Fossasat 1 The First Public LoRa Satellite

The Fossasat-1, the world's first public LoRa satellite, was launched on a Falcon 9 rocket from Cape Canaveral in Florida. The satellite is equipped with a LoRa module that allows it to communicate with LoRa sensors and devices on Earth.

The satellite's mission is to provide a platform for experimenting with LoRa technology in space. It will allow developers to test their LoRa-based projects in a real-world environment, which can help accelerate the development of new applications and services.

Before the satellite's launch, enthusiasts were excited to set up their ground stations to communicate with Fossasat-1. The setup included a LoRa module, an antenna, and a computer or microcontroller to control the communication.

The ground station needs to be configured to match the frequency and settings of the satellite's LoRa module. This involves setting up the correct frequency, bandwidth, spreading factor, and coding rate to ensure reliable communication with the satellite.

Once the ground station is set up and configured, it can start sending data to the satellite. The satellite will then receive this data and transmit it back to Earth, where it can be received by other LoRa devices or sensors.

However, during the first pass of Fossasat-1 over Europe, there were some issues with communication. The satellite was not responding to commands, and only a few stations managed to establish contact.

One possible reason for this issue could be that the satellite is in low power mode, which would limit its ability to communicate with ground stations. This was not expected, and the team behind Fossasat-1 is investigating the cause of the problem.

Despite these initial issues, the launch of Fossasat-1 marks an exciting milestone for LoRa technology. It demonstrates the potential for using LoRa in space-based applications and opens up new opportunities for experimentation and innovation.

The Lacuna project, a commercial initiative that aims to use LoRa technology on the 868 MHz frequency band, is also worth noting. This project will be compatible with LoRaWAN and could potentially provide new opportunities for applications using this frequency band.

As the Fossasat-1 mission continues to unfold, enthusiasts and developers are eagerly awaiting updates on its progress. The success of this satellite will help pave the way for future LoRa-based space missions and inspire new innovations in this field.

TLEs are a way to describe the position and velocity of an object in space, such as a satellite. They consist of two lines of data that contain information about the object's orbital elements.

The first line of a TLE contains the object's name, its catalog number, and the epoch (a reference time) for which the orbital elements are valid. The second line contains the six Keplerian elements that describe the object's orbit.

A ground station typically consists of a LoRa module, an antenna, and a computer or microcontroller to control the communication.

The LoRa module should be configured to match the frequency and settings of the satellite's LoRa module. This involves setting up the correct frequency, bandwidth, spreading factor, and coding rate.

The ground station can send data to the satellite using the LoRa module. The satellite will then receive this data and transmit it back to Earth, where it can be received by other LoRa devices or sensors.

During the first pass of Fossasat-1 over Europe, there were some issues with communication. The satellite was not responding to commands, and only a few stations managed to establish contact.

The Lacuna project is a commercial initiative that aims to use LoRa technology on the 868 MHz frequency band. This project will be compatible with LoRaWAN and could potentially provide new opportunities for applications using this frequency band.

• Utilizes the LoRaWAN protocol for secure, bidirectional communication
• Supports low-power consumption and long battery life
• Provides global coverage through a network of satellites
• Enables real-time data transmission and remote monitoring

• Industrial automation and control
• Agricultural monitoring and management
• Environmental monitoring and tracking
• Logistics and supply chain management
• Smart cities and infrastructure management