Sensor: ttn-smart-sensor-nwave

Vendor: TTN Smart Sensor (Nwave) | Technology: Unknown

TTN Smart Sensor (Nwave) - Technical Overview

Working Principles:

The TTN Smart sensor (Nwave) operates based on Low Range (LoRa) wireless technology coupled with Nwave's proprietary sub-gigahertz wireless protocol. The sensor detects changes in the environment via built-in algorithms that respond to specific parameters, such as temperature variation, movement, or moisture levels, depending on the type of sensor. Once it detects variations from predefined norms, it communicates this information via a LoRaWAN network to the appropriate control or monitoring system.

Installation Guide:

  1. Place the sensor in the desired location ensuring the data will be accurately captured.
  2. The sensor should be within the range of a LoRaWAN gateway to ensure data transmission.
  3. Register the sensor's Device ID, Application ID, and Access Keys using The Things Network console.
  4. Configure the settings depending on the parameter to be monitored.
  5. Perform a test run to ensure the sensor data is accurately captured and transmitted.

LoRaWAN Details:

The TTN Smart Sensor (Nwave) uses a LoRaWan Class A protocol, which enables bi-directional communication between the sensor and the gateway. Because of its use of LoRa technology, the sensor can communicate efficiently over substantial distances of up to 15 km in the countryside and up to 4 km in urban areas. LoRaWAN also allows for reduced power consumption and longer battery life.

Power Consumption:

TTN Smart Sensor (Nwave) is designed with energy-efficient operations in mind. It uses ultra-low-power sleep modes in periods of inactivity and is capable of running on a small battery for several years, depending on the frequency of sensor data transmission and the operating conditions.

Use Cases:

TTN Smart Sensor (Nwave) can be used for various IoT applications, such as:

  1. Agriculture: For monitoring various parameters such as soil moisture, temperature, and sunlight exposure in smart farming applications.
  2. Structural Health: To monitor structural parameters in buildings, bridges, and other civil structures.
  3. Asset Tracking: For real-time monitoring of valuable assets like vehicles, equipment, etc.
  4. Environmental Monitoring: For observing environmental parameters such as air quality, humidity, etc.

Limitations:

While the TTN Smart Sensor (Nwave) is highly versatile, it might have a few limitations:

  1. Coverage: Despite the extended range offered by LoRaWAN, signals may still be hindered by physical obstacles or in areas with limited LoRaWAN coverage.
  2. Battery Life: Although the sensor is designed to consume low power, heavy-duty or continuous usage can shorten battery life.
  3. Interoperability: There can be limitations when trying to interface with devices or systems that rely on different protocols.