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configuration.ini
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# Configuration file
#
# This file is to be used to customize your computation of a user-defined
# pv system using data from DWD (mosmix-data via the "wetterdienst" python package).
#
[DWD]
# DWD Station Name / Number
# Use : https://wettwarn.de/mosmix/mosmix.html to find closest station to you
#
# Station P0031 is closest to my home location:
# Muelheim
DWDStation = P0031
#
# To compare forecasted and measured irradiance values, it is also possible to
# use a DWD-Station that provides measurement data (unfortunatelly the station
# next to me doesn't). This may be useful to cross-check the assumptions of the
# irradiance model used, since the DWD-History provides measured irradiances as well.
DWDStationHistory = 1078
#
# Modes of computation:
# Mode = from_history -> use historic wheather data for calculation
# Mode = from_file -> use wheather data from from file (currently not supported)
# Mode = None -> use DWD forecast data.
Mode = from_history
#Mode = None
[SolarSystem]
# GPS Longitude of your solar system (use google maps etc. to find out)
Longitute = 6.86
# GPS Latitude of your solar system (use google maps etc. to find out)
Latitude = 51.4
#Altitude [m] of your solar system´s location
Altitude = 90
# Elevation [Degrees]: Inclination angle of solar panels (0 degrees would be horizontal)
Elevation = 40
#
# To build up a system consisting of two rooftop panel-clusters (e.g. in my case 7 panels on the east-side
# and 8 panels on the west side individual azimuths and number of panels can be defined.)
#
# EAST ROOF:
# Azimuth [Degrees] of your panels: Orientation - where 270=West, 180=South, 90=East
Azimuth_1 = 101
# NumPanels [int] Number of panels per string in the solar system 1
NumPanels_1 = 7
#
# WEST ROOF
#
Azimuth_2 = 281
# NumPanels [int] Number of panels per string in the solar system 2
NumPanels_2 = 8
# NumStrings [int] Number of strings in the solar system
# Albedo of your surrondind SolarSystem´s environment [%] with 100% = 1
# Please see below for typical values:
# https://pvpmc.sandia.gov/model…-ground-reflected/albedo/
Albedo = 0.14
#
# Please also see the pvlib documentation: https://pvlib-python.readthedocs.io/en/stable/api.html?highlight=TEMPERATURE_MODEL_PARAMETERS#pvlib.temperature.TEMPERATURE_MODEL_PARAMETERS
# Closest match for roof mounted systems seem to be the open_rack ones:
TEMPERATURE_MODEL = open_rack_glass_polymer
#
#
InverterName = Kostal_Plenticore__Plus_4_2
#InverterName = Kostal_Solar_Electric__Piko_5_3_US
#
# ModuleName [string] - Name of the solar modules of your solar system
# e.g: .../python3.5/dist-packages/pvlib/data
# My modules are currently not included in the pvlib-data, but it is possible
# to download the data directly from NREL/SAM repository, which is quite more up-to-date:
# https://github.com/NREL/SAM/tree/develop/deploy/libraries
ModuleName = LG_Electronics_Inc__LG355N1C_V5
#
#https://pvlib-python.readthedocs.io/en/stable/timetimezones.html
# All times used are UTC
MyTimezone = UTC