This project deploys a LoRaWAN gateway with UDP Packet Forwarder protocol using Docker. It runs on any amd64/x86_64 PC, or a SBC like a Raspberry Pi 3/4, Compute Module 3/4 or balenaFin using SX1301, SX1302, SX1303 or SX1308 LoRa concentrators.
- Introduction
- Requirements
- Installing docker & docker-compose on the OS
- Deploy the code
- Configure the Gateway
- Troubleshoothing
Deploy a LoRaWAN gateway running the UDP Packet Forwarder protocol in a docker container in your computer, Raspberry Pi or compatible SBC.
Main features:
- Support for AMD64 (x86_64), ARMv8, ARMv7 and ARMv6 architectures.
- Support for SX1301, SX1302, SX1303 and SX1308 concentrators.
- Support for 2.4GHz LoRa concentrators based on Semtech's reference design (SX1280).
- Support for SPI and USB concentrators.
- Auto-discover concentrator for Corecell, Picocell and 2g4 concentrators.
- Compatible with The Things Stack v3 or Chirpstack v4 LNS amongst others.
- Auto-provision gateway on TTSv3 and ChirpStackv4.
- Almost one click deploy with auto-provision and auto-discover features and at the same time highly configurable.
This project is available on Docker Hub (https://hub.docker.com/r/rakwireless/udp-packet-forwarder) and GitHub (https://github.com/RAKWireless/udp-packet-forwarder).
This project has been tested with The Things Stack Community Edition (TTSCE / TTNv3) and ChirpStack v4.
As long as the host can run docker containers, the UDP Packet Forwarder service can run on:
- AMD64: most PCs out there
- ARMv8: Raspberry Pi 3/4/5, 400, Compute Module 3/4, Zero 2 W,...
- ARMv7: Raspberry Pi 2,...
- ARMv6: Raspberry Pi 1, Zero W, Compute Module 1,...
NOTE: you will need an OS in the host machine, for some SBC like a Raspberry Pi that means and SD card with an OS (like Rasperry Pi OS) flashed on it.
Supported RAK gateways:
Supported RAK LoRa concentrators:
- SX1301
- SX1302
- SX1303
- SX1308
- RAK2287
- RAK2246
- SX1280
NOTE: This project focuses on RAKwireless products but products from other manufacturers should also work. You will have to provide the some information to configure them properly, like concentrator type, interface type, reset GPIO,...
NOTE: SPI concentrators in MiniPCIe form factor will require a special Hat or adapter to connect them to the SPI interface in the SBC. USB concentrators in MiniPCIe form factor will require a USB adapter to connect them to a USB2/3 socket on the SBC. Other form factors might also require an adaptor for the target host.
You will need docker and docker-compose (optional but recommended) on the machine (see below for instal·lation instructions). You will also need a an account at a LoRaWAN Network Server, for instance a The Things Network account.
You can also deploy this using balenaCloud, check the
Deploy with balenasection below.
If you don't have docker running on the machine you will need to install docker on the OS first. This is pretty straight forward, just follow these instructions:
curl -fsSL https://get.docker.com -o get-docker.sh
sudo sh get-docker.sh
sudo usermod -aG docker ${USER}
newgrp docker
sudo systemctl enable docker
Once done, you should be able to check the instalation is alright by testing:
docker --version
Note than on previous versions of docker, compose was a 3rd party utility you had to install manually (sudo pip3 install docker-compose).
You can use the docker-compose.yml file below to configure and run your instance of UDP Packet Forwarder:
version: '2.0'
services:
udp-packet-forwarder:
image: rakwireless/udp-packet-forwarder:latest
container_name: udp-packet-forwarder
restart: unless-stopped
privileged: true
network_mode: host
environment:
MODEL: "RAK7248"
Modify the environment variables to match your setup (see the Service Variables section below). You will need to know the Gateway EUI to register it in your LoraWAN Network Server. Check the Get the EUI of the LoRa Gateway section below to know how. Otherwise, check the logs messages when the service starts to know the Gateway EUI to use.
Once you have it configured deploy the service via:
docker compose up
It will show you the service log as it boots and starts receiving packages. You can Ctrl+C to stop it. To run it in the background (once you check everything works OK) just do:
docker compose up -d
Since the restart property in the docker-compose.yml file is set to unless-stopped the machine will start the container every time it reboots. To stop the container just type (while in the same folder):
docker compose down
or
docker stop udp-packet-forwarder
In case you can not pull the already built image from Docker Hub or if you want to customize the cose, you can easily build the image by using the buildx extension of docker and push it to your local repository by doing:
docker buildx bake --load aarch64
Once built (it will take some minutes) you can bring it up by using xoseperez/udp-packet-forwarder:aarch64 as the image name in your docker-compose.yml file. If you are not in an ARMv8 64 bits machine (like a Raspberry Pi 4) you can change the aarch64 with armv7hf (ARMv7), armv6l (ARMv6) or amd64 (AMD64).
The included build script in the root folder can be user to build all architectures and (optionally) push the to a repository. The default repository is https://hub.docker.com/r/rakwireless/udp-packet-forwarder which you don't have permissions to push to (obviously), but you can easily push the images to your own repo by doing:
REGISTRY="registry.example.com/udp-packet-forwarder" ./build.sh --push
You need to set the variables upon deployment according to your installed concentrator / gateway. Example for a RAK 5146 USB installed on a RAK 2287 Pi Hat on a RPi 3:
INTERFACE: "USB"
HAS_LTE: "0"
RESET_GPIO: 0
DEVICE: "/dev/ttyUSB0"
GPS_DEV: "/dev/ttyAMA0"
GATEWAY_EUI: "<YourGatewayEUI>"
TTN_REGION: "eu1"
BAND: "eu_863_870"
# leave the remaining variables as default
You can also set other variables like GPS_LATITUDE, GPS_LONGITUDE and GPS_ALTITUDE for fake GPS.
For more details, read the Service Variables section below.
These variables you can set them under the environment tag in the docker-compose.yml file or using an environment file (with the env_file tag).
| Variable Name | Value | Description | Default |
|---|---|---|---|
MODEL |
STRING |
RAKwireless Developer gateway model or WisLink LPWAN module. Leave it empty or set it to 'AUTO' for auto-discover. | |
DESIGN |
STRING |
Reference design for the concentrator (v2/native, v2/ftdi, corecell, 2g4, picocell) |
Based on MODEL |
INTERFACE |
SPI, USB, NET or AUTO |
Concentrator interface. Set to AUTO to use with auto-discover feature. |
If MODEL is defined it will get the interface type from it if possible, defaults to AUTO if the auto-discover feature is enabled or SPI otherwise. |
DEVICE |
STRING or AUTO |
Where the concentrator is connected to. Set to AUTO for auto-discover. |
/dev/spidev0.0 for SPI concentrators, /dev/ttyUSB0 or /dev/ttyACM0 for USB concentrators, the host IP port 3333 for NET connections |
SPI_SPEED |
INT |
Speed of the SPI interface | 2000000 (2MHz) for SX1301/8 concentrators, 8000000 (8Mhz) for the rest |
USE_LIBGPIOD |
INT |
Use new gpiod library to access GPIO or old filesystem (sooon deprecated) | 0 (1 for Raspberry Pi 5) |
GPIO_CHIP |
STRING |
Chip ID to use with gpiod | gpiochip0 (gpiochip4 for Raspberry Pi 5) |
RESET_GPIO |
INT |
GPIO number that resets (Broadcom pin number) | 17 |
POWER_EN_GPIO |
INT |
GPIO number that enables power (by pulling HIGH) to the concentrator (Broadcom pin number). 0 means not required | 0 |
POWER_EN_LOGIC |
INT |
If POWER_EN_GPIO is not 0, the corresponding GPIO will be set to this value |
1 |
GATEWAY_EUI_SOURCE |
STRING |
Interface to use when generating the EUI, set to chip for SX1302/3/8 and SX1280 chips to get the EUI from the radio chip |
eth0 |
GATEWAY_EUI |
STRING |
Gateway EUI to use | Autogenerated from GATEWAY_EUI_SOURCE if defined, otherwise in order from: eth0, wlan0, usb0 |
RADIO_NUM |
INT |
When using auto-discover feature, select the N-th concentrator found | 1 |
TTS_REGION |
STRING |
Region of the TTNv3 server to use | eu1 |
TTS_TENANT |
STRING |
Tenant you are using (only if using TTI) | ttn |
SERVER_HOST |
STRING |
URL of the server | Based on TTS_REGION and TTS_TENANT |
SERVER_PORT |
INT |
Port the server is listening to | 1700 |
BAND |
STRING |
Regional parameters identifier | eu_863_870 |
HAS_GPS |
0 or 1 | Set to 0 to disable onbard GPS | 0, if GPS_DEV is defined and exists it will be set to 1 by default |
GPS_DEV |
STRING |
Where the GPS is connected to. Don't set it if you don't know what this means | /dev/ttyAMA0 or /dev/i2c-1 for known models |
GPS_LATITUDE |
DOUBLE |
Report this latitude for the gateway | |
GPS_LONGITUDE |
DOUBLE |
Report this longitude for the gateway | |
GPS_ALTITUDE |
DOUBLE |
Report this altitude for the gateway | |
WHITELIST_NETIDS |
STRING |
List of NetIDs to whitelist, filters uplinks | empty |
WHITELIST_OUIS |
STRING |
List of OUIs to whitelist, filters join requests | empty |
GATEWAY_PREFIX |
STRING |
Prefix to autogenerate GATEWAY_ID for TTS/TTI/TTN auto-provision | eui |
GATEWAY_ID |
STRING |
ID to use when auto-provisioning the gateway on TTS/TTI/TTN | GATEWAY_PREFIX + - + GATEWAY_EUI |
GATEWAY_NAME |
STRING |
Name to use when auto-provisioning the gateway on TTS/TTI/TTN | GATEWAY_ID |
TTS_USERNAME |
STRING |
Name of your user on the TTS instance you want to register the gateway | Paste your username |
TTS_PERSONAL_KEY |
STRING |
Unique key to create the gateway and its key | Paste personal API key from your TTS instance (check section about auto-provision below) |
TTS_FREQUENCY_PLAN_ID |
STRING |
The Things Stack frequency plan (https://www.thethingsindustries.com/docs/reference/frequency-plans/) | "EU_863_870_TTN" |
CS_API_URL |
STRING |
ChripStack REST API URL | http://<SERVER_HOST>:8090 |
CS_TENANT_ID |
STRING |
ChirpStack tenant UID to register the gateway | empty |
CS_TOKEN |
STRING |
ChirpStack API key with permissions to create a gateway on the tenant above | empty |
TTN_REGION |
Deprecated | Use TTS_REGION instead | |
GATEWAY_EUI_NIC |
Deprecated | Use GATEWAY_EUI_SOURCE instead | |
RADIO_DEV |
Deprecated | Use DEVICE instead |
Notes:
No setting is mandatory but
MODELandDEVICEare recommended for better performance. The service can auto-discover the concentrator but this feature takes some time on boot to walk through all the possible devices, designs and interfaces. Mind that not all concentrator types support auto-discover, defining aMODELandDEVICEis mandatory for SX1301-concentrators.
The list of supported modules is at the top of this page (either RAK Wisgate Developer model numbers or RAK WisLink modules). If your device is not in the list you can manually define
DESIGN,INTERFACE,GPS_DEV,HAS_LTEandRESET_GPIO.
The service will generate a Gateway EUI based on an existing interface if none provided. It will try to find
eth0,wlan0orusb0. If neither of these is available it will try to identify the most used existing interface. But this approach is not recommended, instead define a specific and unique customGATEWAY_EUIor identify the method you want the service to use to generate it by settingGATEWAY_EUI_SOURCE.
The
BANDcan be one of these values:as_915_921(as_923_3),as_915_928(as_915_1),as_917_920(as_923_4),as_920_923(as_923_2),au_915_928,cn_470_510,eu_433,eu_863_870,in_865_867,kr_920_923,ru_864_870, andus_902_928.
SERVER_HOSTandSERVER_PORTvalues default to The Things Stack Community Edition european server (udp://eu1.cloud.thethings.network:1700). If your region is not EU you can change it usingTTN_REGION. At the moment only these regions are available:eu1,nam1andau1.
If you have more than one concentrator on the same device, you will have to set different GATEWAY_EUI for each one and different
DEVICEvalues. Setting theDEVICEonly works with SX1302 and SX1303 concentrators. So you cannot use two SPI SX1301/SX1308 or two USB SX1301/SX1308 concentrators on the same device since they will both try to use the same port. But you can mix USB and SPI SX1301/SX1308 concentrators without problem. You can also provide a customglobal_conf.jsonfile to customize how every concentrator should behave. Check theUse a custom radio configurationsection below.
The auto-discover feature is capable of finding connected concentrators to SPI and USB ports as long as they are Corecell, Picocell or 2g4 ones (SX1302, SX1303, SX1308 and SX1280-based).
This feature walks the corresponding interfaces until it finds the required concentrator and then resets the DEVICE and INTERFACE variables accordingly. Doing so takes some time on boot (up to 3 seconds for each device it checks), if you want to speed up the boot process you can set the DEVICE explicitly after looking for it with the find_concentrator utility (see Find the concentrator section below).
Auto-discovery is triggered in different situations:
- No
MODELdefined or set toAUTO: It will search for a concentrator on all interfaces. Interfaces to check can be narrow by using theINTERFACEsetting. Also the concentrator type to search for can be specified using theDESIGNsetting (corecell,picocellor2g4are supported). MODELdefined but noDEVICEor set toAUTO: It will search for the specific concentrator type (based onMODEL) on all interfaces. Interfaces to check can be narrow by using theINTERFACEsetting.
The following example will start a Corecell concentrator (RAK5146 is based on SX1303) on whatever first interface it finds it (SPI or USB).
version: '2.0'
services:
udp-packet-forwarder:
image: rakwireless/udp-packet-forwarder:latest
container_name: udp-packet-forwarder
restart: unless-stopped
privileged: true
network_mode: host
environment:
MODEL: "RAK5146"
The new Raspberry Pi 5 requires using the gpiod library to access the GPIO to reset SPI concentrators. The service automatically detects the Raspberry Pi 5 and sets these default like in the example below, but you can still override them:
version: '2.0'
services:
udp-packet-forwarder:
image: rakwireless/udp-packet-forwarder:latest
container_name: udp-packet-forwarder
restart: unless-stopped
privileged: true
network_mode: host
environment:
MODEL: "RAK5146"
USE_LIBGPIOD: 1
GPIO_CHIP: "gpiochip4"
The service comes with an utility that tries to find existing concentrators connected to the device. It works with CoreCell, PicoCell and 2.4GHz concentrators.
You can run the tool (with the service shut down) by:
docker run --privileged --rm rakwireless/udp-packet-forwarder find_concentrator
You can also run it from a docker-compose.yml file folder:
docker compose run udp-packet-forwarder find_concentrator
By default it will reset the concentrator using GPIO6 and GPIO17, if you know the reset pin is connected to any other GPIO(S) you can use the RESET_GPIO environment variable:
docker run --privileged --rm -e RESET_GPIO="12 13" rakwireless/udp-packet-forwarder find_concentrator
Finally, you can also limit the interfaces to scan by setting SCAN_USB or SCAN_SPI to 0, so this command below will only scan for USB concentrators:
docker run --privileged --rm -e SCAN_SPI=0 rakwireless/udp-packet-forwarder find_concentrator
The output will be a list of concentrators with the port they are connected to and the EUI:
Looking for devices, this might take some time...
DEVICE DESIGN ID
--------------------------------------------------
/dev/spidev0.0 corecell 0016C001FFXXXXXX
/dev/ttyUSB0 2g4 54112205FFXXXXXX
/dev/ttyACM0 corecell 0016C001FFXXXXXX
/dev/ttyACM1 picocell 5031395343XXXXXX
4 device(s) found!
LoRaWAN gateways are identified with a unique 64 bits (8 bytes) number, called EUI, which can be used to register the gateway on the LoRaWAN Network Server. You can check the gateway EUI (and other data) by inspecting the service logs or running the command below while the container is up (--network host is required to get the EUI from the host's NICs):
docker run -it --network host --rm rakwireless/udp-packet-forwarder gateway_eui
You can do so before bringing up the service, so you first get the EUI, register the gateway and get the KEY to populate it on the docker-compose.yml file. If you are specifying a different source to create the EUI from (see the GATEWAY_EUI_SOURCE variable above), you can do it like this:
docker run -it --network host --rm -e GATEWAY_EUI_SOURCE=wlan0 rakwireless/udp-packet-forwarder:latest gateway_eui
Or query what will the EUI be using the chip ID (only for Corecell concentrators), here with --privileged to have access to host's devices:
docker run -it --privileged --rm -e GATEWAY_EUI_SOURCE=chip rakwireless/udp-packet-forwarder:latest gateway_eui
If using balenaCloud the EUI will be visible as a TAG on the device dashboard. Be careful when you copy the tag, as other characters will be copied.
The output will one or more possible EUIs (if using GATEWAY_EUI_SOURCE=chip with more than once concentrator plugged-in):
Gateway EUI: 8045DDFFFE010203 (based on interface wlp2s0)
In some special cases you might want to specify the radio configuration in detail (frequencies, power, ...). You can do that by providing a custom global_conf.json file. You can start by copying the default one based on your current configuration from a running instance of the service:
docker cp udp-packet-forwarder:/opt/ttn-gateway/packet_forwarder/lora_pkt_fwd/global_conf.json global_conf.json
Now you can modify it to match your needs. And finally define it as a mounted file in your docker-compose.yml file. When you do a docker-compose up -d it will use your custom file instead of a generated one.
version: '3.7'
services:
udp-packet-forwarder:
image: rakwireless/udp-packet-forwarder:latest
container_name: udp-packet-forwarder
restart: unless-stopped
privileged: true
network_mode: host
volumes:
- ./config:/app/config
environment:
MODEL: "RAK7248"
Please note that a local_conf.json file will still be generated inside the config folder and will overwrite some of the settings in the global_conf.json, but only in the gateway_conf section.
You might have seen that on the examples above we are running docker in privileged mode and using host network. This is the simplest, more straight-forward way, but there are ways to run it without these. Let's see how.
On one side, the host network is required to access the MAC of the host interface instead of that of the virtual interface. This MAC is used to create the Gateway EUI. The virtual MAC changes everytime the container is created, so we need to access the physical interface because that one does not change. But if you set the Gateway EUI manually, using the GATEWAY_EUI variable, then this is not needed anymore.
On the other side privileged mode is required to access the port where the concentrator is listening to (either SPI or USB) and the GPIOs to reset the concentrator for SPI modules. You can get rid of these too by mounting the right device in the container and also the /sys root so the container can reset the concentrator.
Therefore, an example of this workaround for an SPI concentrator would be:
version: '2.0'
services:
udp-packet-forwarder:
image: rakwireless/udp-packet-forwarder:latest
container_name: udp-packet-forwarder
restart: unless-stopped
devices:
- /dev/spidev0.0
volumes:
- /sys:/sys
environment:
MODEL: "RAK5146"
GATEWAY_EUI: "E45F01FFFE517BA8"
For a USB concentrator you would mount the USB port instead of the SPI port and you won't need to mount the /sys volume, but remember to set RESET_GPIO to 0 to avoid unwanted errors in the logs.
From version 2.4.2, the service supports message filtering via white lists. There are two whitelists: by NetID and by OUI.
To filter only devices belonging to your network you can add the NetID of your LNS to the WHITELIST_NETIDS setting. More than one NetID can be added (comman or space separated). They can also be added in decimal (TTN is 19) or hexadecimal with leading 0x (TTN is 0x000013). If WHITELIST_NETIDS is nt set or empty, no filtering happens.
The example below filters out all messages from devices not belonging to TTN/TTI:
version: '2.0'
services:
udp-packet-forwarder:
image: rakwireless/udp-packet-forwarder:latest
container_name: udp-packet-forwarder
restart: unless-stopped
privileged: true
network_mode: host
environment:
MODEL: "RAK5146"
GATEWAY_EUI: "E45F01FFFE517BA8"
WHITELIST_NETIDS: "0x000013"
The NetID is identified by the device address (devAdrr). But if the device has not yet joined the network it does not have a DevAddr. If you want to filter join requests from unknown devices you can do so filtering by OUI. OUI, or Organizational Unique Identifier, are the first 3 bytes of the DevEUI and identfies the manufacturer. To accept join requests from certain devices you can add the OUI of their manufacturer to the WHITELIST_OUIS variable like in the eample below:
version: '2.0'
services:
udp-packet-forwarder:
image: rakwireless/udp-packet-forwarder:latest
container_name: udp-packet-forwarder
restart: unless-stopped
privileged: true
network_mode: host
environment:
MODEL: "RAK5146"
GATEWAY_EUI: "E45F01FFFE517BA8"
WHITELIST_OUIS: "0xA81758"
The service lets you auto-provision your gateway on the first boot agains a TTS (The Things Network / The Things Industries) server or a ChirpStack server.
The are some common variables for these options: GATEWAY_PREFIX, GATEWAY_ID, GATEWAY_NAME. These are not mandatory and if not defined the service will choose some sensible defaults.
To configure auto-provisioning using the TTS API, TTS_USERNAME and TTS_PERSONAL_KEY are mandatory and TTS_FREQUENCY_PLAN_ID is optional.
TTS_PERSONAL_KEY should be a key with, at least, the following permissions:
- link as Gateway to a Gateway Server for traffic exchange, i.e. write uplink and read downlink
- view and edit gateway API keys
- edit basic gateway settings
- create a gateway under the user account
Remember that when using TTN the GATEWAY_NAME and GATEWAY_ID must be unique over time (including deleted gateways).
An example docker-compose.yml file to autodiscover and auto-provision a gateway to the european server of TTN (that's the default) would be:
version: '2.0'
services:
udp-packet-forwarder:
image: rakwireless/udp-packet-forwarder:latest
container_name: udp-packet-forwarder
restart: unless-stopped
privileged: true
network_mode: host
environment:
TTS_USERNAME: "xoseperez" # use here your TTN user name
TTS_PERSONAL_KEY: "NNSXS.E2CK53N....." # use here a personal key with the required permissions
You might want to change the TTS_REGION if not using the european server, set TTS_TENANT if using a The Things Clound instance or SERVER if using a on-premise instance of The Things Stack.
To configure auto-provisioning using the ChirpStack REST API CS_TENANT_ID and CS_TOKEN are mandatory and CS_API_URL is optional (will default to http://<SERVER_HOST>:8089).
CS_TOKEN should be a API key created by tenant CS_TENANT_ID or and admin. Remember that GATEWAY_EUI are unique, the service will show a warning if the gateway already exists on the same ChirpStack instance.
An example docker-compose.yml file to autodiscover and auto-provision a gateway to a local ChirpStack LNS at IP 192.168.200.15 would be:
version: '2.0'
services:
udp-packet-forwarder:
image: rakwireless/udp-packet-forwarder:latest
container_name: udp-packet-forwarder
restart: unless-stopped
privileged: true
network_mode: host
environment:
SERVER_HOST: 192.168.200.15
CS_TENANT_ID: "6849ca56-aa22-4025-cc65-be6961131589"
CS_TOKEN: "eyJ0eXAiO..."
From version 2.4.0, you have the option to connect to a remote concentrator via a TCP link. This is useful to use the service with MacOS since Docker Desktop for MacOS does not let you passthrough USB devices. Therefore you can bypass the USB device as a TCP connection using ser2net and mount it back as a UART device inside the container.
First step is to stream the USB device as a TCP connection using ser2net. An example configuration file is provided but you will have to change the port of your USB device accordingly:
connection: &con3333
accepter: tcp,0.0.0.0,3333
enable: on
options:
kickolduser: true
connector: serialdev,
/dev/ttyACM0,
115200n81,local
In the example above (ser2net.yaml file provided with this repo) port /dev/ttyACM0 is mapped to 0.0.0.0:3333 using 115200bps, 8N1.
Attention: any machine with network access to port 3333 will be able to access the USB device, ser2net does not provide any security features. A more secure approach would be to link the service to your host docker IP.
You can run it as ser2net -c ser2net.yaml.
Once the USB device is available as a TCP stream, we can instruct the UDP Packet Forwarder to use this connection. An example docker-compose.yml file can be as follows:
version: '2.0'
services:
udp-packet-forwarder:
image: rakwireless/udp-packet-forwarder:latest
container_name: udp-packet-forwarder
restart: unless-stopped
environment:
MODEL: "RAK5146"
INTERFACE: "NET"
GATEWAY_EUI: "E45F01FFFE517BA8"
When the service boots you will see the information about the network device being used in the summary:
udp-packet-forwarder | ------------------------------------------------------------------
udp-packet-forwarder | UDP Packet Forwarder Container v2.4.0
udp-packet-forwarder | (c) RAKwireless 2022-2024
udp-packet-forwarder |
udp-packet-forwarder | Based on:
udp-packet-forwarder | * lora_gateway v5.0.1
udp-packet-forwarder | * packet_forwarder v4.0.1
udp-packet-forwarder | * sx1302_hal v2.1.0
udp-packet-forwarder | * picoGW_hal v0.2.3
udp-packet-forwarder | * picoGW_packet_forwarder v0.1.0
udp-packet-forwarder | * gateway_2g4_hal v1.1.0
udp-packet-forwarder | ------------------------------------------------------------------
udp-packet-forwarder |
udp-packet-forwarder | Protocol
udp-packet-forwarder | ------------------------------------------------------------------
udp-packet-forwarder | Mode: DYNAMIC
udp-packet-forwarder | Protocol: UDP
udp-packet-forwarder | Server: eu1.cloud.thethings.network:1700
udp-packet-forwarder | Band: eu_863_870
udp-packet-forwarder | Gateway EUI: E45F01FFFE517BA8
udp-packet-forwarder | EUI Source: manual
udp-packet-forwarder |
udp-packet-forwarder | Radio
udp-packet-forwarder | ------------------------------------------------------------------
udp-packet-forwarder | Model: RAK5146
udp-packet-forwarder | Concentrator: SX1303
udp-packet-forwarder | Design: CORECELL
udp-packet-forwarder | Network link: 172.26.0.1:3333
udp-packet-forwarder | Interface: USB
udp-packet-forwarder | Radio Device: /dev/ttyV0
udp-packet-forwarder |
udp-packet-forwarder | Extra
udp-packet-forwarder | ------------------------------------------------------------------
udp-packet-forwarder | Use fake GPS: TRUE
udp-packet-forwarder | Latitude: 0
udp-packet-forwarder | Longitude: 0
udp-packet-forwarder | Altitude: 0
By default it will try to reach port 3333/tcp at the host. You can also specify a different connection in the DEVICE variable:
version: '2.0'
services:
udp-packet-forwarder:
image: rakwireless/udp-packet-forwarder:latest
container_name: udp-packet-forwarder
restart: unless-stopped
environment:
MODEL: "RAK5146"
INTERFACE: "NET"
DEVICE: "192.168.0.150:4321"
GATEWAY_EUI: "E45F01FFFE517BA8"
Feel free to introduce issues on this repo and contribute with solutions.
