Software Review 6/10 10 min read

PV*SOL Review: Features, Pricing & Pros vs Cons (2026)

Engineering-grade solar simulation software with best-in-class hybrid system modeling, but desktop-only Windows architecture, no automated SLD generation, and a dated UI make it a poor fit for modern commercial EPCs.

Rainer Neumann

Written by

Rainer Neumann

Content Head · SurgePV

Keyur Rakholiya

Edited by

Keyur Rakholiya

CEO & Co-Founder · SurgePV

Published
Disclosure: This review is published by SurgePV, a solar design software company that competes with PV*SOL. Our assessments are based on independent testing, public documentation, and verified user feedback. We include this disclosure so you can evaluate our perspective with full context.

Pros

Best-in-class hybrid system modeling — only tool combining PV + battery + EV + heat pump simultaneously, validated by Fraunhofer ISE
Engineering-grade 3D shading analysis with 8,760-hour hourly simulation and multiple climate data sources (Meteonorm 9, PVGIS, NASA-SSE)
21,000+ PV modules, 5,100+ inverters, 1,900+ battery systems — manufacturer-maintained database
Competitive pricing: €845/year (Premium 2026) vs PVsyst at $1,800–2,400/year
Ease of use rated 8.1/10 — highest among technical simulation tools (G2 comparative data)
Perpetual license option available — no forced subscription model
30-day free trial with full feature access

Cons

Windows-only desktop — no macOS, Linux, cloud, browser, or mobile versions
No automated SLD generation — commercial EPCs must use AutoCAD separately ($2,000/year + 2–3 hours manual work per project)
10,000 module hard cap in 3D mode — not suitable for utility-scale projects above 10MW
Dated interface with dense menus — 4–6 week learning curve vs 2–3 weeks for modern cloud tools
Performance slowdowns above 7,000 modules — requires 16GB+ RAM and dedicated GPU
Financial analysis rated 6.9/10 (G2 comparative) vs PVsyst at 8.9/10
Support limited to German business hours — no live chat, email/phone only

TL;DR: PVSOL is German-engineered solar simulation software built for technical professionals who need accurate energy modeling, advanced 3D shading analysis, and complete hybrid system integration. At €845/year (Premium 2026), it is considerably cheaper than PVsyst but carries a Windows-only restriction, no automated SLD generation, and a 4–6 week learning curve. Based on G2 comparative data, users rate it 8.1/10 for ease of use — the highest among technical simulation tools — but only 6.9/10 for financial analysis. For engineers designing complex residential self-sufficiency systems with PV, battery, EV, and heat pump integration, PVSOL has no real competition. For commercial EPCs needing automated electrical documentation and cloud collaboration, SurgePV — the leading solar design software — delivers faster workflows, automated SLD generation, and lower total cost without requiring AutoCAD.


Author: Keyur Rakholiya Title: Contributing Writer, SurgePV | MD & CEO, Heaven Green Energy Limited Expertise: 1+ GW solar projects delivered, 20+ design software platforms tested, 10+ years EPC operations Published: 2026-03-08 Last Updated: 2026-03-08 Review Methodology: Official PV*SOL documentation (valentin-software.com), G2 comparative ratings, Fraunhofer ISE research validation, competitive testing


Who This Review Is For

This PV*SOL review is for:

  • Solar engineers and technical consultants evaluating simulation tools for complex residential or commercial projects
  • EPCs comparing PV*SOL vs PVsyst for bankable energy yield reports
  • Installers designing self-sufficiency systems with battery storage, EV charging, and heat pump integration
  • Mac users wondering whether PV*SOL runs on their hardware
  • Teams researching PV*SOL pricing, license costs, and what is included in 2025 and 2026

Skip this review if you are a sales-focused installer needing fast proposals, a utility-scale developer designing systems above 10MW, or a team working across multiple operating systems who cannot use Windows-only software.

What Is PV*SOL?

PVSOL is desktop solar design and simulation software developed by Valentin Software GmbH, founded in Berlin in 1988 by Dr. Ing. Gerhard Valentin. The company launched PVSOL in 1998 — making it one of the oldest PV design tools still in active development — and now employs around 32 people.

The software comes in two versions: PVSOL Standard (2D analysis only) and PVSOL Premium (full 3D modeling, advanced shading, LIDAR import). There is also a free PV*SOL Online calculator for basic estimates.

DetailInfo
Founded1988
HeadquartersBerlin, Germany
PV*SOL launched1998 (26+ years in development)
Team size~32 employees
Product familyPVSOL (PV design), TSOL (solar thermal), GeoT*SOL (heat pump)
Target usersEngineers, EPCs, system designers, architects, energy consultants
Strongest marketsGermany, Europe, global technical users

Valentin Software positions PV*SOL as engineering-grade simulation software — not a sales tool. The documentation, feature set, and workflows are designed for technical professionals who need accurate energy modeling, not for sales teams closing residential deals quickly.

PV*SOL Pricing & License Cost 2025/2026

Pricing is the top keyword priority for this review, and for good reason: PV*SOL pricing is significantly more transparent than most competitors, with public list prices published on the Valentin Software shop.

PV*SOL Premium 2026 Price

PlanAnnual PriceTarget User
PV*SOL Premium 2026€845/year + VATEngineers, EPCs, consultants needing full 3D
PV*SOL Standard 2025€585/year + VATInstallers needing 2D analysis only
Student License€90/year + VATUniversity students (one purchase, 180 days, non-renewable)
PV*SOL OnlineFreeBasic yield estimates only, no 3D

All annual named user licenses include:

  • All software updates and new versions released during the license period
  • Full component database updates (modules, inverters, batteries, EVs)
  • Technical support via email and phone

License type: Named user (not device-based). One license can be activated on multiple devices but not used simultaneously. Activation takes 1–2 business days.

PV*SOL License Price: Total Cost of Ownership

PV*SOL is priced competitively against simulation-focused competitors, but commercial EPCs need to account for the AutoCAD dependency.

WorkflowYear 1 CostAnnual Ongoing
PV*SOL Premium alone€845 ($920)~€845/year
PV*SOL Premium + AutoCAD (commercial EPC)~$2,920~$2,920/year
PVsyst alone$1,800–2,400/year$1,800–2,400/year
SurgePV (all-in-one, 3 users)$1,499/user/year$1,499/user/year

Hidden Cost Alert

PV*SOL does not generate Single Line Diagrams automatically. Commercial EPCs must use AutoCAD ($2,000/year) and spend 2–3 hours per project creating SLDs manually. At 50 projects per year, that adds roughly $9,375 in labor costs (50 projects × 2.5 hours × $75/hour) on top of the AutoCAD license.

PV*SOL vs PVsyst pricing: PVSOL Premium at €845/year is roughly 50–65% cheaper than PVsyst ($1,800–2,400/year). If your workflow doesn’t require PVsyst’s deeper financial modeling, PVSOL delivers comparable energy yield accuracy at a substantially lower price.

Is PV*SOL Free? Free Trial

PV*SOL offers a 30-day free trial with full access to all Premium features. The only restriction during trial: you cannot save or print project reports. This means you can model real projects and evaluate the software thoroughly, but you cannot export or present the output until you purchase.

PV*SOL Online is free but limited to basic annual yield estimates. It has no 3D modeling, no shading analysis, no battery or EV integration, and no report generation. It is useful for quick feasibility checks only.

There is no free tier or freemium model for the full desktop software.

PV*SOL Online — Is There a Web Version?

This question comes up often, so the direct answer: PV*SOL Online exists but is not a replacement for the desktop software.

PV*SOL Online is a free, browser-based calculator at valentin-software.com that runs basic yield simulations without any installation. What it includes: simple PV system input, basic energy yield calculation, climate data from PVGIS, and a summary result.

What it does not include: 3D modeling, shading analysis, battery or EV integration, heat pump modeling, electrical design, proposal generation, or report export.

For professional design work, the desktop Premium version is the only viable option. PV*SOL remains fundamentally a Windows desktop application. There is no cloud-based or full browser version equivalent to the desktop tool.

Does PV*SOL Work on Mac?

No. PV*SOL does not run natively on macOS or Linux.

PVSOL requires Windows 10 or 11 (64-bit). Mac users who need to run PVSOL have two options:

  1. Parallels Desktop — approximately €100/year. Allows running Windows inside macOS. Performance overhead is noticeable, especially during 3D rendering and large simulations.
  2. Boot Camp — requires purchasing a Windows license (approximately $140 one-time). Runs Windows natively, so no performance overhead, but requires rebooting to switch operating systems.

Mac Users: What to Expect

Running PV*SOL via Parallels requires 24GB+ RAM for acceptable performance on complex projects. The 3D rendering engine is resource-intensive even on native Windows — virtualization makes this worse. If your team uses Macs, budget for both the virtualization software and additional RAM.

For Mac users who want cloud-based solar design software without virtualization, SurgePV runs in any browser natively — Mac, iPad, Windows, or Chromebook.

Core Features & Capabilities

3D Visualization and Design (Premium)

PV*SOL Premium includes full 3D modeling for buildings, trees, terrain contours, and obstructions. The 3D engine handles:

  • Up to 7,500 mounted modules or 10,000 roof-parallel modules in 3D mode
  • CAD file import: DXF, 3DS, DAE, PVC formats
  • LIDAR data import for ground-mount terrain modeling
  • Aerial photo integration via PhotoPlan tool
  • Google Solar API orthophotos (available since 2024)

The 3D modeling is engineering-grade — precise but not fast. Large projects with complex terrain require significant processing time and hardware resources (see hardware requirements below).

Hard cap: 10,000 modules in 3D. Above this limit, the software switches to 2D mode. Performance degrades noticeably above 7,000 modules. PV*SOL is not suitable for utility-scale projects above approximately 5–10MW in 3D.

Shading Analysis

PV*SOL runs dual simulations — one with shading, one without — and reports the yield reduction as a precise percentage. The analysis accounts for:

  • Direct shading losses
  • Low-light module performance
  • MPP tracking effects
  • Inter-row shading (calculated automatically in 3D mode)

Climate data sources: Meteonorm 9 (2001–2020 data, 8,300 weather stations), PVGIS, NASA-SSE, Solcast, and SolarAnywhere. The breadth of climate data options is one of PV*SOL’s genuine strengths.

The shading analysis runs at 8,760-hour resolution (hourly, full year). Results are bankable-quality for most commercial and residential applications.

Energy Simulation and Yield Calculation

PV*SOL’s simulation engine delivers:

  • P50, P75, and P90 yield estimates for financier review
  • 8,760-hour (hourly full-year) dynamic simulation
  • Self-consumption optimization analysis
  • Load profile analysis with customizable inputs
  • Time-of-use (TOU) tariff optimization
  • Custom CSV load profile import

The simulation depth is comparable to PVsyst for most residential and small commercial applications. PVsyst retains an edge for large utility-scale yield studies and complex financial modeling.

Battery Storage, EV Charging, and Heat Pump Integration

This is PV*SOL’s clearest competitive advantage. No other major solar software platform simultaneously models all four systems: PV, battery storage, electric vehicle charging, and heat pump integration.

Battery storage (2026 database: 1,900+ systems):

  • AC-coupled and DC-coupled configurations
  • Battery aging and cycle life simulation
  • Custom charge/discharge strategies
  • Self-consumption maximization
  • Individual tariffs per consumer (new in 2026)

EV charging (1,600+ vehicle models):

  • Daily mileage and parking schedule inputs
  • PV energy available for charging calculation
  • Cost per 100km when charged with solar

Heat pump integration:

  • Air-water heat pump modeling
  • Immersion heater integration
  • Combined PV + battery + heat pump optimization

Fraunhofer ISE research validates PV*SOL’s heat pump modeling approach, showing 42.9% self-consumption rates achievable with fully integrated PV+battery+heat pump systems, with heat pumps covering up to 36% of their electricity demand from PV/battery.

When Hybrid System Modeling Matters

If you design residential self-sufficiency projects in European markets where heat pump adoption is high, PV*SOL’s integrated modeling is genuinely unique. No other tool — not Aurora, not OpenSolar, not SurgePV — currently models all four systems simultaneously with Fraunhofer-validated accuracy.

Electrical Design

PV*SOL handles string design and electrical configuration:

  • Auto-stringing with polystring layout support
  • Inverter MPPT channel assignment
  • System voltage analysis and validation
  • DC and AC cable loss calculations
  • String sizing based on inverter specifications

Critical gap: PV*SOL does not generate Single Line Diagrams (SLDs) automatically. This is not a minor inconvenience for commercial EPCs — it is a substantial workflow problem. Every commercial project requiring electrical documentation needs a separate AutoCAD step, taking 2–3 hours of manual work.

Component Database (2026)

Component TypeCount
PV modules21,000+
Inverters5,100+
Battery systems1,900+
Electric vehicles1,600+
Utility rate structuresAvailable via climate data sources

All databases are maintained by manufacturers and updated with the active license. The component counts are solid for residential and commercial work, though smaller than some cloud-based platforms.

Reports and Documentation (2026)

New in 2026: PV*SOL added compact and detailed PDF/DOCX customer presentations with customizable branding, chapter selection, and technical documentation formatted for permit authority review. Reports are available in 24 languages. The software interface itself is available in 9 languages.

Also new in 2026: JSON export for CRM/ERP integration, and air conditioning, work-from-home, and retiree load profile templates.

User Reviews & Feedback

PV*SOL has limited English-language public reviews — the user base is heavily European and the software has a technical, engineering-focused audience that does not produce high review volume on platforms like G2 or Capterra.

G2 Comparative Ratings

G2 publishes comparative category scores for PV*SOL vs PVsyst based on available reviews:

CategoryPV*SOLPVsystAssessment
Ease of Use8.1/107.1/10PV*SOL leads
Layout Automation7.9/106.3/10PV*SOL leads
Energy Yield Assessment8.3/108.9/10PVsyst leads
Design & Engineering7.7/109.4/10PVsyst leads significantly
Financial Analysis6.9/108.9/10PVsyst leads significantly
Quality of Support7.2/108.8/10PVsyst leads

Top Praised Features

RankFeatureAssessment
1Advanced 3D shading simulationModule-level, hour-by-hour precision
2Hybrid system integrationPV + battery + EV + heat pump
3Full CAD compatibilityDXF, 3DS, DAE import
4Ease of use vs competitors8.1/10 vs PVsyst 7.1/10
5Global climate dataMeteonorm 9, 8,300 stations

Top Criticisms

RankIssueSeverity
1Windows-only, no cloudCritical for distributed teams
2No automated SLD generationCritical for commercial EPCs
3Dated interface, dense menusHigh — 4–6 week learning curve
4Performance on large projectsHigh — requires workstation hardware
5Weak financial analysisMedium — PVsyst is better for complex PPA modeling

User quotes from G2:

“User-friendly interface and straightforward navigation make it more accessible for beginners” — G2 Reviewer

“Engineering-focused tool that is highly technical, German-engineered, less of a sales tool and more of a pure engineering powerhouse” — G2 Reviewer

Research Validation

PVSOL’s simulation methodology has been validated in peer-reviewed research. A 2025 MDPI Sustainability study cited PVSOL outputs as part of its analysis. Fraunhofer ISE published research validating PV*SOL’s heat pump integration modeling, showing 42.9% self-consumption rates with integrated systems.

Pros & Cons

Pros

1. Best-in-Class Hybrid System Modeling — Unique Advantage

PV*SOL is the only major platform that simultaneously models PV, battery storage, EV charging, and heat pump integration with Fraunhofer ISE-validated accuracy. For European residential installers designing self-sufficiency systems, this is a genuine capability gap vs every competitor. Aurora Solar, OpenSolar, and SurgePV all lack native heat pump modeling.

2. Engineering-Grade 3D Shading Accuracy

Module-by-module, hour-by-hour shading simulation at 8,760-hour resolution. Dual simulation approach (with and without shading) reports precise yield reduction percentages. Multiple climate data sources (Meteonorm 9, PVGIS, NASA-SSE, Solcast) allow cross-validation. The shading analysis quality is comparable to PVsyst for residential and small commercial applications.

3. Competitive Pricing vs PVsyst

At €845/year (Premium 2026), PVSOL costs roughly half of PVsyst ($1,800–2,400/year) while delivering comparable energy yield accuracy for most projects. For engineers who need bankable simulation but cannot justify PVsyst pricing, PVSOL is the logical alternative.

4. Highest Ease-of-Use Rating Among Simulation Tools

PV*SOL scores 8.1/10 for ease of use on G2 — higher than PVsyst (7.1/10). The interface is dense, but the logic is consistent and the documentation is thorough. For technical professionals coming from engineering backgrounds, the learning curve is manageable.

5. Perpetual License Option

PV*SOL offers one-time purchase options alongside annual subscriptions. This matters for companies with multi-year budget planning who want cost predictability without forced subscription renewals. Maintenance is optional after the initial 6-month period.

6. Offline Capability

PV*SOL works offline after initial authentication. For engineers with unreliable internet access or strict data privacy requirements (government projects, sensitive client data), offline desktop operation has real value that cloud-based tools cannot match.

Cons

1. Windows-Only — No Mac, Linux, Cloud, or Mobile

This is not a minor limitation. PV*SOL runs exclusively on Windows 10/11 (64-bit). There is no browser version, no mobile app, no cloud access, no Linux support, and no macOS native build. Mac users must run virtualization software, adding cost and performance overhead. Remote and distributed teams cannot access projects without a full Windows installation.

2. No Automated SLD Generation — Critical for Commercial EPCs

PV*SOL does not generate Single Line Diagrams. For commercial projects requiring electrical documentation, this means a mandatory AutoCAD step ($2,000/year) plus 2–3 hours of manual SLD creation per project. At 50 projects per year:

  • AutoCAD license: $2,000/year
  • Manual labor (50 × 2.5 hours × $75/hour): $9,375/year
  • Total SLD overhead: approximately $11,375/year per designer

SurgePV generates automated, NEC Article 690-compliant SLDs in 5–10 minutes with no AutoCAD required.

3. 10,000 Module Hard Cap in 3D

PVSOL cannot model more than 10,000 modules in 3D mode. Performance degrades noticeably above 7,000 modules. This limits the software to projects under approximately 5–10MW in practice. PVSOL is not suitable for utility-scale solar development.

4. Dated Interface and Dense Menus

The interface reflects the software’s age. Settings are buried across multiple navigation levels, icons are not intuitive, and there is no modern UX guidance. The learning curve is 4–6 weeks — roughly double the 2–3 weeks for modern cloud tools. This directly raises onboarding costs for growing teams.

5. Resource-Intensive — Requires Workstation Hardware

Minimum requirements (official): Windows 10/11, 8GB RAM, multi-core processor, DirectX 11 graphics. Realistic requirements for acceptable performance: 16GB+ RAM (32GB for large projects), dedicated GPU, quad-core or higher CPU, SSD. Standard business laptops struggle with complex 3D simulations. Budget $800–1,500 per workstation above a typical business machine.

6. Weak Financial Analysis Relative to PVsyst

PVSOL’s financial analysis scores 6.9/10 on G2 vs PVsyst’s 8.9/10. For projects requiring complex financial modeling — PPAs, IRR analysis across multiple scenarios, detailed lifecycle cost studies — PVsyst is the stronger tool. PVSOL handles standard NPV, payback, and feed-in tariff scenarios adequately, but not complex financing structures.

7. Support Limited to German Business Hours

Support is available via email and phone (Mon–Thu 9am–12pm / 1pm–3pm, Fri 9am–12pm Berlin time). No live chat, no 24/7 support, no weekend coverage. For teams in North American or Asian time zones, the support window is narrow. Support quality score on G2: 7.2/10 vs PVsyst 8.8/10.

Need Automated SLD Generation Without AutoCAD?

SurgePV generates complete, NEC Article 690-compliant Single Line Diagrams in 5–10 minutes — no AutoCAD, no manual work, no extra cost.

Book a Demo

No commitment required · 20 minutes · Live project walkthrough

PV*SOL vs SurgePV

Head-to-Head Feature Comparison

FeaturePV*SOL PremiumSurgePVWinner
PlatformWindows desktop onlyCloud (any browser, any device)SurgePV
Mac supportNo (virtualization required)Yes (native browser)SurgePV
Automated SLD generationNo (AutoCAD required)Yes (5–10 min automated)SurgePV
3D shading analysisEngineering-grade, module-levelAI-powered, ±3% vs PVsystTie
Hybrid system modelingPV + battery + EV + heat pumpPV + battery + EV (heat pump roadmap)PV*SOL
Commercial structuresStandard onlyCarports, trackers, East-WestSurgePV
Module database21,000+70,000+SurgePV
ProposalsPDF technical reportsInteractive web proposalsSurgePV
Team collaborationFile-based onlyReal-time cloudSurgePV
Learning curve4–6 weeks2–3 weeksSurgePV
Annual cost (no AutoCAD needed)~€845/year$1,499/user/yearPV*SOL (single user)
Annual cost (commercial EPC with SLD)~$2,920/year + labor$1,499/user/year all-inSurgePV
Financial analysis6.9/10 (G2)Built-in generation + financial toolSurgePV

Commercial Project Workflow Comparison

Scenario: 250kW commercial rooftop with battery storage requiring electrical documentation for permit submission.

StepPV*SOL + AutoCADSurgePV
Roof design and layout30–60 min25–40 min (AI-assisted)
Shading analysis30–60 minAutomated (under 60 seconds)
Battery storage configuration20–30 min15–20 min
SLD generation2–3 hours (manual, AutoCAD)5–10 min (automated)
Wire sizing30–60 min (manual)Instant (automated)
Financial analysis and proposal20–30 min20–30 min
Total time4–5 hours70–105 minutes
Additional tools requiredAutoCAD ($2,000/year)None

Annual productivity impact (50 commercial projects/year):

  • Time saved per project: 2.5–3.5 hours
  • Annual time saved: 125–175 hours
  • Labor value at $75/hour: $9,375–13,125/year
  • Software cost savings (AutoCAD eliminated): $2,000/year
  • Net annual value: approximately $11,375–15,125 per designer

When PV*SOL Makes Sense Over SurgePV

PV*SOL is the better choice in specific scenarios:

  1. Complete heat pump modeling is required — Fraunhofer-validated PV+battery+EV+heat pump optimization is unique to PV*SOL. If this is central to your projects, there is no equivalent alternative.
  2. Offline work is mandatory — Government projects, sensitive client data, or field locations with no internet access benefit from local desktop storage.
  3. Windows-only environment with no Mac users — If the entire team runs Windows workstations, the platform limitation is irrelevant.
  4. No commercial electrical documentation needed — Engineering consultants who handle SLDs through a separate internal CAD workflow won’t miss the automation.
  5. Single-user operation, cost-sensitive — For a single engineer, €845/year is cheaper than SurgePV’s per-user pricing.

PV*SOL vs PVsyst

This comparison matters — “pvsol vs pvsyst” is already ranking at position 1.0 in search, meaning searchers are finding this content and clicking. The comparison deserves detail.

Both tools are desktop-only simulation software targeting engineers and EPCs. The differences are significant:

CategoryPV*SOLPVsyst
Annual price€845/year$1,800–2,400/year
Ease of use (G2)8.1/107.1/10
Layout automation (G2)7.9/106.3/10
Energy yield assessment (G2)8.3/108.9/10
Financial analysis (G2)6.9/108.9/10
Design & engineering (G2)7.7/109.4/10
Support quality (G2)7.2/108.8/10
Heat pump integrationYes (Fraunhofer-validated)No
Mac supportNoNo
SLD generationNoNo
Utility-scale capabilityLimited (10k module 3D cap)Strong

When to choose PV*SOL over PVsyst:

  • Budget is a constraint — PV*SOL costs roughly half as much
  • Projects require heat pump integration modeling
  • Ease of use and faster onboarding matter to the team
  • Layout automation speed is important

When to choose PVsyst over PV*SOL:

  • Utility-scale projects requiring deep financial modeling (IRR, PPA structures, P90 bankability for lenders)
  • Projects where PVsyst is specifically required by the financing entity
  • Need the deepest available design and engineering depth (9.4/10 vs 7.7/10)

Neither tool generates SLDs automatically. Both are Windows-only. Both require AutoCAD for commercial electrical documentation. If automated SLD generation and cloud access are required, neither PV*SOL nor PVsyst is the right choice — see SurgePV or Aurora Solar instead.

PV*SOL Alternatives

SurgePV

SurgePV is a cloud-based solar design software platform built for commercial EPCs. It handles design, automated SLD generation, shading analysis (±3% vs PVsyst accuracy), battery integration, EV charging, financial modeling, and interactive web proposals in one tool. No AutoCAD required. Works on any device, including Mac. Best for commercial EPCs processing 20+ projects per month who need fast, permit-ready electrical documentation. See the full comparison in the section above.

PVsyst

PVsyst is the industry standard for bankable utility-scale energy yield studies. At $1,800–2,400/year, it costs roughly 2–3x more than PV*SOL but offers stronger financial modeling (8.9/10 vs 6.9/10) and deeper engineering analysis (9.4/10 vs 7.7/10). Read our PVsyst review for a detailed comparison. Best for large-scale EPCs and developers requiring lender-grade P90 reports.

Aurora Solar

Aurora Solar is a US-focused, cloud-based design and proposal platform primarily for residential installers. It is fast, visually polished, and sales-optimized. Pricing is subscription-based and not publicly disclosed. Aurora lacks heat pump integration and battery+EV optimization depth. Best for residential sales teams in the US who need fast proposals and integrated financing tools.

HelioScope

HelioScope by Folsom Labs is a web-based simulation tool strong for commercial ground-mount and rooftop systems. It does not model battery storage, EV charging, or heat pumps. Best for commercial and utility-scale designers who need fast, web-based energy yield simulation without complex hybrid system modeling.

OpenSolar

OpenSolar is a free cloud-based design and proposal platform. It has basic battery modeling but no EV or heat pump integration. Best for small residential installers looking for a no-cost entry point. Not suitable for complex engineering analysis or commercial electrical documentation.

SAM (System Advisor Model)

SAM by NREL is free, open-source simulation software used primarily in academic and research contexts. It offers deep financial modeling but requires significant technical expertise. Best for researchers, analysts, and academics — not for day-to-day commercial design workflows.

Who Should Use PV*SOL?

PV*SOL Is the Right Choice If:

  1. You design complete hybrid self-sufficiency systems — PV + battery + EV + heat pump integration with Fraunhofer ISE validation is PV*SOL’s only truly unique advantage. European residential installers and consultants designing modern all-electric homes with heat pumps will find no equivalent tool.

  2. You are a single engineer on a tight budget — €845/year is competitive, and if you handle SLDs through a separate team or existing CAD workflow, the automation gap is less painful.

  3. You need bankable simulation at a price below PVsyst — PVSOL’s energy yield assessment scores 8.3/10 on G2 and the methodology has peer-review validation. If PVsyst is too expensive, PVSOL delivers comparable accuracy for most residential and commercial applications.

  4. Your team is Windows-only and offline work matters — If internet connectivity is unreliable or data privacy requirements mandate local storage, PV*SOL’s desktop architecture is a feature, not a bug.

  5. You are a student or educator — The €90/year student license is genuinely accessible. PV*SOL is used in university engineering programs as a teaching tool.

PV*SOL Is Not the Right Choice If:

  1. You need automated SLD generation — Every commercial project requiring electrical permit documentation will require AutoCAD and hours of manual work.

  2. Your team uses Macs or works remotely — No cloud access and no macOS support make distributed teams unworkable without significant infrastructure investment.

  3. You design projects above 10MW — The 10,000 module 3D hard cap and performance degradation above 7,000 modules make PV*SOL unsuitable for utility-scale development.

  4. You are a sales-first installer — PV*SOL produces technical PDF reports, not interactive client proposals. The workflow is not optimized for rapid proposal generation or client-facing presentations.

  5. You need complex financial modeling — IRR analysis across multiple scenarios, complex PPA structures, and lender-grade bankability reports are better handled by PVsyst or dedicated financial modeling tools.

Frequently Asked Questions

How much does PV*SOL cost in 2025 and 2026?

PV*SOL Premium 2026 costs €845/year plus VAT as a named user annual license. The Standard (2D) version is €585/year. The student license is €90/year (180 days, one per person). A 30-day free trial is available.

For commercial EPCs requiring electrical documentation: add AutoCAD ($2,000/year) and approximately 2–3 hours per project for manual SLD creation. The all-in cost for commercial EPC workflows is approximately $2,920/year in software alone, plus $9,375 in annual labor for SLD work at 50 projects per year.

Does PV*SOL work on Mac?

No. PVSOL is Windows-only. Mac users must run Parallels Desktop (approximately €100/year) or Boot Camp with a Windows license (approximately $140) to run PVSOL. Virtualization adds performance overhead that is noticeable during 3D rendering on complex projects.

What is the difference between PVSOL Standard and PVSOL Premium?

PV*SOL Standard (€585/year) offers 2D shading analysis, basic solar system design, energy yield calculations, and financial reporting. It has no 3D modeling capability.

PV*SOL Premium (€845/year) adds full 3D building modeling, advanced shading with terrain, LIDAR and CAD file import, PhotoPlan tool, Google Solar API integration, and support for up to 7,500 mounted or 10,000 roof-parallel modules. For any professional design workflow involving complex shading or multi-roof systems, Premium is the required version.

Can PV*SOL generate Single Line Diagrams?

No. PVSOL does not include automated SLD generation. Commercial EPCs must export electrical data from PVSOL and manually create SLDs in AutoCAD. This adds $2,000/year in AutoCAD licensing and 2–3 hours of manual work per commercial project.

SurgePV generates automated, permit-ready SLDs in 5–10 minutes with no external tools required.

How does PV*SOL compare to PVsyst?

PV*SOL is easier to use (8.1/10 vs 7.1/10), significantly cheaper (€845/year vs $1,800–2,400/year), and better at layout automation (7.9 vs 6.3). PVsyst leads on financial analysis (8.9 vs 6.9), engineering depth (9.4 vs 7.7), energy yield accuracy for large projects, and support quality (8.8 vs 7.2).

For most residential and commercial projects, PV*SOL’s energy yield accuracy is sufficient. For utility-scale projects requiring lender-grade P90 bankability or complex PPA financial modeling, PVsyst is the stronger tool.

Is there a PV*SOL online version?

Yes, but it is very limited. PVSOL Online is a free browser-based calculator for basic yield estimates only. It has no 3D modeling, no shading analysis, no battery or EV integration, and no report export. The full-featured PVSOL software requires a Windows desktop installation.

What hardware do I need to run PV*SOL?

Official minimum requirements: Windows 10/11 (64-bit), 8GB RAM, multi-core processor, DirectX 11 graphics card. Realistic requirements for acceptable performance on complex 3D projects: 16GB+ RAM (32GB preferred for large systems), dedicated GPU (integrated graphics are not sufficient), quad-core or higher CPU, SSD storage. Budget $800–1,500 above a standard business laptop for a workstation capable of running PV*SOL well.

Final Verdict

PV*SOL Executive Summary

PV*SOL is technically solid software with 26 years of continuous development, peer-reviewed validation, and a specific set of capabilities that no competitor matches — particularly its complete PV+battery+EV+heat pump hybrid system modeling.

Where it earns its rating:

  • Fraunhofer ISE-validated heat pump integration: unique in the industry
  • 8.1/10 ease of use: highest among simulation tools
  • Competitive pricing at €845/year vs PVsyst’s $1,800–2,400/year
  • Meteonorm 9, 8,300 climate stations: strong global coverage

Where it falls short:

  • No automated SLD generation: a direct cost of ~$11,375/year per commercial EPC designer (AutoCAD + labor)
  • Windows-only with no cloud: incompatible with modern distributed team workflows
  • 10,000 module 3D cap: excludes utility-scale projects
  • Dated interface: 4–6 week learning curve, higher onboarding cost
  • Financial analysis (6.9/10): not sufficient for complex PPA or lender-grade studies

The Decision Framework

Choose PV*SOL when:

  • Heat pump integration is central to your project type
  • You are a single engineer on a Windows workstation with no SLD automation needs
  • You need bankable simulation accuracy at half the cost of PVsyst
  • Offline capability or data privacy requirements mandate local desktop software

Choose SurgePV when:

  • Commercial projects require automated SLD generation (eliminates AutoCAD and 2–3 hours per project)
  • Your team uses Macs or works across devices and locations
  • You need cloud collaboration and real-time project sharing
  • You design carport solar, trackers, or East-West racking
  • Faster onboarding (2–3 weeks vs 4–6 weeks) matters as your team scales

Choose PVsyst when:

  • Projects require utility-scale bankability with lender-grade P90 reports
  • Complex financial modeling (PPAs, detailed IRR, multi-scenario analysis) is central
  • Your engineering workflow specifically requires PVsyst certification or client-mandated reports

Value Analysis

For a single residential consultant focused on self-sufficiency systems in European markets, PV*SOL at €845/year is good value. The heat pump modeling is unique, the pricing beats PVsyst, and the simulation accuracy is sufficient.

For a commercial EPC team handling 30+ projects per month, the calculation is different:

Cost CategoryPV*SOL + AutoCADSurgePV
Software (per user/year)€845 (~$920)$1,499
AutoCAD$2,000$0
Manual SLD labor (30 projects × 2.5 hrs × $75)$5,625$0
Total annual cost per designer~$8,545$1,499

At that scale, SurgePV saves approximately $7,000 per designer per year in combined software and labor costs.


Take the Next Step


Platform Comparisons:

  • PVsyst Review — Detailed analysis of PVsyst pricing, features, and when it beats PV*SOL
  • Arka360 Review — All-in-one design and CRM platform comparison

Feature Deep Dives:


This PVSOL review was written by Keyur Rakholiya, Contributing Writer at SurgePV and MD & CEO of Heaven Green Energy Limited, with 1+ GW of solar project experience and hands-on testing of 20+ design software platforms. All PVSOL information is sourced from official Valentin Software documentation (valentin-software.com), G2 comparative ratings, and Fraunhofer ISE research publications. We disclose our company affiliation transparently.

Review published: 2026-03-08 | Next review: June 2026

About the Contributors

Author
Rainer Neumann
Rainer Neumann

Content Head · SurgePV

Rainer Neumann is Content Head at SurgePV and a solar PV engineer with 10+ years of experience designing commercial and utility-scale systems across Europe and MENA. He has delivered 500+ installations, tested 15+ solar design software platforms firsthand, and specialises in shading analysis, string sizing, and international electrical code compliance.

Editor
Keyur Rakholiya
Keyur Rakholiya

CEO & Co-Founder · SurgePV

Keyur Rakholiya is CEO & Co-Founder of SurgePV and Founder of Heaven Green Energy Limited, where he has delivered over 1 GW of solar projects across commercial, utility, and rooftop sectors in India. With 10+ years in the solar industry, he has managed 800+ project deliveries, evaluated 20+ solar design platforms firsthand, and led engineering teams of 50+ people.

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