Frequency-domain reconfigurable antenna for COVID-19 tracking

Area of Science:

• Electrical Engineering
• Wireless Communication
• Antenna Design

Background:

• The COVID-19 pandemic highlighted the need for robust global tracking and communication systems.
• Satellite-Internet of Things (IoT) networks are vital for real-time data acquisition in remote or widespread scenarios.
• Existing antenna technologies may face limitations in frequency flexibility for dynamic applications like pandemic tracking.

Purpose of the Study:

• To design and propose a novel frequency-domain reconfigurable antenna.
• To enable satellite-IoT tracking applications, specifically for monitoring the COVID-19 pandemic.
• To achieve reconfigurability across Ku and K-bands for enhanced operational flexibility.

Main Methods:

• Utilized 3D electromagnetic computer simulation technology (CST) studio suite for antenna modeling.
• Employed a frequency-domain solver for initial simulations.
• Validated simulation results using a time-domain solver to ensure accuracy and agreement.
• Incorporated four distinct switch mechanisms for multi-stage frequency reconfiguration.

Main Results:

• Successfully designed a reconfigurable antenna capable of operating in both Ku and K-bands.
• Demonstrated the antenna's ability to switch resonance frequencies across four stages.
• Achieved agreement between frequency-domain and time-domain simulation results.
• Confirmed the antenna's suitability for wide frequency range operation in satellite-IoT networks.

Conclusions:

• The proposed reconfigurable antenna design is effective for satellite-IoT applications.
• The antenna's frequency agility makes it suitable for dynamic tracking needs, including pandemic surveillance.
• This innovation supports enhanced global connectivity for critical IoT services.