Ideal for short-term applications (asset tracking, facility access, etc.) Portable, lightweight, small in size, and easy to deploy Non-replaceable lithium battery – up to 2 year battery life Great general purpose beacon in a small form factor that can be installed virtually anywhereĤ AA batteries (included) – up to 10 year battery lifeĨ D batteries (included) – Decades of battery lifeĭesigned for use on-the-go with a built-in key chain hole Rugged, weatherproof, and temperature-resistant The RedBeacon E is available in four form factors: E4, E8, Card, and Chip. Supported beacon proximity technologies include: Configure it the way you want it using your mobile device with the free RadBeacon App for iOS or Android. As the industry’s first multi-beacon, with concurrent support for all major industry-standard proximity technologies, the RadBeacon enables simultaneous proximity services across iOS, Android, and other emerging mobile environments. The RadBeacon E has 5 configurable beacon advertisements, so you can pick the identifiers you want for your project. The RadBeacon E is perfect for a wide range of applications such as mobile app engagement, asset tracking, location-based advertising, and more.įully Configurable Multi-Beacon Technologyĭon’t get stuck with IDs from your beacon vendor that might overlap with other deployments. The RadBeacon E Series is a family of fully stand-alone Bluetooth proximity beacons that supports iBeaconTM, AltBeaconTM, and EddystoneTM technology. This micro-location proximity awareness can be leveraged to deliver a wide range of new innovative solutions, such as right-place, right-time customer notifications, precision indoor navigation, automatic ticketing, guided tours, and location-relevant offers and promotions. The short range, low power, Bluetooth Smart transmitters notify mobile devices when they come within range of a beacon. And I think this is just on way, not sure how to forward a node subscribing back via LoRa from the NanoGateway.Radius Networks is the leading proximity beacon provider. This would hard code each LoRa/LoPy sensor node with its topics, which is not very flexible. The NanoGateway would receive the message payload and publish the topic with something like:Ĭlient.publish("/sensors/sensor8/temp", "72.3") I am not sure of a proper syntax to send in the message payload for parsing and forwarding. Msg = "client.publish("/sensors/sensor8/print(temp)")" It seems like this would work, but I would like the message payload to be inclusive like Pkg = struct.pack(_LORA_PKG_FORMAT % len(msg), DEVICE_ID, len(msg), msg) In the LoPy RAW NanoGateway example HERE the node code the message payload (Sensor Data Here) could include sensor data that the NanoGateway would publish the topic to the MQTT broker. However, this hard codes publishing topics in node code. Ideally it would just publish topics/data based on the message payload from the LoPy node. I don't know if there is a simple programmatic way to assemble and send the messages/topics from the NanoGateway to the MQTT Broker. The MQTT example HERE uses WiFi to send client messages to the MQTT Broker.Įach LoRa/LoPy node needs to send the data to the NanoGateway, the NanoGateway needs to send it to the MQTT Broker. "The nodes send messages to the Nano-Gateway for further processing, this might include sending the messages over WiFi to a server for example." I apologize that I have not been very clear in my posts. LoPy/LoRa Node -> LoPy/LoRa NanoGateway (recieves and forwards via WiFi)->LoPy/WiFi NanoGateway -> local network. Thanks am still wrapping my mind around how to go from sensor/MQTT->LoPy send via LoRa to a LoPy acting as a RAW LoRa Nano-Gateway/LoPy-> that then forwards the message over wifi on local network. Upstream – 8 channels numbered 64 to 71 utilizing LoRa 500 kHz BW at DR4 starting at 903.0 MHz and incrementing linearly by 1.6 MHz to 914.2 MHz" Upstream – 64 channels numbered 0 to 63 utilizing LoRa 125 kHz BW varying from DR0 to DR3, using coding rate 4/5, starting at 902.3 MHz and incrementing linearly by 200 kHz to 914.9 MHz The 915 MHz ISM Band shall be divided into the following channel plans. The LoPy US915 channel allocation comes from the same place as the EU 868 channel allocation, the official LoRaWAN Regional Parameters specification published by the LoRa Alliance Maybe I'm wrong, I do not have a live US environment here, but what is the default LoPy US channel allocation? I'm not saying it is wrong, just how to get it? Said in LoRaWAN default channel allocations:
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