Applied Electromagnetics

We focus on cutting-edge research and development in Medical Electromagnetic (EM) Imaging & Sensing, and Microwave Communication Systems. Our projects span from fundamental to translational research in collaboration with industry and clinical partners.  These include:

Electromagnetic MedTech: We develop non-invasive, safe, and accurate diagnostic systems by integrating advanced electromagnetic hardware with intelligent data analysis. Our work includes designing near-field antennas and probes, building realistic bio-models for validation, and creating processing techniques to extract clinical insights. Using physics-guided AI, we improve diagnostic accuracy and bridge the gap between theory and medical practice.
Communication and Sensing Systems: We advance microwave and millimetre-wave technologies for next-gen communication and sensing. Our research includes passive radar for covert detection, multi-mode beamforming for adaptive networks, and novel antenna materials for lightweight, cost-effective designs. We also engineer reconfigurable microwave devices for 5G/6G, satellite, and defence applications, delivering scalable, high-performance solutions for future wireless and radar systems.

Research Project Themes

Medical Electromagnetic Imaging Systems

Our research aims at developing portable, affordable, and non-ionizing imaging and diagnostic systems that provide accurate, safe, and frequent monitoring, offering a complementary or practical alternative to conventional imaging methods.

Our approach combines cutting-edge hardware and intelligent software:

Hardware: Compact, wideband antennas enhanced with metamaterials, 3D-printed high-permittivity materials, lens structures, and hybrid designs.

Software: Advanced signal processing powered by AI to deliver reliable, application-specific diagnosis.

This interdisciplinary work is carried out in collaboration with leading clinical and research partners, including Princess Alexandra Hospital, TRI, QIMR, and the School of Human Movement and Nutrition Sciences, ensuring real-world validation through clinical trials.

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Multi-Mode Beamforming Systems

Our research aims at developing compact antenna systems that integrate multiple radiation modes within a compact volume. These systems can steer waves in desired directions, rapidly adjust steering angles, operate across multiple frequencies, and minimize unwanted signals. Compared to traditional beamforming solutions such as phased arrays or mechanical scanning, our approach offers a lightweight, cost-effective alternative for applications with moderate gain requirements. Our intelligent multi-mode antennas controlled by software-defined radios enables reliable detection and communications even in challenging electromagnetic environments.

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Christophe Fumeaux

Sasan Ahdi Rezaeieh

Antenna materials and manufacturing techniques

Passive Radars

Our passive radar research focuses on developing low-cost, multi-receiver systems that exploit existing broadcast signals (such as digital radio and TV) instead of dedicated transmitters. This approach enables covert, energy-efficient, and cost-effective detection and tracking of targets for applications in traffic monitoring, drone detection, and security. Our work addresses key challenges in receiver synchronization, clutter cancellation, and real-time signal processing, leveraging software-defined radios (SDRs) and advanced algorithms to achieve accurate 3D target localization and extended coverage without expensive infrastructure.

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Konstanty Bialkowski

Adaptive Microwave Devices

Our research focuses on creating next-generation tunable components that enable advanced communication, sensing, and imaging systems. These devices are designed to adapt in real time, enabling dynamic control of frequency, bandwidth, and radiation patterns, critical for emerging technologies like 5G/6G networks, and biomedical imaging.

We explore innovative reconfiguration techniques, including mechanical and electronically controlled techniques. By combining these approaches, we aim to deliver compact, energy-efficient, and highly versatile RF solutions that meet the growing demand for flexible, high-performance wireless systems.

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Amin Abbosh

Christophe Fumeaux

Lei Guo

Applied Electromagnetics

Research Project Themes

Medical Electromagnetic Imaging Systems

Multi-Mode Beamforming Systems

Antenna materials and manufacturing techniques

Passive Radars

Adaptive Microwave Devices

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