The operating platform for photovoltaic engineering

Engineering on autopilot.

The future of PV design is not drawing faster. It is letting the computer do the work while you keep every decision.

Designing. Non-stop.
Sunlight at 2h
Priority
Balanced
Modules
20
Inverters
1
Installed
8.10 kWp
Yearly yield
13,162 kWh

The PVStructor universe

One ecosystem. Every tool in orbit.

Available In formation
  • Auto-design The best module-inverter pair, found for you.
  • Simulation Monthly yield from published models.
  • 3D modelling The roof and its surroundings in 3D.
  • Shading Beam loss every 5 cm, over a year.
  • Climate data NASA POWER at the site’s coordinates.
  • Scenarios Cold, average and hot years.
  • Catalogue Modules and inverters, ready to use.
  • Demand Monthly load profiles.
  • Tariffs Energy, grid and tax components.
  • Teams Shared projects and permissions.
  • History Every change on record.
  • Proposals Interactive proposals shared by link.
  • Financial Payback, cash flow and ROI.
  • Reports Always-current technical reports.
  • Marketplace Components, templates and algorithms.
  • APIs The engine inside your own tools.
  • CAD/BIM Export to your drawing tools.
  • Live collaboration Several engineers, one project, at once.
  • Versions Compare and restore any version.
  • Terrain A drawn polygon becomes 3D ground.
  • Diagrams Single-line diagrams from the design.
  • Integrations CRMs and the tools you already use.
  • Flows Your own automated workflows.

The autopilot

Same destination. No detours.

The usual way

Round 1
  1. 1 Engineer
  2. 2 Picks a module
  3. 3 Sizes
  4. 4 Moves modules
  5. 5 Simulates
  6. 6 Fixes
  7. 7 Simulates again

Every fix sends you back.

PVStructor

Final design
  1. 1 Your goal
  2. 2 Autopilot works
  3. 3 Suggests
  4. 4 You change it
  5. 5 Autopilot adapts
  6. 6 Final design

Your change is an input, never a restart.

You never lose control. The platform only takes the repetitive work.

Live demo

Fly it yourself.

A real consumer in Rio de Janeiro. Real engine results.

PVStructor · Auto-design
Ready Designing Designed

Priority

Adjust. Results follow.

20°
0° N
Copilot

This is the best plane for this site.

Scenario

Pick module, inverter and strings
Site Inhaúma, Rio de Janeiro · -22.87°, -43.28°
Consumer Commercial
Demand 1,000 kWh a month · 12,000 kWh a year
Climate (NASA POWER) 4.71 kWh/m² a day · 13.9 °C to 37.9 °C
Grid Three-phase · 127 V · 60 Hz
Mounting Ground, fixed racks
Catalogue 389 modules · 183 inverters
  1. NASA POWER climate loaded
  2. 16,008 module-inverter pairs tested
  3. 7,798 within the IEC 62548-1 limits
  4. Ranked by your priority
  5. Design ready in s
Modules
Chosen by the autopilot
Inverters
Chosen by the autopilot
Installed
Chosen by the autopilot
Yearly yield 13,162 kWh
kWh/kWp 1,624.938
Capacity factor 18.5%
Demand covered (Real)

Figures precomputed by the PVStructor engine for this site; every slider position is its own simulation.

Scientific simulation

Precise enough for research. Fast enough for the market.

Irradiance on the plane Klein & Theilacker (1981)
Cell temperature King, Boyson & Kratochvil, Sandia (2004)
Shading and bypass diodes Martínez-Moreno, Muñoz & Lorenzo (2010)
Energy yield Freitas & Dill (2018)
Yearly yield 13,161.65 kWh
+0%

Same design, same site. Only the model changes.

For integrators

It does not just save hours. It sells more.

A good proposal is not a document. It is your company’s best sales argument.

The usual integrator

  • Designed by hand
  • Static PDF
  • Dozens of technical pages
  • Days per change
Slower answers, fewer sales

With PVStructor

  • Design on autopilot
  • Proposal in minutes
  • Changes on the spot
  • A client who understands
More proposals, more sales

Simulate it on your operation

Your numbers, your assumptions.

Projects today
Capacity with automation
Sales today
Estimated sales
Monthly revenue today
Estimated monthly revenue

An illustration built only on the figures you enter, not a promise. Real results depend on each company’s sales and operations.

Interactive proposals In development

The proposal stops being a PDF. It becomes an experience.

Example client
System
8.10 kWp
Yearly yield
13,162 kWh
Yearly saving
Payback
Client Could we use all-black panels?
Applied live
10:00
Drag to turn

Residential project

20 × JA SOLAR JAM54D30-405/GB · 1 × GoodWe GW8.5K-MS-G40

Shared as a link
3D model the client can turn
Comments and change requests
Scenarios side by side
Know when it was opened
An always-current PDF

Production

Monthly yield, from the engine

Saved by that year years

Tariff and price are example values; change them. Flat tariff, no degradation.

A well-executed project convinces engineers. A well-presented proposal convinces clients. PVStructor was built to deliver both.

One project

Four ways to read it.

Yearly yield 13,162 kWh
Demand covered (Real) 109.683%
Modules + inverters 20 + 1
Installed 8.10 kWp

What to sell, and what it delivers.

Highest Voc 383.7 V
Lowest Vmp 265.6 V
MPPT inputs 3
Strings × modules 2 × 10

Every limit checked on the coldest morning and the hottest afternoon.

Climate scenarios 3
Cold vs hot year 6.6%
Planes simulated 130
Climate source NASA POWER

Published models, reproducible runs.

Best tilt / azimuth 25° / 0°
Specific yield 1,624.938 kWh/kWp
Winning score 0.9726
Pairs tested 16,008

Every number shows where it came from.

Scroll for the next profile

Manifesto

Engineering has always moved forward when it stopped spending time on repetitive work.

The drawing board gave way to CAD.

CAD gave way to modelling.

Now it is the turn of automation-driven engineering.

The professional stays in command. The computer takes the operational work.

That is PVStructor.

Early access

Get in before the launch.

We are choosing the partners who will shape the future of PV engineering.

  • Full access before launch
  • Founding-member terms
  • A say in the roadmap

Who are you?

Used only to answer this request. Never shared.