@ -6,6 +6,7 @@ config_webrx: configuration options for OpenWebRX
This file is part of OpenWebRX ,
an open - source SDR receiver software with a web UI .
Copyright ( c ) 2013 - 2015 by Andras Retzler < randras @sdr.hu >
Copyright ( c ) 2019 - 2020 by Jakob Ketterl < dd5jfk @darc.de >
This program is free software : you can redistribute it and / or modify
it under the terms of the GNU Affero General Public License as
@ -16,6 +17,7 @@ config_webrx: configuration options for OpenWebRX
but WITHOUT ANY WARRANTY ; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE . See the
GNU Affero General Public License for more details .
You should have received a copy of the GNU Affero General Public License
along with this program . If not , see < http : / / www . gnu . org / licenses / > .
@ -28,61 +30,55 @@ config_webrx: configuration options for OpenWebRX
( It means that you do not have to redistribute config_rtl . py and
config_webrx . py if you make any changes to these two configuration files ,
and use them for running your web service with OpenWebRX . )
portions inspired by http : / / gephi . michalnovak . eu / config_webrx . py
"""
# configuration version. please only modify if you're able to perform the associated migration steps.
version = 2
# NOTE: you can find additional information about configuring OpenWebRX in the Wiki:
# https://github.com/simonyiszk/openwebrx/wiki
# https://github.com/jketterl/openwebrx/wiki/Configuration-guide
# ==== Server settings ====
web_port = 8073
server_hostname = " localhost " # If this contains an incorrect value, the web UI may freeze on load (it can't open websocket)
max_clients = 20
web_port = 8073
max_clients = 10
# ==== Web GUI configuration ====
receiver_name = " AMSAT CubeSat Simulator Ground Station "
receiver_location = " "
receiver_qra = " "
receiver_asl = 0
receiver_ant = " monopole "
receiver_device = " RTL-SDR "
receiver_admin = " ku2y@amsat.org "
receiver_gps = ( 39.0302 , - 77.0747 )
photo_height = 350
photo_title = " Panorama of Budapest from Schönherz Zoltán Dormitory "
photo_desc = """
receiver_name = " KU2Y "
receiver_location = " Philadelphia, PA "
receiver_asl = 200
receiver_admin = " ku2y@amsat.org "
receiver_gps = ( 40.0376 , - 75.3492 )
receiver_gps = { " lat " : 40.0376 , " lon " : - 75.3492 }
photo_title = " ARISS "
photo_desc = """
You can add your own background photo and receiver information . < br / >
Receiver is operated by : < a href = " mailto: % [RX_ADMIN] " > % [ RX_ADMIN ] < / a > < br / >
Device : % [ RX_DEVICE ] < br / >
Antenna : %[ RX_ANT ] <br / >
Website : < a href = " http:// localhost " target = " _blank " > http : / / localhost < / a >
Receiver is operated by : < a href = " mailto:ku2y@amsat.org " > ku2y @amsat.org < / a > < br / >
Device : RTL - SDR < br / >
Antenna : br / >
Website : < a href = " http:// ariss-radio:8073 " target = " _blank " > http : / / ariss- radio : 8073 < / a >
"""
# ==== sdr.hu listing ====
# If you want your ham receiver to be listed publicly on sdr.hu, then take the following steps:
# 1. Register at: http://sdr.hu/register
# 2. You will get an unique key by email. Copy it and paste here:
sdrhu_key = " "
# 3. Set this setting to True to enable listing:
sdrhu_public_listing = False
# ==== DSP/RX settings ====
fft_fps = 9
fft_size = 4096 #Should be power of 2
fft_voverlap_factor = 0.3 #If fft_voverlap_factor is above 0, multiple FFTs will be used for creating a line on the diagram.
samp_rate = 250000
# samp_rate = 2400000
center_freq = 434950000
rf_gain = 7 #in dB. For an RTL-SDR, rf_gain=0 will set the tuner to auto gain mode, else it will be in manual gain mode.
ppm = 0
fft_fps = 9
fft_size = 4096 # Should be power of 2
fft_voverlap_factor = (
0.3 # If fft_voverlap_factor is above 0, multiple FFTs will be used for creating a line on the diagram.
)
audio_compression = " adpcm " # valid values: "adpcm", "none"
fft_compression = " adpcm " # valid values: "adpcm", "none"
audio_compression = " adpcm " # valid values: "adpcm", "none"
fft_compression = " adpcm " # valid values: "adpcm", "none"
digimodes_enable = False # True #
digimodes_fft_size = 1024
digimodes_enable = True # Decoding digimodes come with higher CPU usage.
digimodes_fft_size = 1024
start_rtl_thread = True
# determines the quality, and thus the cpu usage, for the ambe codec used by digital voice modes
# if you're running on a Raspi (up to 3B+) you'll want to leave this on 1
digital_voice_unvoiced_quality = 1
# enables lookup of DMR ids using the radioid api
digital_voice_dmr_id_lookup = True
"""
Note : if you experience audio underruns while CPU usage is 100 % , you can :
@ -95,121 +91,759 @@ Note: if you experience audio underruns while CPU usage is 100%, you can:
# ==== I/Q sources ====
# (Uncomment the appropriate by removing # characters at the beginning of the corresponding lines.)
#################################################################################################
# Is my SDR hardware supported? #
# Check here: https://github.com/simonyiszk/openwebrx/wiki#guides-for-receiver-hardware-support #
#################################################################################################
# You can use other SDR hardware as well, by giving your own command that outputs the I/Q samples... Some examples of configuration are available here (default is RTL-SDR):
# >> RTL-SDR via rtl_sdr
start_rtl_command = " rtl_sdr -s {samp_rate} -f {center_freq} -p {ppm} -g {rf_gain} - " . format ( rf_gain = rf_gain , center_freq = center_freq , samp_rate = samp_rate , ppm = ppm )
format_conversion = " csdr convert_u8_f "
#lna_gain=8
#rf_amp=1
#start_rtl_command="hackrf_transfer -s {samp_rate} -f {center_freq} -g {rf_gain} -l{lna_gain} -a{rf_amp} -r-".format(rf_gain=rf_gain, center_freq=center_freq, samp_rate=samp_rate, ppm=ppm, rf_amp=rf_amp, lna_gain=lna_gain)
#format_conversion="csdr convert_s8_f"
"""
To use a HackRF , compile the HackRF host tools from its " stdout " branch :
git clone https : / / github . com / mossmann / hackrf /
cd hackrf
git fetch
git checkout origin / stdout
cd host
mkdir build
cd build
cmake . . - DINSTALL_UDEV_RULES = ON
make
sudo make install
"""
# >> Sound card SDR (needs ALSA)
# I did not have the chance to properly test it.
#samp_rate = 96000
#start_rtl_command="arecord -f S16_LE -r {samp_rate} -c2 -".format(samp_rate=samp_rate)
#format_conversion="csdr convert_s16_f | csdr gain_ff 30"
# >> /dev/urandom test signal source
# samp_rate = 2400000
# start_rtl_command="cat /dev/urandom | (pv -qL `python -c 'print int({samp_rate} * 2.2)'` 2>&1)".format(rf_gain=rf_gain, center_freq=center_freq, samp_rate=samp_rate)
# format_conversion="csdr convert_u8_f"
# >> Pre-recorded raw I/Q file as signal source
# You will have to correctly specify: samp_rate, center_freq, format_conversion in order to correctly play an I/Q file.
#start_rtl_command="(while true; do cat my_iq_file.raw; done) | csdr flowcontrol {sr} 20 ".format(sr=samp_rate*2*1.05)
#format_conversion="csdr convert_u8_f"
#>> The rx_sdr command works with a variety of SDR harware: RTL-SDR, HackRF, SDRplay, UHD, Airspy, Red Pitaya, audio devices, etc.
# It will auto-detect your SDR hardware if the following tools are installed:
# * the vendor provided driver and library,
# * the vendor-specific SoapySDR wrapper library,
# * and SoapySDR itself.
# Check out this article on the OpenWebRX Wiki: https://github.com/simonyiszk/openwebrx/wiki/Using-rx_tools-with-OpenWebRX/
#start_rtl_command="rx_sdr -F CF32 -s {samp_rate} -f {center_freq} -p {ppm} -g {rf_gain} -".format(rf_gain=rf_gain, center_freq=center_freq, samp_rate=samp_rate, ppm=ppm)
#format_conversion=""
# >> gr-osmosdr signal source using GNU Radio (follow this guide: https://github.com/simonyiszk/openwebrx/wiki/Using-GrOsmoSDR-as-signal-source)
#start_rtl_command="cat /tmp/osmocom_fifo"
#format_conversion=""
###############################################################################
# Is my SDR hardware supported? #
# Check here: https://github.com/jketterl/openwebrx/wiki/Supported-Hardware #
###############################################################################
# ==== Misc settings ====
shown_center_freq = center_freq #you can change this if you use an upconverter
client_audio_buffer_size = 5
#increasing client_audio_buffer_size will:
# - also increase the latency
# - decrease the chance of audio underruns
start_freq = center_freq
start_mod = " nfm " #nfm, am, lsb, usb, cw
iq_server_port = 4951 #TCP port for ncat to listen on. It will send I/Q data over its connections, for internal use in OpenWebRX. It is only accessible from the localhost by default.
# Currently supported types of sdr receivers:
# "rtl_sdr", "rtl_sdr_soapy", "sdrplay", "hackrf", "airspy", "airspyhf", "fifi_sdr",
# "perseussdr", "lime_sdr", "pluto_sdr", "soapy_remote"
#
# In order to use rtl_sdr, you will need to install librtlsdr-dev and the connector.
# In order to use sdrplay, airspy or airspyhf, you will need to install soapysdr, the corresponding driver, and the
# connector.
#
# https://github.com/jketterl/owrx_connector
#
# In order to use Perseus HF you need to install the libperseus-sdr
#
# https://github.com/Microtelecom/libperseus-sdr
#
# and do the proper changes to the sdrs object below
# (see also Wiki in https://github.com/jketterl/openwebrx/wiki/Sample-configuration-for-Perseus-HF-receiver).
#
#access_log = "~/openwebrx_access.log"
sdrs = {
" rtlsdr " : {
" name " : " RTL-SDR VHF/UHF " ,
" type " : " rtl_sdr " ,
" ppm " : 0 ,
# you can change this if you use an upconverter. formula is:
# center_freq + lfo_offset = actual frequency on the sdr
# "lfo_offset": 0,
" profiles " : {
" wx " : {
" name " : " Weather Band " ,
" center_freq " : 162000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 161500000 ,
" start_mod " : " nfm " ,
} ,
" 70cm " : {
" name " : " 70cm Band " ,
" center_freq " : 435500000 ,
" rf_gain " : 3 ,
" samp_rate " : 2400000 ,
" start_freq " : 4355000000 ,
" start_mod " : " nfm " ,
} ,
" 70cm-hi " : {
" name " : " 70cm Band High Gain " ,
" center_freq " : 435500000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 4355000000 ,
" start_mod " : " nfm " ,
} ,
" 2m " : {
" name " : " 2m Band " ,
" center_freq " : 145000000 ,
" rf_gain " : 15 ,
" samp_rate " : 2400000 ,
" start_freq " : 145725000 ,
" start_mod " : " nfm " ,
} ,
" 2m-hi " : {
" name " : " 2m Band High Gain " ,
" center_freq " : 145000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 145725000 ,
" start_mod " : " nfm " ,
} ,
" fm " : {
" name " : " FM Band " ,
" center_freq " : 91000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 90000000 ,
" start_mod " : " nfm " ,
} ,
" atc " : {
" name " : " Air Band - ATC " ,
" center_freq " : 134000000 ,
" rf_gain " : 20 ,
" samp_rate " : 2400000 ,
" start_freq " : 134000000 ,
" start_mod " : " am " ,
} ,
" atc-hi " : {
" name " : " Air Band - ATC High Gain " ,
" center_freq " : 134000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 134000000 ,
" start_mod " : " am " ,
} ,
" noaa " : {
" name " : " NOAA Weather Satellites " ,
" center_freq " : 137000000 ,
" rf_gain " : 20 ,
" samp_rate " : 2400000 ,
" start_freq " : 137000000 ,
" start_mod " : " fm " ,
} ,
" noaa-hi " : {
" name " : " NOAA Weather Satellites High Gain " ,
" center_freq " : 137000000 ,
" rf_gain " : 25 ,
" samp_rate " : 2400000 ,
" start_freq " : 137000000 ,
" start_mod " : " fm " ,
} ,
" 10m " : {
" name " : " 10m Band " ,
" center_freq " : 28000000 ,
" rf_gain " : 25 ,
" samp_rate " : 2400000 ,
" start_freq " : 28500000 ,
" start_mod " : " usb " ,
} ,
" 6m " : {
" name " : " 6m Band " ,
" center_freq " : 51000000 ,
" rf_gain " : 25 ,
" samp_rate " : 2400000 ,
" start_freq " : 51000000 ,
" start_mod " : " usb " ,
} ,
" 110MHz " : {
" name " : " 110 MHz " ,
" center_freq " : 110000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 110000000 ,
" start_mod " : " nfm " ,
} ,
" 112MHz " : {
" name " : " 112 MHz " ,
" center_freq " : 112000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 112000000 ,
" start_mod " : " nfm " ,
} ,
" 114MHz " : {
" name " : " 114 MHz " ,
" center_freq " : 114000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 114000000 ,
" start_mod " : " nfm " ,
} ,
" 116mhz " : {
" name " : " 116 MHz " ,
" center_freq " : 116000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 116000000 ,
" start_mod " : " nfm " ,
} ,
" 118mhz " : {
" name " : " 118 MHz " ,
" center_freq " : 118000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 118000000 ,
" start_mod " : " nfm " ,
} ,
" 120mhz " : {
" name " : " 120 MHz " ,
" center_freq " : 120000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 120000000 ,
" start_mod " : " nfm " ,
} ,
" 122mhz " : {
" name " : " 122 MHz " ,
" center_freq " : 122000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 122000000 ,
" start_mod " : " nfm " ,
} ,
" 124mhz " : {
" name " : " 124 MHz " ,
" center_freq " : 124000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 124000000 ,
" start_mod " : " nfm " ,
} ,
" 126mhz " : {
" name " : " 126 MHz " ,
" center_freq " : 126000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 126000000 ,
" start_mod " : " nfm " ,
} ,
" 128mhz " : {
" name " : " 126 MHz " ,
" center_freq " : 128000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 128000000 ,
" start_mod " : " nfm " ,
} ,
" 130mhz " : {
" name " : " 130 MHz " ,
" center_freq " : 130000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 130000000 ,
" start_mod " : " nfm " ,
} ,
" 132mhz " : {
" name " : " 132 MHz " ,
" center_freq " : 132000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 132000000 ,
" start_mod " : " nfm " ,
} ,
" 134mhz " : {
" name " : " 134 MHz " ,
" center_freq " : 134000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 134000000 ,
" start_mod " : " nfm " ,
} ,
" 136mhz " : {
" name " : " 136 MHz " ,
" center_freq " : 136000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 136000000 ,
" start_mod " : " nfm " ,
} ,
" 138mhz " : {
" name " : " 138 MHz " ,
" center_freq " : 138000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 138000000 ,
" start_mod " : " nfm " ,
} ,
" 140mhz " : {
" name " : " 140 MHz " ,
" center_freq " : 140000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 140000000 ,
" start_mod " : " nfm " ,
} ,
" 142mhz " : {
" name " : " 142 MHz " ,
" center_freq " : 142000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 142000000 ,
" start_mod " : " nfm " ,
} ,
" 144mhz " : {
" name " : " 144 MHz " ,
" center_freq " : 144000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 144000000 ,
" start_mod " : " nfm " ,
} ,
" 146mhz " : {
" name " : " 146 MHz " ,
" center_freq " : 146000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 146000000 ,
" start_mod " : " nfm " ,
} ,
" 148mhz " : {
" name " : " 148 MHz " ,
" center_freq " : 148000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 148000000 ,
" start_mod " : " nfm " ,
} ,
" 150mhz " : {
" name " : " 150 MHz " ,
" center_freq " : 150000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 150000000 ,
" start_mod " : " nfm " ,
} ,
" 152mhz " : {
" name " : " 152 MHz " ,
" center_freq " : 152000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 152000000 ,
" start_mod " : " nfm " ,
} ,
" 154mhz " : {
" name " : " 154 MHz " ,
" center_freq " : 154000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 154000000 ,
" start_mod " : " nfm " ,
} ,
" 156mhz " : {
" name " : " 156 MHz " ,
" center_freq " : 156000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 156100000 ,
" start_mod " : " nfm " ,
} ,
" 158mhz " : {
" name " : " 158 MHz " ,
" center_freq " : 158000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 158000000 ,
" start_mod " : " nfm " ,
} ,
" 160mhz " : {
" name " : " 160 MHz " ,
" center_freq " : 160000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 160000000 ,
" start_mod " : " nfm " ,
} ,
" 162mhz " : {
" name " : " 162 MHz " ,
" center_freq " : 162000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 162000000 ,
" start_mod " : " nfm " ,
} ,
" 164mhz " : {
" name " : " 164 MHz " ,
" center_freq " : 164000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 164000000 ,
" start_mod " : " nfm " ,
} ,
" 166mhz " : {
" name " : " 166 MHz " ,
" center_freq " : 166000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 166000000 ,
" start_mod " : " nfm " ,
} ,
" 168mhz " : {
" name " : " 168 MHz " ,
" center_freq " : 168000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 168000000 ,
" start_mod " : " nfm " ,
} ,
" 170mhz " : {
" name " : " 170 MHz " ,
" center_freq " : 170000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 170000000 ,
" start_mod " : " nfm " ,
} ,
" 172mhz " : {
" name " : " 172 MHz " ,
" center_freq " : 172000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 172000000 ,
" start_mod " : " nfm " ,
} ,
" 174mhz " : {
" name " : " 174 MHz " ,
" center_freq " : 174000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 174000000 ,
" start_mod " : " nfm " ,
} ,
" 433mhz " : {
" name " : " 433 MHz " ,
" center_freq " : 433000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 433000000 ,
" start_mod " : " nfm " ,
} ,
" 446mhz " : {
" name " : " 446 MHz (PMR) " ,
" center_freq " : 446000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 446000000 ,
" start_mod " : " nfm " ,
} ,
" 460mhz " : {
" name " : " 460 MHz " ,
" center_freq " : 460000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 460000000 ,
" start_mod " : " nfm " ,
} ,
" 860mhz " : {
" name " : " 860 MHz " ,
" center_freq " : 860000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 860000000 ,
" start_mod " : " nfm " ,
} ,
" 862mhz " : {
" name " : " 862 MHz " ,
" center_freq " : 862000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 862000000 ,
" start_mod " : " nfm " ,
} ,
" 864mhz " : {
" name " : " 864 MHz " ,
" center_freq " : 864000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 864000000 ,
" start_mod " : " nfm " ,
} ,
" 866mhz " : {
" name " : " 866 MHz " ,
" center_freq " : 866000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 866000000 ,
" start_mod " : " nfm " ,
} ,
" 868mhz " : {
" name " : " 868 MHz " ,
" center_freq " : 868000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 868000000 ,
" start_mod " : " nfm " ,
} ,
" 870mhz " : {
" name " : " 870 MHz " ,
" center_freq " : 870000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 870000000 ,
" start_mod " : " nfm " ,
} ,
" 915mhz " : {
" name " : " 915 MHz " ,
" center_freq " : 915000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 915000000 ,
" start_mod " : " nfm " ,
} ,
" 1090mhz " : {
" name " : " 1090 MHz " ,
" center_freq " : 1090000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 1090000000 ,
" start_mod " : " nfm " ,
} ,
" 1880mhz " : {
" name " : " 1880 MHz " ,
" center_freq " : 1880000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 1880000000 ,
" start_mod " : " nfm " ,
} ,
" 1882mhz " : {
" name " : " 1882 MHz " ,
" center_freq " : 1882000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 1882000000 ,
" start_mod " : " nfm " ,
} ,
" 1884mhz " : {
" name " : " 1884 MHz " ,
" center_freq " : 1884000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 1884000000 ,
" start_mod " : " nfm " ,
} ,
" 1886mhz " : {
" name " : " 1886 MHz " ,
" center_freq " : 1886000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 1886000000 ,
" start_mod " : " nfm " ,
} ,
" 1888mhz " : {
" name " : " 1888 MHz " ,
" center_freq " : 1888000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 1888000000 ,
" start_mod " : " nfm " ,
} ,
" 1890mhz " : {
" name " : " 1890 MHz " ,
" center_freq " : 1890000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 1890000000 ,
" start_mod " : " nfm " ,
} ,
" 1892mhz " : {
" name " : " 1892 MHz " ,
" center_freq " : 1892000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 1892000000 ,
" start_mod " : " nfm " ,
} ,
" 1894mhz " : {
" name " : " 1894 MHz " ,
" center_freq " : 1894000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 1894000000 ,
" start_mod " : " nfm " ,
} ,
" 1896mhz " : {
" name " : " 1896 MHz " ,
" center_freq " : 1896000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 1896000000 ,
" start_mod " : " nfm " ,
} ,
" 1898mhz " : {
" name " : " 1898 MHz " ,
" center_freq " : 1898000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 1898000000 ,
" start_mod " : " nfm " ,
} ,
" 1900mhz " : {
" name " : " 1900 MHz " ,
" center_freq " : 1900000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 1900000000 ,
" start_mod " : " nfm " ,
} ,
" 23cm " : {
" name " : " 23cm Band " ,
" center_freq " : 1270000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 1270000000 ,
" start_mod " : " nfm " ,
} ,
" 13cm " : {
" name " : " 13cm Band " ,
" center_freq " : 2370000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 2370000000 ,
" start_mod " : " nfm " ,
} ,
" 9cm " : {
" name " : " 9cm Band " ,
" center_freq " : 3440000000 ,
" rf_gain " : 30 ,
" samp_rate " : 2400000 ,
" start_freq " : 3440000000 ,
" start_mod " : " nfm " ,
} ,
} ,
} ,
" rtl_sdr-2 " : {
" name " : " RTL-SDR HF " ,
" type " : " rtl_sdr_soapy " ,
" ppm " : 0 ,
" direct_sampling " : 2 ,
" profiles " : {
" 10m " : {
" name " : " 10m Band " ,
" center_freq " : 29150000 ,
" rf_gain " : 10 ,
" samp_rate " : 2400000 ,
" start_freq " : 28283000 ,
" start_mod " : " usb " ,
} ,
" 19m " : {
" name " : " 19m Broadcast Band " ,
" center_freq " : 16000000 ,
" rf_gain " : 10 ,
" samp_rate " : 2400000 ,
" start_freq " : 15400000 ,
" start_mod " : " am " ,
} ,
" 20m " : {
" name " : " 20m Band " ,
" center_freq " : 14150000 ,
" rf_gain " : 10 ,
" samp_rate " : 2400000 ,
" start_freq " : 14070000 ,
" start_mod " : " usb " ,
} ,
" 30m " : {
" name " : " 30m Band " ,
" center_freq " : 10125000 ,
" rf_gain " : 10 ,
" samp_rate " : 2400000 ,
" start_freq " : 10142000 ,
" start_mod " : " usb " ,
} ,
" 40m " : {
" name " : " 40m Band " ,
" center_freq " : 7100000 ,
" rf_gain " : 10 ,
" samp_rate " : 2400000 ,
" start_freq " : 7070000 ,
" start_mod " : " lsb " ,
} ,
" 49m " : {
" name " : " 49m Broadcast Band " ,
" center_freq " : 6000000 ,
" rf_gain " : 10 ,
" samp_rate " : 2400000 ,
" start_freq " : 6070000 ,
" start_mod " : " am " ,
} ,
" 80m " : {
" name " : " 80m Band " ,
" center_freq " : 3650000 ,
" rf_gain " : 10 ,
" samp_rate " : 2400000 ,
" start_freq " : 3570000 ,
" start_mod " : " lsb " ,
} ,
" 160m " : {
" name " : " 160m Band " ,
" center_freq " : 1700000 ,
" rf_gain " : 10 ,
" samp_rate " : 2400000 ,
" start_freq " : 1440000 ,
" start_mod " : " am " ,
} ,
} ,
} ,
}
# ==== Color themes ====
#A guide is available to help you set these values: https://github.com/simonyiszk/openwebrx/wiki/Calibrating-waterfall-display-levels
# A guide is available to help you set these values: https://github.com/simonyiszk/openwebrx/wiki/Calibrating-waterfall-display-levels
### default theme by teejez:
waterfall_colors = " [0x000000ff,0x0000ffff,0x00ffffff,0x00ff00ff,0xffff00ff,0xff0000ff,0xff00ffff,0xffffffff] "
waterfall_min_level = - 88 #in dB
waterfall_colors = [ 0x000000FF , 0x0000FFFF , 0x00FFFFFF , 0x00FF00FF , 0xFFFF00FF , 0xFF0000FF , 0xFF00FFFF , 0xFFFFFFFF ]
waterfall_min_level = - 88 # in dB
waterfall_max_level = - 20
waterfall_auto_level_margin = ( 5 , 40 )
waterfall_auto_level_margin = {" min " : 5 , " max " : 40 }
### old theme by HA7ILM:
#waterfall_colors = "[0x000000ff,0x2e6893ff, 0x69a5d0ff, 0x214b69ff, 0x9dc4e0ff, 0xfff775ff, 0xff8a8aff, 0xb20000ff]"
#waterfall_min_level = -115 #in dB
#waterfall_max_level = 0
#waterfall_auto_level_margin = (20, 30)
# waterfall_colors = "[0x000000ff,0x2e6893ff, 0x69a5d0ff, 0x214b69ff, 0x9dc4e0ff, 0xfff775ff, 0xff8a8aff, 0xb20000ff]"
# waterfall_min_level = -115 #in dB
# waterfall_max_level = 0
# waterfall_auto_level_margin = {"min": 20, "max": 30}
##For the old colors, you might also want to set [fft_voverlap_factor] to 0.
#Note: When the auto waterfall level button is clicked, the following happens:
# [waterfall_min_level] = [current_min_power_level] - [waterfall_auto_level_margin[0]]
# [waterfall_max_level] = [current_max_power_level] + [waterfall_auto_level_margin[1]]
# Note: When the auto waterfall level button is clicked, the following happens:
# [waterfall_min_level] = [current_min_power_level] - [waterfall_auto_level_margin[ "min" ]]
# [waterfall_max_level] = [current_max_power_level] + [waterfall_auto_level_margin[ "max" ]]
#
# ___|____________________________________|____________________________________|____________________________________|___> signal power
# \_waterfall_auto_level_margin[0]_/ |__ current_min_power_level | \_waterfall_auto_level_margin[1]_/
# current_max_power_level __|
# 3D view settings
mathbox_waterfall_frequency_resolution = 128 #bins
mathbox_waterfall_history_length = 10 #seconds
mathbox_waterfall_colors = " [0x000000ff,0x2e6893ff, 0x69a5d0ff, 0x214b69ff, 0x9dc4e0ff, 0xfff775ff, 0xff8a8aff, 0xb20000ff] "
# ___|________________________________________|____________________________________|________________________________________|___> signal power
# \_waterfall_auto_level_margin["min"]_/ |__ current_min_power_level | \_waterfall_auto_level_margin["max"]_/
# current_max_power_level __|
# === Experimental settings ===
#Warning! The settings below are very experimental.
csdr_dynamic_bufsize = False # This allows you to change the buffering mode of csdr.
# Warning! The settings below are very experimental.
csdr_dynamic_bufsize = False # This allows you to change the buffering mode of csdr.
csdr_print_bufsizes = False # This prints the buffer sizes used for csdr processes.
csdr_through = False # Setting this True will print out how much data is going into the DSP chains.
nmux_memory = 50 #in megabytes. This sets the approximate size of the circular buffer used by nmux.
#Look up external IP address automatically from icanhazip.com, and use it as [server_hostname]
"""
print " [openwebrx-config] Detecting external IP address... "
import urllib2
server_hostname = urllib2 . urlopen ( " http://icanhazip.com " ) . read ( ) [ : - 1 ]
print " [openwebrx-config] External IP address detected: " , server_hostname
"""
csdr_through = False # Setting this True will print out how much data is going into the DSP chains.
nmux_memory = 50 # in megabytes. This sets the approximate size of the circular buffer used by nmux.
google_maps_api_key = " "
# how long should positions be visible on the map?
# they will start fading out after half of that
# in seconds; default: 2 hours
map_position_retention_time = 2 * 60 * 60
# decoder queue configuration
# due to the nature of some operating modes (ft8, ft8, jt9, jt65, wspr and js8), the data is recorded for a given amount
# of time (6 seconds up to 2 minutes) and decoded at the end. this can lead to very high peak loads.
# to mitigate this, the recordings will be queued and processed in sequence.
# the number of workers will limit the total amount of work (one worker will losely occupy one cpu / thread)
decoding_queue_workers = 2
# the maximum queue length will cause decodes to be dumped if the workers cannot keep up
# if you are running background services, make sure this number is high enough to accept the task influx during peaks
# i.e. this should be higher than the number of decoding services running at the same time
decoding_queue_length = 10
# wsjt decoding depth will allow more results, but will also consume more cpu
wsjt_decoding_depth = 3
# can also be set for each mode separately
# jt65 seems to be somewhat prone to erroneous decodes, this setting handles that to some extent
wsjt_decoding_depths = { " jt65 " : 1 }
# JS8 comes in different speeds: normal, slow, fast, turbo. This setting controls which ones are enabled.
js8_enabled_profiles = [ " normal " , " slow " ]
# JS8 decoding depth; higher value will get more results, but will also consume more cpu
js8_decoding_depth = 3
temporary_directory = " /tmp/openwebrx "
services_enabled = False
services_decoders = [ " ft8 " , " ft4 " , " wspr " , " packet " ]
# === aprs igate settings ===
# if you want to share your APRS decodes with the aprs network, configure these settings accordingly
aprs_callsign = " N0CALL "
aprs_igate_enabled = False
aprs_igate_server = " euro.aprs2.net "
aprs_igate_password = " "
# beacon uses the receiver_gps setting, so if you enable this, make sure the location is correct there
aprs_igate_beacon = False
# path to the aprs symbols repository (get it here: https://github.com/hessu/aprs-symbols)
aprs_symbols_path = " /opt/aprs-symbols/png "
# === PSK Reporter setting ===
# enable this if you want to upload all ft8, ft4 etc spots to pskreporter.info
# this also uses the receiver_gps setting from above, so make sure it contains a correct locator
pskreporter_enabled = False
pskreporter_callsign = " N0CALL "
# === Web admin settings ===
# this feature is experimental at the moment. it should not be enabled on shared receivers since it allows remote
# changes to the receiver settings. enable for testing in controlled environment only.
# webadmin_enabled = False
alanbjohnston
6 years ago
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