Photovoltaic Designer · Full study

Solar Studio

Model your installation to measure: multiple fields with their own orientation, inverter with clipping and string check, battery with self-consumption simulation, and the grid earthing system (IT, TT, TN-C, TN-S, TN-C-S).

◉ Site and solar resource

Latitude · Longitude (°). 📍 detects your position.
Major cities of the European Economic Area (alphabetical).
0 = estimate from climate. Use PVGIS/NASA if known.
0,2 typical · snow 0,5–0,8 (relevant in nordic climates).
For string voltage check (Voc cold / Vmp hot).

▦ Fields / sub-arrays

Add one field per roof face or orientation. All fields are summed. The string check uses the module of Field 1.

⎓ Inverter

✓ Check and sizing

▰ Battery

Include battery in the system

The simulation dispatches energy hour by hour: first to load, surplus charges the battery and the rest is exported; at night the battery covers the load before importing from the grid.

⏚ Grid system and earthing

In Norway, IT (old grid) and TN-C-S are common.
Single-phase Three-phase

Indicative engineering info; final protection must be defined by a licensed installer per local code (e.g. NEK 400 in Norway, IEC 60364).

⌂ Consumption and economics

Temperature, soiling, wiring, mismatch (without inverter).

▤ Monthly balance

■ Self-consumption ■ Exported ■ Imported — Consumption

⇄ Annual energy flow

◔ Self-sufficiency

€ Economics

⚙ System

Self-sufficiency and self-consumption use an hourly model of a representative day per month; these are estimates (excluding day-to-day variability or point shading). For a real project, validate with measured data and a shading study.