The development of Sixth-Generation (6G) networks is set to revolutionize mobile broadband communications, providing reliable and ultra-low-latency connectivity for a range of industries. The Internet of Drones (IoD) represents a key component in the development of 3D networks that integrate terrestrial and non-terrestrial infrastructures. Intelligent Reflective Surfaces (IRSs) combined with Unmanned Aerial Vehicles (UAVs) offer more degrees of freedom to achieve flexible and prompt mobile coverage. As the concept of smart radio environment gains momentum, this work proposes an extension module for the Internet of Drones Simulator (IoD-Sim), based on Network Simulator 3 (ns-3), designed to assess the performance of UAV-aided IRS-assisted communication systems. The simulation platform implements the IRS as a peripheral device that can be attached to a drone dynamically configured to organize into patches and assign them to assist communication between two nodes. The extension relies on IoD-Sim's configuration facilities, which greatly ease design and coding scenarios in JavaScript Object Notation (JSON). A simulation campaign demonstrates the effectiveness by discussing several Key Performance Indicators (KPIs), such as Radio Environment Map (REM), Signal-to-Interference-plus-Noise Ratio (SINR), maximum achievable rate, and average throughput. It was also supported by PRIN project no. 2017NS9FEY entitled "Realtime Control of 5G Wireless Networks: Taming the Complexity of Future Transmission and Computation Challenges," funded by Italian MUR, "The house of emerging technologies of Matera(CTEMT)" project funded by Italian MIMIT, and PON AGREED projects (ARS01 00254) funded by Italian MUR. The emergence of a flourishing and empowering community on open source collaboration platforms will ultimately determine the success or failure of future development endeavors. The proposed simulation module for Multi-UAV IRS assisted communications provides an innovative approach to assess the performance of UAV aided IRS assisted communication systems which can be extended in multiple directions.
- In the future, there will be really fast internet called 6G that will change how we use phones and computers.
- People are working on making networks that can connect things like drones in the air to make 3D networks.
- There are special surfaces and flying robots that can help make sure we have good internet everywhere.
- Scientists made a computer program to test if these new ideas work well together.
- They used a computer program to show how the robot and surface idea could help people talk to each other better.
Definitions
- Sixth-Generation (6G) networks: A new type of very fast internet that is being developed for the future.
- Internet of Drones (IoD): A network system where drones communicate with each other and other devices in order to perform tasks more efficiently.
- Intelligent Reflective Surfaces (IRSs): Special surfaces that can reflect signals in different directions, which helps improve wireless communication.
- Unmanned Aerial Vehicles (UAVs): Flying robots or drones that can be controlled remotely by humans or programmed to fly autonomously.
- Simulation module: A computer program designed to simulate real-life situations in order to test theories or ideas before implementing them in reality.
- Key Performance Indicators (KPIs): Measurements used to evaluate how well something is performing based on specific goals or objectives.
- Open source collaboration platforms: Online tools or websites where people from all over the world can work together on projects by
Revolutionizing Mobile Broadband Communications with 6G Networks and the Internet of Drones
The development of Sixth-Generation (6G) networks is set to revolutionize mobile broadband communications, providing reliable and ultra-low-latency connectivity for a range of industries. The Internet of Drones (IoD) represents a key component in the development of 3D networks that integrate terrestrial and non-terrestrial infrastructures. Intelligent Reflective Surfaces (IRSs) combined with Unmanned Aerial Vehicles (UAVs) offer more degrees of freedom to achieve flexible and prompt mobile coverage. As the concept of smart radio environment gains momentum, this work proposes an extension module for the Internet of Drones Simulator (IoD-Sim), based on Network Simulator 3 (ns-3), designed to assess the performance of UAV-aided IRS-assisted communication systems.
The Simulation Platform
The simulation platform implements the IRS as a peripheral device that can be attached to a drone dynamically configured to organize into patches and assign them to assist communication between two nodes. The extension relies on IoD-Sim's configuration facilities, which greatly ease design and coding scenarios in JavaScript Object Notation (JSON). A simulation campaign demonstrates the effectiveness by discussing several Key Performance Indicators (KPIs), such as Radio Environment Map (REM), Signal-to-Interference-plus-Noise Ratio (SINR), maximum achievable rate, and average throughput.
Funding & Support
This research was supported by PRIN project no. 2017NS9FEY entitled "Realtime Control of 5G Wireless Networks: Taming the Complexity of Future Transmission and Computation Challenges," funded by Italian MUR, "The house of emerging technologies of Matera(CTEMT)" project funded by Italian MIMIT, and PON AGREED projects (ARS01 00254) funded by Italian MUR.
Open Source Collaboration Platforms
The emergence of a flourishing and empowering community on open source collaboration platforms will ultimately determine the success or failure of future development endeavors. The proposed simulation module for Multi-UAV IRS assisted communications provides an innovative approach to assess the performance
Sixth-Generation (6G) networks are set to provide reliable, widespread, and ultra-low-latency mobile broadband communications for a variety of industries. In this regard, the Internet of Drones (IoD) represents a key component for the development of 3D networks, which envisions the integration of terrestrial and non-terrestrial infrastructures. The recent employment of Intelligent Reflective Surfaces (IRSs) in combination with Unmanned Aerial Vehicles (UAVs) introduces more degrees of freedom to achieve a flexible and prompt mobile coverage. As the concept of smart radio environment is gaining momentum across the scientific community, this work proposes an extension module for Internet of Drones Simulator (IoD-Sim), a comprehensive simulation platform for the IoD, based on Network Simulator 3 (ns-3). This module is purposefully designed to assess the performance of UAV-aided IRS-assisted communication systems. Starting from the mathematical formulation of the radio channel, the simulator implements the IRS as a peripheral that can be attached to a drone. Such device can be dynamically configured to organize the IRS into patches and assign them to assist the communication between two nodes. Furthermore, the extension relies on the configuration facilities of IoD-Sim, which greatly eases design and coding of scenarios in JavaScript Object Notation (JSON) language. A simulation campaign is conducted to demonstrate the effectiveness of the proposal by discussing several Key Performance Indicators (KPIs), such as Radio Environment Map (REM), Signal-to-Interference-plus-Noise Ratio (SINR), maximum achievable rate, and average throughput.
