground Mount | CAD engineering | Custom | 2 weeks | No (AutoCAD) | 80 to 90% design time reduction |
| PVsyst | Bankable yield | ~$775/yr | 30 days | No (Windows) | The bankability standard |
| PV*SOL | Elevated 3D shading | €845/yr | 30 days | No (Windows) | Hourly module-level 3D shading |
| HelioScope | C&I iteration | $159/mo | Demo only | Yes | Within 1% of PVsyst |
| SurgePV | Small farm canopies | $1,899/yr (3 users) | Yes | Yes | Shadow analysis plus financials in 1 flow |
| NREL SAM | Free research modeling | $0 | Free forever | No | Open-source bifacial + economics |
| SketchUp + Skelion | Custom structure 3D | $349/yr + plugin | Free tier | Partial | 4-click panel layouts on any geometry |
| OpenSolar | Free small projects | $0 | Free forever | Yes | $0 design plus proposals |
| PVWatts | First-pass screening | $0 | Free forever | Yes | Bifacial and albedo inputs in v8 |
1. RatedPower — Best Agrivoltaic Tool for Utility-Scale Plants
RatedPower is the automation leader for large ground-mount plants. Over 4,300 solar professionals across 130+ countries use it, and the platform has simulated more than 2,000 GW of capacity.
What It Does Well
Speed is the headline. The platform generates full plant layouts in under 60 seconds, and batch mode runs up to 10 design simulations at once. For an agrivoltaic developer screening multiple parcel configurations, that compression matters.
The topography engine handles real farmland. It grades terrain, places tracker or fixed-tilt blocks, and sizes cables, combiner boxes, and substations automatically. You can set wide row pitch and custom block geometry to match machinery lanes, then iterate on ground coverage ratio (GCR) until the agronomy and the energy math both work.
RatedPower holds a 4.5 out of 5 G2 rating across 252 reviews. Customers include Iberdrola, Engie, BayWa, and AES. The company reports design time reductions up to 90% versus traditional workflows.
Our Take: If your agrivoltaic pipeline is 5 MW and up, RatedPower pays for itself in engineering hours. It will not model crop light under the array, so pair it with agronomic analysis before finalizing row pitch.
Where It Falls Short
There is no crop or light-transmission modeling. You define spacing as an energy tradeoff, not an agronomic one. Pricing is custom and enterprise-oriented, which prices out small farm projects. Bifacial modeling is solid but PVsyst remains the reference for lender reports.
Key Features
- Automated layout with topography and earthworks
- String configuration, cable sizing, and SLDs
- AC-coupled BESS and hybrid system design
- Batch design with up to 10 simultaneous simulations
Pricing
- Basic, Advanced, Enterprise: Custom pricing, all tiers include unlimited users and projects
- Free trial: Demo and product tour only
Who Should Use RatedPower
Strong fit: Developers and EPCs designing agrivoltaic plants above 5 MW. Probably not right for: Sub-MW farm projects and teams needing crop-light simulation.
2. PVCase Ground Mount — Best Agrivoltaic Tool for CAD-Based Detailed Engineering
PVCase is the AutoCAD-native choice when an agrivoltaic project moves from feasibility to construction documents. The company serves 1,800+ customers in 80+ countries.
What It Does Well
Ground Mount automates the parts of detailed design that eat weeks. Terrain-following tracker placement, civil grading analysis, custom stringing, and voltage drop calculations all run inside AutoCAD. Users report 80 to 90% design time reductions, with 90 hours saved per design in company case data.
For agrivoltaics, the value is precision. You can define exact clearance heights, non-standard row pitch, and exclusion zones for irrigation or farm roads. The layout stays editable as agronomy requirements shift. Export to PVsyst (.DAE, .PVC) keeps the yield workflow clean.
PVCase holds a 4.7 out of 5 G2 rating across 397 verified reviews. The PVcase Yield module adds ray-traced shading with bifacial accuracy validated by Imec and EnergyVille.
Our Take: PVCase is the right tool when the construction drawing set is the deliverable. Budget for AutoCAD licenses and Windows workstations on top of the software quote.
Where It Falls Short
It is an AutoCAD plugin, so it runs on Windows only and not on virtual machines. Pricing is custom and reviewers cite cost as a barrier for small businesses. Like every tool here, it has no native crop modeling.
Key Features
- Terrain-following tracker placement with grading analysis
- Custom stringing and voltage drop calculations
- Direct PVsyst and PVcase Yield export
- Native AC/DC-coupled BESS support
Pricing
- Ground Mount: Custom quote only
- Free trial: 2 weeks; free licenses for students and educators
Who Should Use PVCase Ground Mount
Strong fit: EPCs and engineering firms producing construction-grade agrivoltaic plan sets. Probably not right for: Small farms, Mac shops, and early-stage screening.
3. PVsyst — Best Agrivoltaic Tool for Bankable Bifacial Yield
PVsyst is not a layout tool. It earns this rank because financed agrivoltaic projects live or die on its yield reports, and its bifacial engine is the deepest available.
What It Does Well
Bifacial modeling is where PVsyst separates. You control albedo, structure shading, row pitch, and height above ground, all of which drive rear-side gain on elevated arrays. For agrivoltaics, where clearance of 3 to 5 m and vegetation albedo change the math, this precision is not optional.
The uncertainty analysis is the lender requirement. P50, P90, P95, and P99 outputs come standard, and most financiers ask for exactly that. G2 reviewers rate its design and engineering depth at 9.4 out of 10.
Version 8 adds unlimited orientations and sub-hourly clipping correction. The component database covers 14,000+ modules and 4,500+ inverters, so bifacial module selection is rarely a blocker.
Our Take: Run PVsyst for the numbers and a layout tool for the geometry. Its 3D scene builder handles elevated structures, but building them is slow compared with dedicated layout software.
Where It Falls Short
The interface is dated and ease of use scores 7.1 out of 10 on G2. It runs on Windows only with no cloud collaboration. There is no automated layout generation, and the learning curve is steep for non-engineers.
Key Features
- Bifacial gain modeling with albedo and height inputs
- P50/P90/P95/P99 bankable uncertainty analysis
- 14,000+ modules and 4,500+ inverters in the database
- Detailed loss modeling for soiling, degradation, and mismatch
Pricing
- Professional: CHF 700/year (~$775), volume discounts from 2 licenses
- Free trial: 30 days, full features
Who Should Use PVsyst
Strong fit: Engineers producing lender-grade yield reports for financed agrivoltaic projects. Probably not right for: Sales teams and anyone needing fast layout automation.
4. PV*SOL — Best Agrivoltaic Tool for Elevated Structures and 3D Shading
PV*SOL from Valentin Software has modeled PV systems since 1998. Its 3D shading engine makes it the strongest mid-priced option for elevated agrivoltaic structures.
What It Does Well
The 3D environment imports custom geometry via DXF, 3DS, DAE, and LIDAR data. You can build an elevated mounting structure, set it over a field, and run module-by-module, hour-by-hour shading for a full year. That hourly shading map is the closest mainstream proxy for crop light analysis.
The simulation runs at 8,760-hour resolution with Meteonorm 9, PVGIS, Solcast, and NASA-SSE climate data. The 2026 component database holds 21,000+ modules, 5,100+ inverters, and 1,900+ battery systems.
Pricing sits at €845 per year for Premium, well below enterprise platforms. A 30-day full-feature trial and a €90 student version lower the barrier further.
Our Take: PV*SOL is the sweet spot for 100 kW to 5 MW agrivoltaic projects that need real 3D shading without enterprise pricing. Export the hourly shading data if your agronomist wants light maps.
Where It Falls Short
The 3D mode caps at 7,500 mounted modules, which rules out large utility plants. It is Windows-only desktop software with no cloud collaboration. Ground-mount layout automation is thin compared with RatedPower or PVCase.
Key Features
- Hourly 3D shading on imported custom structures
- 8,760-hour simulation with 5 climate data sources
- 21,000+ module and 5,100+ inverter database
- Financial analysis with NPV, IRR, and payback
Pricing
- Premium 2026: €845/year (plus VAT)
- Standard 2025: €585/year; Student: €90/year
- Free trial: 30 days, full features
Who Should Use PV*SOL
Strong fit: Engineering consultants and midsize EPCs designing elevated agrivoltaic systems up to about 5 MW. Probably not right for: Utility-scale plants and Mac-based teams.
5. HelioScope — Best Agrivoltaic Tool for Fast C&I Ground-Mount Iteration
HelioScope, now part of Aurora Solar, is the fastest path from concept to credible yield for commercial-scale ground mounts. It suits the 100 kW to 5 MW agrivoltaic band.
What It Does Well
Iteration speed is the draw. Users report design cycles 4x faster than desktop tools. For agrivoltaics, where you will test many GCR and row-pitch variants against crop requirements, that loop speed is the feature.
Accuracy is validated. DNV found HelioScope within 1% of PVsyst, which makes its outputs credible in front of investors. The module-level simulation handles ground mounts up to 15 MW, and P50 estimates come on the Basic plan.
The 3D field layout accepts custom row spacing and tilt, so elevated fixed-tilt agrivoltaic arrays model cleanly. Financial outputs cover NPV, IRR, payback, and LCOE on the Pro plan.
Our Take: HelioScope is the practical choice for C&I agrivoltaic feasibility. Its tracker modeling is standard single-axis, so agronomic tracker algorithms need manual workarounds.
Where It Falls Short
No native battery modeling, so storage-paired farm systems need an integration. Residential-scale work under 15 kW feels clumsy. Performance lags past 10,000 modules, and financial analysis scores 5.2 out of 10 on G2.
Key Features
- Module-level simulation within 1% of PVsyst
- Custom row spacing, tilt, and ground-mount layouts
- P50/P90 production estimates
- Financial calculator with NPV, IRR, payback, and LCOE
Pricing
- Basic: $159/month, 1 user, 10 projects, 1.25 MW cap
- Pro: $259/month, adds LIDAR, P90+, financials, proposals
- Free trial: Demo only
Who Should Use HelioScope
Strong fit: C&I developers iterating on agrivoltaic layouts between 100 kW and 5 MW. Probably not right for: Utility-scale plants, storage-heavy designs, and tiny farm systems.
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6. SurgePV — Best Agrivoltaic Tool for Small Farm Canopies and Financials
Full disclosure: we build SurgePV. We ranked it #6 because agrivoltaics is mostly ground-mount territory and our solar design software is strongest on 3D structure-based design, not multi-MW field layout. For small elevated canopies over farmyards, polyhouses, and farm building rooftops, it fits well.
What It Does Well
Most small agrivoltaic projects fail on economics, not engineering. SurgePV connects 3D design, physics-based shadow analysis, and the generation and financial tool in 1 platform. The financial layer models payback, IRR, and NPV, which is what a farm loan officer asks for first.
The design environment handles elevated structures and custom surfaces, so a canopy over a packing area or a polyhouse array models in 3D with hourly shading. The module and inverter database covers mainstream bifacial and standard equipment.
When the design is done, branded PDF proposals carry the same simulated numbers. Clara AI helps draft the customer-facing text. For a farm C&I deal, that removes the spreadsheet handoff between engineering and sales.
Our Take: If your agrivoltaic work is sub-MW elevated structures and farm buildings, SurgePV covers design through proposal in 1 workflow. For field-scale crop arrays, use RatedPower or PVCase and treat us as the proposal layer.
Where It Falls Short
SurgePV has no crop-light modeling, no terrain-following tracker layout, and no civil grading tools. Multi-MW field automation is not its target. It is cloud-only, so field work without connectivity is out.
Key Features
- 3D solar design with layout and string sizing
- Physics-based shadow analysis for elevated structures
- Generation and financial tool with payback, IRR, and NPV
- Branded solar proposals from live design data
Pricing
- For 3 Users plan: $1,899/year — design, simulation, financials, and proposals included
- Free trial: Available with full capabilities
Who Should Use SurgePV
Strong fit: Installers and EPCs building small elevated canopies, farm rooftop systems, and agri-C&I projects that need bankable-style financials plus proposals. Probably not right for: Utility-scale crop arrays and teams needing crop-light simulation.
7. NREL SAM — Best Free Agrivoltaic Research Tool
The System Advisor Model (SAM) from the National Renewable Energy Laboratory (NREL) is free, open-source, and used by 150,000+ users in 190+ countries, per NREL. For agrivoltaic research and feasibility math, it is the best $0 you can spend.
What It Does Well
SAM’s detailed PV model supports bifacial systems with albedo control, which covers the core agrivoltaic yield question. You can model elevated structures through custom loss and geometry inputs, then run hourly simulations against NREL National Solar Radiation Database weather files.
The financial models are deeper than most paid tools. Residential, commercial, and utility project structures cover debt, taxes, incentives, and revenue stacking. NREL’s own agrivoltaics research program uses SAM, so published studies give you validated starting assumptions.
Because it is open-source, research teams extend it. Several published agrivoltaic studies couple SAM output with crop models to compute land equivalent ratio (LER).
Our Take: Use SAM to stress-test agrivoltaic economics before you buy anything else. Accept that you will build the geometry logic yourself; SAM is a calculation engine, not a designer.
Where It Falls Short
There is no visual layout environment at all. Every geometric assumption is a manual input, which makes shading-between-rows work tedious. The interface assumes engineering literacy, and there is no commercial support channel.
Key Features
- Free, open-source detailed PV and bifacial modeling
- Deep financial models for all project types
- NSRDB weather data built in
- Windows, macOS, and Linux support
Pricing
- SAM: $0 — free and open-source from NREL
- Free trial: Not needed
Who Should Use SAM
Strong fit: Researchers, students, and developers running early agrivoltaic feasibility economics. Probably not right for: Teams needing visual layouts or construction documents.
8. SketchUp + Skelion — Best Agrivoltaic Tool for Custom Structure 3D Modeling
SketchUp is not solar software, but paired with the Skelion plugin it becomes a flexible 3D environment for one-off elevated structures. Agrivoltaic designs are rarely standard, and that is exactly where this combo earns its place.
What It Does Well
Custom geometry is the point. Greenhouse-integrated arrays, vertical bifacial fences, and curved polyhouse roofs do not fit template-driven tools. In SketchUp, you model the structure exactly as the fabricator will build it.
Skelion automates panel insertion on any surface in 1 to 4 clicks, with tilt, azimuth, and shading angle control for any hour of the year. The real-time shadow engine visualizes how panel shadows move across crop rows through the seasons. Energy reports connect to PVWatts in the US and PVGIS in Europe, and designs export to PVsyst.
SketchUp Pro costs $349 per year, and Skelion has a free tier for up to 10 panels. For concept-stage agrivoltaic visualization, the entry cost is low.
Our Take: SketchUp plus Skelion is the right sketchpad for novel agrivoltaic structures. Treat its energy numbers as directional and confirm final yield in PVsyst or SAM.
Where It Falls Short
It is a general 3D tool with a plugin, not an engineering platform. There is no string sizing, no cable calculation, and no electrical documentation. Shading is visual, not a full irradiance simulation, and large arrays get heavy to model.
Key Features
- Free-form 3D modeling for any mounting geometry
- Skelion panel insertion with shading angle control
- PVWatts and PVGIS energy reports
- PVsyst and AutoCAD export
Pricing
- SketchUp Pro: $349/year; Studio: $779/year
- Skelion: Free up to 10 panels; Pro pricing on request
- Free tier: SketchUp Free (web-only) plus Skelion free tier
Who Should Use SketchUp + Skelion
Strong fit: Designers prototyping non-standard agrivoltaic structures and producing client visuals. Probably not right for: Electrical engineering, bankable yield, and multi-MW layouts.
9. OpenSolar — Best Free Tool for Small Agrivoltaic Projects
OpenSolar is free forever, with 28,000+ users in 185+ countries. For small farms and rural installers testing agrivoltaic concepts, it removes the software budget from the equation.
What It Does Well
The price is the headline: $0 for design, proposals, CRM, and e-signatures, with unlimited projects and users. Ground-mount design is supported, so a pasture array or small elevated system can be drawn, simulated, and proposed in 1 sitting.
Speed is real. Users report proposals in under 2 minutes once templates are set. Financing covers cash, loan, lease, and power purchase agreement (PPA) options. For a farm evaluating solar alongside crops, a same-day proposal changes the conversation.
Accuracy is third-party validated by PVEL and a US government agency. Most teams are operational in under 1 day, with full mobile apps for field work.
Our Take: For a first agrivoltaic pilot under 500 kW, OpenSolar gets you to a professional proposal at zero cost. Verify the production numbers in SAM before you promise savings.
Where It Falls Short
The 500 kW system cap rules out larger agrivoltaic plants. Photogrammetry-based modeling is less precise than LIDAR. There is no bifacial-specific tuning, no crop spacing logic, and no offline mode.
Key Features
- Free 3D design with ground-mount support
- Interactive proposals with e-signature
- Built-in CRM, payments, and financing integrations
- Full iOS and Android apps
Pricing
- Free tier: $0 — unlimited projects, users, and features
- Free trial: Not needed; the product is free
Who Should Use OpenSolar
Strong fit: Small farms, rural installers, and pilot agrivoltaic projects on tight budgets. Probably not right for: Projects above 500 kW and bank-grade engineering needs.
10. PVWatts — Best Free Tool for First-Pass Agrivoltaic Screening
PVWatts is NREL’s free web calculator, running since 1999. Version 8 added bifacial support and albedo inputs, which turned it into a legitimate first screen for agrivoltaic sites.
What It Does Well
Speed and simplicity. Enter a location, system size, tilt, and losses, and you get monthly and annual energy estimates in under a minute. For a farmer asking “is my field even worth studying,” that is the right first answer.
Version 8 matters for agrivoltaics. Bifacial module support plus an optional albedo input lets you test grass or crop reflectance assumptions directly. The underlying models match SAM’s detailed PV model, and weather data comes from the NSRDB with 30 years of history.
The API is free with a key, so developers embed PVWatts screening into their own tools. Accuracy runs about ±10% on annual totals, which is fine for screening and wrong for financing.
Our Take: Run every candidate agrivoltaic site through PVWatts before you spend an engineering hour on it. Then move survivors into SAM or PVsyst for real analysis.
Where It Falls Short
There is no 3D design, no module-level shading, and no financial analysis beyond simple cost of energy. Monthly accuracy of ±30% is too loose for crop-season planning. Elevated structure effects need manual loss adjustments.
Key Features
- Free web calculator with global coverage
- Bifacial support and albedo input in version 8
- NSRDB weather data with 30-year history
- Free API for integration
Pricing
- PVWatts: $0 — no registration required
- Free trial: Not needed
Who Should Use PVWatts
Strong fit: Farmers, developers, and consultants screening sites before detailed design. Probably not right for: Anything that will be shown to a lender.
How to Choose Agrivoltaic Design Software
Match the tool to your project scale and your actual bottleneck.
- Utility-scale developer (5 MW+): RatedPower for layout automation, PVsyst for the lender report.
- EPC producing construction documents: PVCase Ground Mount, with PVsyst export for yield.
- Midsize elevated projects (100 kW to 5 MW): PV*SOL for 3D shading or HelioScope for iteration speed.
- Small farm canopies and agri-C&I: SurgePV for design through financials and proposal in 1 flow.
- Research or early feasibility: SAM for economics, PVWatts for screening, both free.
- Novel structures (greenhouse, vertical): SketchUp plus Skelion for geometry, then validate yield elsewhere.
- Zero-budget pilot: OpenSolar, under the 500 kW cap.
The Myth of “Agrivoltaic Mode”
No mainstream solar software has a real agrivoltaic mode. Marketing pages say otherwise, but check the feature list and you will find ground-mount design with wide spacing. That is not the same thing.
Real agrivoltaic design couples 2 systems: energy yield and crop yield. Solar tools model the first. Crop models like DSSAT or APSIM model the second. The land equivalent ratio, which research by Dupraz and others shows can reach 1.6 to 1.7, only emerges when you run both.
The practical workflow in 2026 is a stack, not a tool. Use your solar software for hourly shading maps and bifacial yield. Export the shading data. Hand it to an agronomist or a crop model for daily light integral analysis. Any vendor claiming to automate that full loop today is overselling.
A related contrarian point: higher clearance is not always better. Industry-observed cost premiums of 30 to 50% over standard ground mount climb fast with structure height. Many grazing and hardy-crop projects pencil better at 2.5 to 3 m than at 5 m. Model the structure cost per height tier before locking the design.
For a deeper design methodology, see our agrivoltaics design guide and the agrivoltaics glossary entry. Teams doing standard ground-mount work should also check our best ground mount design software and best solar simulation software rankings. For Indian agrivoltaic execution context, our sister team covers agrivoltaic design software on Heaven Designs.
Conclusion
Agrivoltaic design in 2026 is a workflow problem, not a tool purchase. The winners pair a strong ground-mount engine with bankable bifacial yield and honest crop-side analysis.
3 concrete next steps:
- Screen every site free first. Run PVWatts for the site and SAM for the economics before you buy anything. Kill weak sites in a day, not a month.
- Trial 2 tools against 1 real project. Take an actual parcel, set the clearance and row pitch your agronomist requires, and time the layout in RatedPower or PVCase versus PV*SOL or HelioScope. The faster loop wins your pipeline.
- Validate the yield report early. Confirm your lender or investor accepts HelioScope or PVcase Yield, or budget for PVsyst from day one. A yield report nobody accepts is a redesign waiting to happen.
If your projects are small elevated structures and farm C&I deals, book a 20-minute SurgePV demo and run a real canopy through the design-to-proposal flow.
Related Posts
- Best Ground Mount Solar Design Software
- Best Solar Simulation Software
- Best Solar Shading Analysis Software
- Best Solar Design Software
Frequently Asked Questions
What is agrivoltaic design software?
Agrivoltaic design software helps engineers plan solar arrays that share land with crops or livestock. It models elevated mounting, wide row spacing, bifacial gain, and shading so the array produces power without killing the farm underneath.
What is the best agrivoltaic design software in 2026?
For utility-scale plants, RatedPower leads on automation. PVCase wins for AutoCAD-based detailed engineering. PVsyst remains the standard for bankable bifacial yield reports. Smaller farm projects can start free with SAM or PVWatts.
Can regular solar design software handle agrivoltaics?
Partly. Any tool with ground-mount layout, custom tilt, and bifacial modeling covers the basics. The gaps are crop-light modeling, machinery clearance checks, and agronomic tracker algorithms, which no mainstream tool fully automates yet.
How much does agrivoltaic design software cost?
Free options include NREL SAM and PVWatts. Mid-range tools like PV*SOL cost about €845 per year. Enterprise platforms like RatedPower and PVCase use custom pricing, typically justified only above 1 MW of project volume.
What design parameters matter most in agrivoltaics?
Panel clearance height (usually 2.5 to 5 m), row pitch wide enough for machinery (6 to 12 m), ground coverage ratio, bifacial gain from crop albedo, and hourly shading maps matched to crop light needs.
Do agrivoltaic systems cost more to build?
Yes. Industry-observed ranges put agrivoltaic capital cost at a 30 to 50% premium over standard ground mount, driven by taller structures and wider spacing. Software that models this cost uplift early prevents bad feasibility decisions.
