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Vapeless Pro Gas detection indoor Sensor

Vapeless Pro Gas detection indoor Sensor

Vapeless Pro Gas detection indoor Sensor

NanoSensorics

Platform
ThingsBoard
Hardware Type
Sensors
Connectivity
LoRaWAN
Industry
Security, Smart Buildings, Smart Cities
Use Case
Smart Office, Smart Metering, Environment Monitoring, Health Care

Introduction

Vapeless Pro Gas detection indoor Sensor The VAPELESS is advanced technology gas detection indoor sensor applied for the full sensing of the Vaping gases exhaust by the electronic cigarettes together with environment temperature and humidity. VAPELESS enclosed in a room sensor box and designed to be wall mounted. VAPELESS is powered 5V DC voltage and is enclosed with 3.6 V batteries for the feeding LoRaWAN infrastructure in the sensor.


Prerequisites

To continue with this guide we will need the following:

Device connection

Device Configuration

To connect and send data, we need to configure both the device and the network server.

First, let’s configure the device and gather the necessary information for the network server. To add a device to the network server and receive data from it, you’ll need these device parameters:

  1. Device EUI (DevEUI): The unique device identifier. You’ll find this on a sticker on the back of your sensor.
  2. Application EUI (JoinEUI): The application identifier.
  3. Application Key (AppKey): The application key used to authenticate the device.

The AppKey and JoinEUI are unique to each customer and are sent individually after your sensors are shipped or received.

To configure the device we also need to add it to a network server, so select the network server your gateway is connected to:

Add a device on the Chirpstack

We need to add a device on the Chirpstack.

To add a device, you can follow next steps:

  1. Login to Chirpstack server.
  2. Go to the Device profiles page and click on Add device profile button.
  3. Fill the fields and click on Submit button.
  4. Go to the Applications page, click on your application and press Add device button.
  5. Fill parameters with values from the device configuration. Then choose previously created device profile and click on Submit button.
  6. Put your Application key to the field and click on Submit button to save the device.
Step 1: Download the JSON file

Download the JSON file with the uplink converter settings by clicking the button below.

Download uplink converter for ChirpStack integration.


Step 2: Import the Uplink converter into ThingsBoard

After downloading the file with the Uplink converter configuration, import it into ThingsBoard:

  1. Navigate to the “Data converters” page in the “Integration center” section.
  2. Click the ”+” icon in the top-right corner of the page and select “Import converter” from the drop-down menu.
  3. Drag and drop the downloaded JSON file (containing the uplink converter configuration) into the import window, then click “Import”.
  4. The uplink converter is now successfully imported.

Step 3: Replace the Uplink converter in the ChirpStack integration

Now, let’s update your ChirpStack integration to use the new uplink converter:

  1. Go to the “Integrations” page in the “Integration center” section.
  2. Click on your ChirpStack integration to open its details window.
  3. Enter edit mode by clicking the orange pencil button in the top-right corner.
  4. Replace the existing uplink converter with the imported one.
  5. Don’t forget to save your changes!

Check data on ThingsBoard

After the device is connected to the network server and ThingsBoard, you can check received and converted data on the platform for this device.

To do this, open Entities menu section and select Devices. Click on the device name to open the device details page. Go to the Latest telemetry tab to see the latest telemetry data received from the device.

LoRaWAN device data

Conclusion

Now you can easily connect your Vapeless Pro Gas detection indoor Sensor and start sending data to ThingsBoard.

To go further, explore the ThingsBoard documentation to learn more about key features, such as creating dashboards to visualize your telemetry, or setting up alarm rules to monitor device behavior in real time.