Antares
Antares
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  • Getting Started
    • Account Registration
    • Create App
    • Add Devices to the Application
    • Installation Board and Library
      • ESP8266
      • ESP32
      • STM32
    • Arduino IDE Installation
    • Arduino Library Installation
      • Antares LoRaWAN
      • Antares Wi-Fi HTTP
      • Antares Wi-Fi MQTT
      • DHT11 Sensor Library
      • Adafruit SSD1306
    • STM32 Cube IDE Installation
    • Expansion Pack I-CUBE-LRWAN Installation
    • Software Installation
      • MQTTX Installation
      • Postman Installation
      • Operating System (OS) on SD Card Installation
    • Quickstart
  • Antares Insight Hub
    • Getting Started
      • Request Demo
      • Request Free Trial
    • Usecase
      • Power Meter
        • Power Meter Usecase Prerequisites
        • Power Meter Device Recommendation
        • Payload Example Power Meter
        • Setup Device Threshold Power Meter
      • Water Meter
        • Water Meter Usecase Prerequisites
        • Water Meter Device Recommendation
        • Payload Example Water Meter
        • Setup Device Threshold Water Meter
      • Water Level
        • Water Level Usecase Prerequisites
        • Water Level Device Recommendation
        • Payload Example Water Level
        • Setup Device Threshold Water Level
      • Environment Monitoring
        • Prerequisites for Use of Environmental Monitoring
        • Environment Monitoring Device Recommendation
        • Payload Example Environment Monitoring
        • Setup Device Threshold Environment Monitoring
    • Settings
      • Manage Alert Recipient (Telegram)
      • Manage User
      • Roles
  • Subscription and Payment
    • Platform
      • How to Use Platform Packages
      • How to Purchase a Platform Subscription
        • Payment Using Antares Coins
        • Payment Using Virtual Account
          • Mandiri Bank
          • Permata Bank
          • BRI Bank
          • BNI Bank
        • Payment Using e-Wallet (LinkAja)
        • Payment Using Credit Cards (CC)
      • Procedure for Renewing a Platform Subscription
      • Procedure for Changing Platform Subscription
    • Connectivity
      • How to Use Connectivity Packages
      • How to Purchase a Connectivity Subscription
        • Payment Using Antares Coins
        • Payment Using Virtual Account
          • Mandiri Bank
          • Permata Bank
          • BRI Bank
          • BNI Bank
        • Payment Using e-Wallet (LinkAja)
        • Payment Using Credit Cards (CC)
      • Procedure for Renewing a Platform Subscription
      • Procedure for Changing Connectivity Subscription
    • Antares Coins
      • Antares Coins Top Up Payment Procedures
        • Payment Using Virtual Account
          • Mandiri Bank
          • Permata Bank
          • BRI Bank
          • BNI Bank
        • Payment Using e-Wallet (LinkAja)
        • Payment Using Credit Cards (CC)
  • Code and library examples
    • ESP8266 (Wi-Fi)
      • General Prerequisites ESP8266 Wi-Fi
      • ESP8266 (Wi-Fi) HTTP Protocol
        • Sending Simple Data to Antares with HTTP Protocol
        • Retrieve the Last Data from Antares Server with HTTP Protocol
        • Simple Project ESP8266 HTTP Antares
          • Periodic Post DHT 11 Data
          • Post DHT 11 Data with Push Button
          • Post DHT 11 data and Display on OLED
          • Get Data displayed on OLED
          • Post and Get DHT 11 Data displayed on OLED
          • Controlling Relays and LEDs Through Get Commands
      • ESP8266 (Wi-Fi) MQTT Protocol
        • Sending Simple Data to Antares with the MQTT Protocol
        • Retrieve Last Data from Antares Server with MQTT Protocol
        • Simple Project ESP8266 MQTT Antares
          • Periodic Send DHT 11 Data
          • Send DHT 11 Data with Push Button
          • Send DHT 11 data and display on OLED display
          • Retrieve Data displayed on OLED Display
          • DHT 11 Send Data and Retrieve Data displayed on OLED Display
          • Controlling Relays and LEDs Through Get Commands
    • Arduino Uno
      • Arduino IDE Installation
      • Antares Ethernet Shield Library Installation
      • Configuration
      • Send Simple Data to Antares
    • ESP32 (Wi-Fi)
      • General Prerequisites ESP32 Wi-Fi
      • ESP32 (Wi-Fi) HTTP Protocol
        • Sending Simple Data to Antares with HTTP Protocol
        • Retrieve the Last Data from Antares Server with HTTP Protocol
        • Simple Project Lynx-32 HTTP Antares
          • Periodic Post DHT 11 Data
          • Post DHT 11 Data with Push Button
          • Post DHT 11 Data and Display on OLED
          • Get Data displayed on OLED
          • Post and Get DHT 11 Data displayed on OLED
          • Controlling Relays and LEDs Through Get Commands
      • ESP32 (Wi-Fi) MQTT Protocol
        • Sending Simple Data to Antares with the MQTT Protocol
        • Retrieve Last Data from Antares Server with MQTT Protocol
        • Simple Project Lynx-32 MQTT Antares
          • Periodic Send DHT 11 Data
          • Send Data DHT 11 dengan Push Button
          • Send DHT 11 Data and Display on OLED
          • Retrieve Data displayed on OLED Display
          • DHT 11 Send Data and Retrieve Data displayed on OLED
          • Controlling Relays and LEDs Through Retrieve Commands
      • HTTP & MQTT Protocol
    • ESP32 (LoRa)
      • General Prerequisites ESP32 LoRa
      • Sending Simple Data to Antares
      • Project Simple Lynx-32 LoRa Antares
        • Uplink DHT11 Data Periodically
        • Uplink Data DHT11 dengan Push Button
        • Uplink DHT11 Data and Display on OLED Display
        • Downlink Data Displayed on OLED
        • DHT 11 Uplink Data and Downlink Data displayed on OLED
        • Controlling Relay and LED via Downlink Command
      • LoRaWAN Class
    • STM32 (LoRa) STM32Cube IDE
      • General Prerequisites STM32 (LoRa) STM32Cube IDE
      • Sending Simple Data to Antares
    • STM32 (LoRa) Arduino IDE
      • General Prerequisites STM32 (LoRa) Arduino IDE
      • Sending Simple Data to Antares
    • Raspberry Pi
      • GUI (Graphical User Interface)
        • Raspberry GUI General Prerequisites
        • Sending Data Using Node.js
        • Temperature and Humidity Monitoring Using DHT11 Sensor
      • SSH (Secure Shell)
        • Common Raspberry SSH Prerequisites
        • Sending Data Using Node.js
        • Temperature and Humidity Monitoring Using DHT11 Sensor
    • NB-IoT
      • NB-Lynx-7000
        • General Prerequisites NB-Lynx-7000
        • Sending Simple Data to Antares
        • Retrieving GNSS (Global Navigation Satellite System) Data
      • NB-Lynx-95
        • General Prerequisites NB-Lynx-95
        • Sending Simple Data to Antares
    • Android
      • Retrieve data from ANTARES using Android
      • Coding Stuff
    • MIT App Inventor
    • Node-RED
    • Postman
    • MQTT | Push data to Device
    • HTTP | Subscribe and Notify Mechanism
    • PHP Library
    • MQTT | Subscribe LoRa Device
    • LoRaWAN | Downlink Tutorial
    • LoRaWAN Device Register
      • Register Menu
    • GPS TrackerID
  • Data Model
  • Port Configuration
  • API | HTTP
    • Device
    • Data of Device
    • Subscriber
  • API | MQTT
    • Device
    • Subscriber
  • List of Acronyms
  • Relevant Software
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  2. ESP32 (LoRa)

LoRaWAN Class


LoRaWAN is an innovative and efficient wireless communication technology for Internet of Things (IoT) applications. LoRaWAN (Long Range Wide Area Network) is a protocol specifically designed to connect devices with long range coverage and low power consumption.

There are two classes of LoRaWAN supported by LoRaWAN Antares, namely Class A and Class C.

  • Class A, which is the most common and most efficient class in terms of energy usage. LoRa Class A devices have a specific duty cycle where they transmit data at regular intervals, however, downlinks (messages from the server to the device) can only be received after the device has sent an uplink (message from the device to the server). This makes Class A particularly suitable for applications that require long-distance connections and low energy consumption, such as environmental monitoring, remote sensors, and surveillance systems.

  • Class C, which offers real-time response and faster communication. LoRa Class C devices are always active in receive mode, with the RX window (time to receive messages) always open. This allows the device to receive downlinks at any time, without having to wait for a certain period as in Class A. Class C is suitable for applications that require real-time communication, such as traffic monitoring, remote control, and IoT applications that require instant response.

For more details on the differences between LoRa Class A and Class C protocols, see the table below:

Fitur
Class A
Class C

Downlink Receptions

Only after the uplink is sent

At any time, at the end of each slot downlink

Uplink Transmission

After downlink (RX window opened according to uplink periodic duration)

At any time, the RX window is always active

Energy Consumption

Low

Higher than Class A

Application

Remote sensor, monitoring, temperature sensor

Real-time applications, traffic monitoring, IOT

Data Delivery Delay

Longer because of waiting for the RX window to activate

Lower because the RX window is always active

Battery Usage

Efficient due to sleep in sleep mode

More wasteful because it is always active in the RX window

Response Speed

Indirect, dependent on RX window time

Direct, data received as transmitted

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Last updated 8 months ago