Address-aware solar context
Resolve a Romanian project address into geographic coordinates and use that location as the context for solar position, sunrise, sunset and regional production assumptions.
05 / Energy systems
3D Solar System Configurator
Model the roof. Simulate the energy day.
A location-aware photovoltaic configurator connecting roof geometry, panel fit, real solar position, household demand and battery storage in one visual energy model.
Launch full configurator ↗Shared platform DNASix forces.
Six forces.
One product state.
Every deployment is built on the same connected commercial and spatial foundation—even as the product category changes.
XY
01ACTIVE FACE
Bill of Materials
The approved visual state resolves into an exact component structure: profiles, panels, glass, hardware, accessories and quantities ready for downstream work.
Signal pathGeometry → components
System overview
Model the roof. Simulate the energy day.
A location-aware photovoltaic configurator connecting roof geometry, panel fit, real solar position, household demand and battery storage in one visual energy model.
Capabilities / 06
What the system resolves.
Real sun and seasons
Scrub time of day, date, season and roof-front bearing while the visible light direction and photovoltaic production profile respond to the same environmental state.
Parametric solar roof
Move between two-slope, four-slope and single-slope roofs, then adjust length, depth and pitch while the building and available panel surfaces rebuild together.
Physical PV array fit
Choose the number of requested modules and roof plane; the preview arranges a real-size residential array and keeps the installed system power tied to panels that actually fit.
Demand and storage model
Compare household consumption profiles, enable LiFePO₄ storage and tune battery capacity to see how generation, self-consumption and grid exchange change across the day.
Energy analytics
Open a focused production-versus-consumption workspace with daily generation, household demand, self-sufficiency, grid import and export presented as one decision-ready view.
Resolved stateFrom visual decision
From visual decision
to usable output.
- 01System estimate
- 02Installed kWp
- 03Daily energy profile
- 04Storage scenario
3D photovoltaic planning
Configure the roof, PV array and household energy model together.
The 360Configurator solar tool connects roof geometry, panel fit, geographic context, sun position, household demand and battery storage in one interactive model. It is designed to show not only how a photovoltaic system sits on the roof, but also how system size and consumption assumptions affect the energy picture.
How it works
From location and roof geometry to a daily energy scenario in five steps.
The solar workflow combines spatial fit with energy assumptions so the PV system can be reviewed as both a roof-mounted product and an energy system.
- 01
Set the location and orientation
Use the project location and roof-front bearing as the environmental context for sun position and production assumptions.
- 02
Configure the roof
Choose the supported roof family and adjust its dimensions and pitch so the available photovoltaic surfaces match the building.
- 03
Fit the PV array
Choose the requested module count and roof plane; the configurator arranges residential-size modules on the usable roof surface.
- 04
Model demand and storage
Select a household consumption profile and enable or size LiFePO₄ battery storage to compare how solar production is used through the day.
- 05
Review the energy result
Inspect installed kWp, production, household demand, self-sufficiency, grid import/export and the daily production-versus-consumption profile.
What you can configure
Connect the physical solar layout to the energy decisions behind it.
A useful PV configuration needs more than panel count. Roof fit, orientation, consumption timing and storage all influence the result.
Location & sun
Define the environmental context for the current system.
- Project address / coordinates
- Roof-front bearing
- Time and date
- Seasonal sun position
- PVGIS-calibrated / exact-site data where available
Roof & panel fit
Build the physical surface on which the PV system has to fit.
- Two-slope roof
- Four-slope roof
- Single-slope roof
- Roof dimensions and pitch
- Real-size module placement
Consumption & storage
Test how household behavior changes the value of the same PV array.
- Residential consumption profiles
- Annual consumption input
- LiFePO₄ battery
- Automatic or manual battery sizing
Energy & commercial view
Review the resulting system as a daily energy scenario.
- Installed kWp
- PV production
- Self-sufficiency
- Grid import and export
- System estimate
Why configure in 3D
A solar proposal that connects roof fit with energy behavior.
Panel layout and energy performance are often discussed in separate tools. Combining them makes it easier to explain why a system has a certain size, where the modules fit and how consumption or battery assumptions change the result.
For the homeowner
See where the array sits on the roof and compare production, consumption and storage assumptions in one understandable view.
For sales teams
Keep roof geometry, panel count, installed power and the energy scenario synchronized during the same proposal conversation.
For technical planning
Use site context, roof fit and PVGIS-backed data where available as a stronger starting point for a more detailed engineering workflow.
Solar configurator FAQ
Common questions about the 3D solar configurator.
01Which roof types can I use for the solar layout?+
The current configurator supports two-slope, four-slope and single-slope residential roof families.
02Can I change the roof dimensions and pitch?+
Yes. Roof length, depth and pitch are configurable and the available panel surfaces rebuild with the roof.
03Does the configurator use the project location?+
Yes. Location is used as context for sun position and site-specific production assumptions; the project also supports PVGIS data through its configured proxy workflow.
04Are the panels placed at a physical size?+
Yes. The current preview uses residential module dimensions and keeps installed power tied to modules that fit on the selected roof plane.
05Can I model household consumption?+
Yes. The configurator includes several daytime consumption profiles plus an annual consumption input for the energy model.
06Can I add battery storage?+
Yes. LiFePO₄ storage can be enabled, automatically sized or manually adjusted within the available controls.
07Which energy results are shown?+
The current analysis includes PV production, household demand, self-sufficiency, grid import, grid export, storage and installed system power.
Try the actual product
Build a roof-mounted PV scenario in the browser.
Open the solar configurator to test roof geometry, module fit, sun position, household demand and battery storage, or contact us about a configurator for your own energy product.