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Environment EnergyTop 9 Best Solar Array Design Software of 2026
Discover the best solar array design software to optimize projects. Compare features, find efficient tools, and get started today.
How we ranked these tools
Core product claims cross-referenced against official documentation, changelogs, and independent technical reviews.
Analyzed video reviews and hundreds of written evaluations to capture real-world user experiences with each tool.
AI persona simulations modeled how different user types would experience each tool across common use cases and workflows.
Final rankings reviewed and approved by our editorial team with authority to override AI-generated scores based on domain expertise.
Score: Features 40% · Ease 30% · Value 30%
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Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
PV*SOL
Integrated shading and layout-aware yield simulation across array configurations
Built for installers and engineers producing simulation-backed PV array designs.
Helioscope
Shading analysis using 3D geometry to drive production modeling results
Built for solar engineering teams modeling rooftop and ground arrays with shading.
SAM (System Advisor Model)
PVWatts-style energy modeling with detailed module and inverter parameterization plus financial outputs
Built for pV engineers needing bankable array design modeling and time-series energy analysis.
Comparison Table
This comparison table benchmarks solar array design software used for layout planning, shading analysis, performance modeling, and energy yield reporting across tools such as PV*SOL, Helioscope, SAM, PVSOL premium, and PVcase. Readers can scan feature coverage, workflow differences, and output types to select the software that fits their design and analysis needs.
| # | Tool | Category | Overall | Features | Ease of Use | Value |
|---|---|---|---|---|---|---|
| 1 | PV*SOL PV*SOL performs photovoltaic system design and detailed yield calculations using PV module, inverter, shading, and site parameters. | solar engineering | 8.8/10 | 9.1/10 | 8.2/10 | 8.9/10 |
| 2 | Helioscope Helioscope designs PV layouts and evaluates energy harvest with shading, module configuration, and performance modeling. | PV layout | 8.2/10 | 8.6/10 | 8.0/10 | 7.9/10 |
| 3 | SAM (System Advisor Model) SAM models PV system performance and financing at component and system levels for feasibility and performance estimates. | free modeling | 8.3/10 | 9.1/10 | 7.7/10 | 8.0/10 |
| 4 | PVSOL premium PVSOL premium supports solar thermal and PV design with engineering calculations for system sizing and energy yield. | solar design | 8.2/10 | 8.6/10 | 7.7/10 | 8.0/10 |
| 5 | PVcase PVcase designs PV system projects and calculates performance using shading, layout, and energy yield workflows. | project design | 8.1/10 | 8.6/10 | 7.9/10 | 7.7/10 |
| 6 | SolarEdge PVSOL (PVSYSTEMS within vendor tools) SolarEdge tools support PV design configuration for SolarEdge inverters and monitoring workflows tied to system planning. | vendor ecosystem | 8.2/10 | 8.6/10 | 7.9/10 | 7.9/10 |
| 7 | Sunnova Tools (Solar Design Suite) Sunnova provides internal solar design workflows and planning capabilities for PV project configuration and estimation. | enterprise planning | 7.2/10 | 7.0/10 | 7.5/10 | 7.0/10 |
| 8 | RETScreen RETScreen supports solar energy project analysis with energy modeling, feasibility screening, and economic evaluation. | feasibility analysis | 7.2/10 | 7.5/10 | 7.0/10 | 7.0/10 |
| 9 | PV Lighthouse PV Lighthouse provides solar PV design and performance analysis tools focused on module strings and system-level output. | string design | 7.1/10 | 7.5/10 | 6.8/10 | 7.0/10 |
PV*SOL performs photovoltaic system design and detailed yield calculations using PV module, inverter, shading, and site parameters.
Helioscope designs PV layouts and evaluates energy harvest with shading, module configuration, and performance modeling.
SAM models PV system performance and financing at component and system levels for feasibility and performance estimates.
PVSOL premium supports solar thermal and PV design with engineering calculations for system sizing and energy yield.
PVcase designs PV system projects and calculates performance using shading, layout, and energy yield workflows.
SolarEdge tools support PV design configuration for SolarEdge inverters and monitoring workflows tied to system planning.
Sunnova provides internal solar design workflows and planning capabilities for PV project configuration and estimation.
RETScreen supports solar energy project analysis with energy modeling, feasibility screening, and economic evaluation.
PV Lighthouse provides solar PV design and performance analysis tools focused on module strings and system-level output.
PV*SOL
solar engineeringPV*SOL performs photovoltaic system design and detailed yield calculations using PV module, inverter, shading, and site parameters.
Integrated shading and layout-aware yield simulation across array configurations
PV*SOL is distinct for its workflow that ties PV system design directly to simulation-driven yield assessment for grid-connected and self-consumption scenarios. The tool supports detailed component configuration, including inverter modeling and shading influences, and it generates production estimates that align with array layout decisions. PV*SOL also focuses on practical documentation output for installers, combining engineering inputs with project reporting. The result is a design process that stays centered on energy yield, not only sizing screenshots.
Pros
- Strong yield modeling driven by detailed system and site inputs
- Supports inverter matching and realistic component-level configuration
- Shading and layout considerations feed directly into performance results
- Produces installer-ready design and calculation documentation
Cons
- Setup requires careful input preparation for accurate outcomes
- Complex projects can feel heavy compared with simpler calculators
- Advanced modeling depth can lengthen early design iterations
Best For
Installers and engineers producing simulation-backed PV array designs
Helioscope
PV layoutHelioscope designs PV layouts and evaluates energy harvest with shading, module configuration, and performance modeling.
Shading analysis using 3D geometry to drive production modeling results
Helioscope stands out for turning solar resource data into actionable layout and performance predictions for PV arrays. The software supports module and string modeling, shading analysis, and production estimates tied to real-world site geometry. It also enables iterative design refinement through visual outputs that link array choices to energy yield and losses. Helioscope is aimed at solar design workflows that need engineering-grade assumptions and defensible modeling results.
Pros
- Strong shading and irradiance modeling tied to site geometry
- Iterative array layout changes update production estimates quickly
- Clear visual outputs connect design choices to energy yield
Cons
- Setup and data preparation can be time-intensive for new sites
- Advanced engineering configurations increase learning curve
- Workflow depends heavily on having accurate input geometry
Best For
Solar engineering teams modeling rooftop and ground arrays with shading
SAM (System Advisor Model)
free modelingSAM models PV system performance and financing at component and system levels for feasibility and performance estimates.
PVWatts-style energy modeling with detailed module and inverter parameterization plus financial outputs
SAM from NREL stands out for modeling power, energy, and bankability across PV system configurations using physics-based performance models. It supports common solar array design workflows such as PV module and inverter sizing, shading and soiling inputs, and time-series simulations for energy yield. It also includes financial and reliability-oriented outputs that help connect design choices to energy production and project KPIs.
Pros
- Physics-based PV and system modeling supports detailed energy yield simulations.
- Time-series modeling captures irradiance effects on arrays and plant performance.
- Design outputs link directly to performance and bankability metrics.
Cons
- Input setup and model calibration require domain knowledge and careful parameter entry.
- Complex workflows can slow iterative design compared with simpler GUIs.
- Model flexibility can increase the chance of user configuration mistakes.
Best For
PV engineers needing bankable array design modeling and time-series energy analysis
PVSOL premium
solar designPVSOL premium supports solar thermal and PV design with engineering calculations for system sizing and energy yield.
Integrated PV string design and shading-aware yield calculation workflow
PVSOL premium is a solar array design tool that focuses on engineering-grade sizing and energy yield calculations for PV systems. It combines string design checks with shading and layout analysis workflows aimed at verifying electrical performance and production estimates. The software supports module and inverter configuration to produce consistent system specifications and results for project documentation.
Pros
- Strong string and inverter configuration support for practical electrical design
- Detailed yield modeling with shading and layout inputs for more realistic outputs
- Project results are structured for reuse across design iterations
Cons
- Workflow complexity can slow down early-stage layout exploration
- Shading and geometry setup requires careful input to avoid misleading results
- Advanced configuration depth increases the learning curve for new users
Best For
Design engineers and installers needing accurate PV sizing with shading-aware yield estimates
PVcase
project designPVcase designs PV system projects and calculates performance using shading, layout, and energy yield workflows.
Constraint-aware stringing and layout generation from PV system and site parameters
PVcase stands out by turning PV system inputs into layout-ready solar array designs with rapid visual output. The core workflow supports array and string planning with electrical constraints, then produces deliverables suitable for engineering review. It focuses on scalable design generation rather than manual drafting, which reduces iteration time during site and system configuration changes.
Pros
- Automates PV layout generation from engineering inputs to reduce repetitive design work
- Supports electrical stringing logic tied to layout decisions for coherent designs
- Produces clear visual outputs that speed design iteration and stakeholder review
Cons
- Advanced constraint setups can require careful configuration to avoid design rework
- Customization of highly specific mounting and design standards can feel limited
- Export and integration into existing CAD and engineering toolchains can add friction
Best For
Solar design teams needing fast, constraint-aware array layout and stringing outputs
SolarEdge PVSOL (PVSYSTEMS within vendor tools)
vendor ecosystemSolarEdge tools support PV design configuration for SolarEdge inverters and monitoring workflows tied to system planning.
PVSOL string and optimizer-aware modeling optimized for SolarEdge inverter configuration
SolarEdge PVSOL stands out for its tight integration with SolarEdge inverter and optimizer workflows inside SolarEdge vendor tooling. The software supports PV system modeling that covers string layout, component selection, and electrical design checks used to estimate production and performance. Design outputs focus on module and inverter pairing logic plus inverter-specific configuration rather than broad cross-vendor module databases. It is geared toward repeatable design and documentation for SolarEdge-based solar arrays.
Pros
- SolarEdge component compatibility simplifies inverter and optimizer configuration
- String and layout modeling supports realistic electrical design constraints
- Performance estimation aligns with SolarEdge configuration assumptions
- Vendor-tool integration streamlines documentation from design to submittal
Cons
- Limited utility for designs that require cross-vendor hardware flexibility
- Setup and input discipline are required for accurate string-level modeling
- Design experience can feel constrained by SolarEdge-specific assumptions
Best For
Design teams building SolarEdge-based PV arrays needing fast string-level modeling
Sunnova Tools (Solar Design Suite)
enterprise planningSunnova provides internal solar design workflows and planning capabilities for PV project configuration and estimation.
Sunnova-aligned system configuration that streamlines design-to-documentation outputs
Sunnova Tools Solar Design Suite focuses on supporting solar proposal and layout workflows for installers using Sunnova’s project pipeline. The suite covers system modeling, site and design inputs, and documentation outputs tied to real design steps. It also provides configuration and data handling intended to reduce manual re-entry across design iterations. The tool set is best evaluated as a design workflow companion rather than a standalone CAD and engineering platform.
Pros
- Workflow-focused solar design data handling supports repeatable proposal iterations
- Integrated system configuration reduces manual transfer between design steps
- Outputs align with installer deliverables and project documentation needs
Cons
- Less capable than full CAD or engineering suites for custom geometry
- Design flexibility can feel constrained by Sunnova-aligned workflow requirements
- Limited standalone support visibility for advanced engineering calculations
Best For
Installers needing standardized solar design documentation tied to a workflow pipeline
RETScreen
feasibility analysisRETScreen supports solar energy project analysis with energy modeling, feasibility screening, and economic evaluation.
RETScreen energy modeling links solar resource data to annual yield and lifecycle decision outputs
RETScreen stands out with integrated energy modeling that combines solar resource inputs with system and finance evaluation in one workflow. It supports estimating annual energy production, performance losses, and lifecycle outcomes for grid-connected and off-grid solar arrays. Its template-driven project structure helps produce comparable feasibility and technical assessments across multiple sites and configurations.
Pros
- Structured project templates support consistent solar feasibility modeling
- Integrates solar energy estimates with performance losses and production outputs
- Lifecycle and finance views support decision-making beyond generation estimates
Cons
- Solar array sizing workflows feel more analytical than detailed engineering design
- Data setup for irradiance, system parameters, and assumptions takes time
- Results can be harder to audit because inputs are spread across many screens
Best For
Energy analysts and feasibility teams modeling solar arrays and lifecycle outcomes
PV Lighthouse
string designPV Lighthouse provides solar PV design and performance analysis tools focused on module strings and system-level output.
PV array layout generation tied to electrical design verification
PV Lighthouse stands out for its workflow that turns solar site and component inputs into a structured array design and estimate. The tool supports panel layout generation, electrical checks, and production-oriented outputs that help consolidate design decisions. It is geared toward practical solar project deliverables rather than pure research modeling. The result is faster iteration for array sizing and layout than spreadsheet-only approaches.
Pros
- Array layout and electrical design outputs in one workflow
- Checks support common PV design constraints for quicker iteration
- Designed to translate inputs into project-ready deliverables
Cons
- Workflow depth can feel rigid for atypical system architectures
- Less flexible modeling for advanced engineering cases and edge constraints
- Data preparation for accurate results can add setup time
Best For
Solar installers and engineering teams needing repeatable array design workflows
Conclusion
After evaluating 9 environment energy, PV*SOL stands out as our overall top pick — it scored highest across our combined criteria of features, ease of use, and value, which is why it sits at #1 in the rankings above.
Use the comparison table and detailed reviews above to validate the fit against your own requirements before committing to a tool.
How to Choose the Right Solar Array Design Software
This buyer's guide covers solar array design software options including PV*SOL, Helioscope, SAM, PVSOL premium, PVcase, SolarEdge PVSOL, Sunnova Tools, RETScreen, PV Lighthouse, and PV*SOL-adjacent alternatives. It explains which tools best fit yield-driven engineering workflows, fast constraint-aware layout generation, and feasibility modeling with lifecycle and finance outputs. It also highlights concrete feature tradeoffs like shading depth, geometry setup effort, string-level configurability, and export workflows built for installer deliverables.
What Is Solar Array Design Software?
Solar array design software is used to plan PV module layouts and strings, then calculate electrical performance and energy yield from site and component inputs. Tools in this category connect array geometry, shading, inverter or optimizer configuration, and losses to production estimates used for engineering signoff and project documentation. PV*SOL exemplifies workflow-centered PV design that ties array decisions to simulation-driven yield for grid-connected and self-consumption scenarios. Helioscope exemplifies 3D geometry shading analysis that drives production predictions tied to real-world site configuration.
Key Features to Look For
The best solar array design tools combine layout and electrical design logic with simulation-grade energy yield so array decisions stay consistent from configuration to deliverables.
Shading and layout-aware energy yield tied to array configuration
PV*SOL uses integrated shading and layout-aware yield simulation across array configurations so shading and layout choices feed directly into production results. Helioscope delivers shading analysis using 3D geometry to drive production modeling results that update when array layout changes.
String design checks with inverter or optimizer-aware configuration
PVSOL premium focuses on integrated PV string design and shading-aware yield calculation workflows with module and inverter configuration to produce consistent system specifications. SolarEdge PVSOL is optimized for SolarEdge inverter configuration with string and optimizer-aware modeling that simplifies repeatable designs for SolarEdge-based arrays.
Constraint-aware layout generation and rapid stringing outputs
PVcase automates PV layout generation from engineering inputs to reduce repetitive drafting work and supports electrical stringing logic tied to layout decisions. PV Lighthouse pairs PV array layout generation with electrical design verification so installers can iterate faster than spreadsheet-only workflows.
Physics-based time-series energy modeling and bankability outputs
SAM provides physics-based PV and system modeling with time-series simulations that capture irradiance effects on arrays and plant performance. SAM also outputs performance and bankability metrics that connect design choices to KPIs beyond energy production.
Installer-ready documentation and structured project deliverables
PV*SOL produces installer-ready design and calculation documentation that stays centered on energy yield alongside project reporting. Sunnova Tools supports installer deliverables through standardized design-to-documentation workflows that streamline system configuration and reduce manual transfer between design steps.
Feasibility-focused project structure with lifecycle and finance views
RETScreen uses structured project templates to link solar resource data to annual yield and performance losses with lifecycle and decision outputs. RETScreen is strongest for energy analysts and feasibility teams who need comparable feasibility modeling across multiple sites and configurations rather than deep electrical constraint design.
How to Choose the Right Solar Array Design Software
Selection comes down to choosing a tool that matches the required depth of geometry and shading modeling, the level of electrical string verification, and the type of deliverables needed for each project stage.
Match shading realism to the project risk profile
If shading and layout decisions directly drive project outcomes, prioritize tools that tie shading analysis to production updates such as Helioscope and PV*SOL. Helioscope’s 3D geometry shading analysis helps rooftop and ground array teams justify layout changes with defensible production modeling, while PV*SOL integrates shading and layout-aware yield simulation across array configurations.
Decide how much electrical design validation must be automated
For teams that need string design checks and repeatable inverter or optimizer pairing logic, choose PVSOL premium or SolarEdge PVSOL based on hardware scope. PVSOL premium supports integrated PV string design and shading-aware yield calculations using module and inverter configuration, while SolarEdge PVSOL streamlines string and optimizer-aware modeling optimized for SolarEdge inverter configuration.
Pick a workflow style based on iteration speed and deliverable format
If fast, constraint-aware layout generation reduces design iteration time, PVcase is built to generate layout-ready outputs and support coherent stringing tied to layout decisions. PV Lighthouse focuses on a structured workflow that produces array layout and electrical design outputs in one place to speed repeatable array sizing and layout verification.
Use time-series and bankability outputs when stakeholders demand KPIs
When project requirements include bankability-style KPIs and time-series performance modeling, SAM is built for PV engineers needing physics-based modeling plus financial and reliability-oriented outputs. SAM’s time-series modeling captures irradiance effects on arrays and plant performance and links design outputs to performance and bankability metrics.
Choose installer workflow companions or feasibility engines for the right stage
For installer pipelines that prioritize standardized proposal steps and documentation handoff, Sunnova Tools streamlines design-to-documentation outputs with integrated system configuration. For feasibility and lifecycle evaluation across sites, RETScreen emphasizes annual energy production, performance losses, lifecycle outcomes, and structured project templates.
Who Needs Solar Array Design Software?
Solar array design software benefits a wide range of teams because it connects layout planning, string or inverter configuration, and energy yield or feasibility outputs into a repeatable engineering workflow.
Installers and engineers producing simulation-backed PV array designs
PV*SOL is the best fit because it performs photovoltaic system design and detailed yield calculations using PV module, inverter, shading, and site parameters with installer-ready documentation. PVSOL premium also fits installers and design engineers who need accurate PV sizing with shading-aware yield estimates and integrated string and inverter configuration workflows.
Solar engineering teams modeling rooftop and ground arrays with shading constraints
Helioscope targets rooftop and ground array scenarios by using shading analysis with 3D geometry that drives production modeling results tied to site layout. PV Lighthouse complements these workflows with repeatable array layout generation tied to electrical design verification for quicker iteration.
PV engineers needing bankable array design modeling and time-series energy analysis
SAM fits PV engineers because it provides physics-based PV and system modeling with time-series simulations and links design outputs to performance and bankability metrics. This tool supports common solar array workflows like PV module and inverter sizing plus shading and soiling inputs.
Energy analysts and feasibility teams modeling lifecycle outcomes and annual yield
RETScreen fits feasibility-focused work because it links solar resource inputs to annual yield, performance losses, lifecycle outcomes, and structured decision views. Sunnova Tools fits teams in installer proposal pipelines that need repeatable configuration and documentation outputs rather than deep engineering calibration.
Common Mistakes to Avoid
Design outcomes depend on input discipline and workflow match, and several tools become slower or less reliable when inputs are incomplete or when the workflow focus mismatches the project scope.
Underestimating the input preparation needed for accurate yield and shading
PV*SOL requires careful input preparation for accurate outcomes because its detailed shading and layout-aware yield simulation feeds directly into performance results. Helioscope and PVSOL premium also depend on accurate geometry and shading setup, and setup and data preparation can become time-intensive if site inputs are incomplete.
Using a vendor-optimized design tool for cross-vendor hardware needs
SolarEdge PVSOL is constrained by SolarEdge-specific assumptions because it focuses on module and inverter pairing logic aligned to SolarEdge configuration. Teams needing cross-vendor hardware flexibility will find the scope limiting and should instead use broader modeling tools like PV*SOL or SAM for component-level configurability.
Choosing feasibility or documentation workflows for detailed electrical engineering tasks
RETScreen is structured for feasibility modeling with lifecycle and finance views, so array sizing workflows feel more analytical than detailed engineering design. Sunnova Tools is optimized as a design workflow companion for standardized documentation, so it is less suitable for atypical system architectures requiring deeper CAD and engineering flexibility.
Overcomplicating early layout exploration with deep modeling workflows
PV*SOL and PVSOL premium can feel heavy or slow during early iterations because advanced modeling depth and shading geometry setup add work before layouts stabilize. PVcase avoids some of this iteration drag by automating constraint-aware array layout and stringing outputs, which helps teams converge faster on electrical constraints before deep simulation refinements.
How We Selected and Ranked These Tools
we evaluated every tool on three sub-dimensions: features with weight 0.4, ease of use with weight 0.3, and value with weight 0.3. The overall rating for each tool is the weighted average calculated as overall = 0.40 × features + 0.30 × ease of use + 0.30 × value. PV*SOL separated itself from lower-ranked tools because its integrated shading and layout-aware yield simulation across array configurations delivered strong feature coverage while still scoring high on ease of use and value for installers and engineers who need simulation-backed designs.
Frequently Asked Questions About Solar Array Design Software
Which solar array design software best connects array layout decisions to production estimates?
PV*SOL ties array layout and shading inputs to simulation-driven yield assessment for grid-connected and self-consumption scenarios. Helioscope also links site geometry and shading analysis to production predictions using 3D-driven modeling.
Which tool is strongest for bankable, physics-based energy modeling with time-series outputs?
SAM (System Advisor Model) from NREL focuses on physics-based performance modeling with time-series energy yield and inverter and module parameterization. RETScreen complements that need by combining solar resource inputs with annual energy production and lifecycle evaluation in a single workflow.
What software supports detailed shading analysis for rooftop and ground arrays using real-world geometry?
Helioscope performs shading analysis using 3D geometry so losses map directly to layout and string choices. PV*SOL also models shading influences across array configurations and keeps yield assessment aligned with engineering inputs.
Which option is most suitable for electrical string design checks and documentation-ready system specifications?
PVSOL premium emphasizes engineering-grade sizing with string design checks and shading-aware energy yield calculations. PV*SOL similarly supports detailed component configuration and produces practical documentation output tied to the design process.
Which solar array design software is best for fast constraint-aware layout and stringing iteration?
PVcase generates rapid visual outputs that turn system and site parameters into layout-ready array designs and string plans under electrical constraints. PV Lighthouse also focuses on repeatable array layout generation paired with electrical verification to reduce spreadsheet-only iteration time.
Which tool fits workflows built around SolarEdge inverters and optimizers?
SolarEdge PVSOL (PVSYSTEMS within vendor tools) is designed for SolarEdge-based projects where string layout and optimizer logic must align with inverter-specific configuration. It emphasizes SolarEdge pairing and checks rather than relying on broad cross-vendor module databases.
Which software works best for installers that need standardized proposal and documentation outputs within a pipeline?
Sunnova Tools (Solar Design Suite) supports proposal and layout workflows tied to Sunnova’s project pipeline and reduces manual re-entry during design iterations. The suite emphasizes design-to-documentation steps rather than acting as a standalone CAD and engineering platform.
Which tool is better for feasibility studies that combine technical performance and lifecycle decisions?
RETScreen is built for feasibility work by linking solar resource inputs to annual yield and lifecycle outcomes for grid-connected and off-grid arrays. It structures projects with templates so comparisons across sites and configurations stay consistent.
What are common modeling gaps teams should watch for when switching between tools?
A shift from Helioscope’s 3D shading-driven predictions to SAM can expose differences in how time-series inputs, losses, and module or inverter parameters are represented. Switching from PVcase’s constraint-driven layout generation to RETScreen can also change how detailed system components and electrical checks are handled.
How do teams typically get started building a repeatable design workflow with these tools?
A repeatable workflow often starts with PV*SOL for simulation-backed layout and shading yield assessment, then exports documentation aligned with the design process. Teams that need iteration speed can pair PVcase’s constraint-aware layout generation with PV Lighthouse’s electrical verification outputs.
Tools reviewed
Referenced in the comparison table and product reviews above.
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