Across 5 modelled locations in Hungary, a standard 10 kWp south-facing system produces about 12,384 kWh in a typical year on average. Tomorrow's weather-based city forecasts range from 42.5 to 52.8 kWh for the same reference setup.
Forecast for Tuesday, September 1, 2026 · Updated Aug 30, 2026, 11:01 PM UTC · City samples, not a national production forecast
Forecast target: . Any “tomorrow” label on this page refers to this dated target.
Tomorrow in Hungary
One system. Different local weather.
Using the same installation in every location isolates the effect of weather and geography. Enter your own roof on any city page for a personal estimate.
City average
47.1 kWh
Lowest city estimate
42.5 kWh
Highest city estimate
52.8 kWh
How to read and use the data
Hungary solar outlook: tomorrow's city forecasts versus PVGIS yield
This page compares 5 modelled locations on one reference system. It is a city comparison tool, not a measurement or forecast of national solar generation.
Dated, weather-based
Tomorrow's forecast
For Tuesday, September 1, 2026, the 10 kWp city estimates average 47.1 kWh and span 42.5 kWh–52.8 kWh. That span is geographic variation between modelled cities, not an uncertainty interval or national forecast.
Multi-year climate baseline
PVGIS specific yield
The modelled cities average about 1,238 kWh/kWp in the PVGIS typical-year profile. Across the 10 kWp reference systems, typical annual output ranges from 11,921 to 12,709 kWh. July has the highest modelled average monthly output and December the lowest.
3, 5 and 10 kWp reference systems
Scale the same assumptions to your system size
SystemTomorrow city average (city spread)PVGIS typical year
3 kWpTomorrow city average (city spread)14.1 kWh12.8 kWh–15.8 kWhPVGIS typical year3,715 kWh/year
5 kWpTomorrow city average (city spread)23.5 kWh21.3 kWh–26.4 kWhPVGIS typical year6,192 kWh/year
10 kWpTomorrow city average (city spread)47.1 kWh42.5 kWh–52.8 kWhPVGIS typical year12,384 kWh/year
Linear reference scaling only: south-facing, 35° tilt and 14% system losses. It does not resize inverter clipping, shade or local roof constraints.
From forecast to a household plan
Battery, EV, heat pump and flexible loads
Choose the nearest representative city before scheduling equipment. A country average can frame the day, but a local forecast and the home's own demand determine usable surplus.
Open the closest city profile and preserve battery headroom around its strongest forecast window. The 42.5 kWh–52.8 kWh country spread shows why one national schedule would be unreliable.
Shift only discretionary water heating or pre-heating after checking the nearest city's strongest hours. Comfort, frost protection and hygiene controls take priority.
Country figures are daily energy, not simultaneous power. Use a city forecast and run flexible loads sequentially after allowing for base household consumption.
Local questions
Solar forecast FAQ
How much could a 5 kWp solar system produce tomorrow in Hungary?
Across the 5 modelled locations, the 5 kWp estimates average 23.5 kWh for Tuesday, September 1, 2026 and span 21.3 kWh–26.4 kWh between cities. The spread is geographic, not a national uncertainty range.
Which modelled Hungary location has the highest typical PV output?
Szeged has the highest and Miskolc the lowest typical annual output among the 5 locations in this dataset. The comparison uses the same 10 kWp reference system and PVGIS climate profile.
Is the Hungary city range a national solar forecast?
No. It is the minimum-to-maximum spread across 5 modelled city reference points. It does not aggregate installed solar systems, represent every local weather condition or provide a national generation total.
How should I use the Hungary forecast for a battery, EV or heat pump?
Select the nearest city and use its strongest forecast hours, then subtract household base load and respect battery, charger and heat-pump operating limits. Use the country page to compare locations, not to control equipment directly.
The bars average the 5 city reference points. Typical annual output ranges from about 11,921 to 12,709 kWh for the 10 kWp setup. Of the locations modelled, Szeged has the highest typical annual output and Miskolc the lowest.
528Jan
687Feb
1116Mar
1271Apr
1349May
1384Jun
1459Jul
1414Aug
1167Sep
972Oct
598Nov
440Dec
January528 kWh
February687 kWh
March1,116 kWh
April1,271 kWh
May1,349 kWh
June1,384 kWh
July1,459 kWh
August1,414 kWh
September1,167 kWh
October972 kWh
November598 kWh
December440 kWh
Typical monthly profiles use the European Commission JRC PVGIS multi-year climate series.