Antennas have evolved beyond telecommunications to support sensing, wireless power transfer, and energy-harvesting electronic systems. As wireless technologies move toward intelligent and interconnected infrastructures, electromagnetic and radio-frequency sensing are becoming essential components of next-generation healthcare monitoring and smart environments, as well as industrial inspection and autonomous systems. To fully leverage these opportunities, such systems require interdisciplinary expertise ranging from fundamental antennas and propagation research to active antennas and applied radio-frequency technologies, as well as circuits and systems, advanced materials, and AI and machine learning.
This edited book covers interdisciplinary applications with emphasis on antenna-based sensing, RFID, and multi-functional diversity antennas for joint communication, sensing, and wireless power transfer. Emerging and well-established topics are explored, including research on antenna-based and wireless sensors that incorporate novel physical concepts. By bringing together contributions from multiple EM sensing perspectives, this book provides a unified resource for understanding how antenna technology is redefining the landscape of electromagnetic sensing. It highlights advances in antenna configurations, sensing architectures, fabrication techniques, artificial intelligence-assisted sensing, wearable and implantable devices, sustainable and circular electronic systems, integrated sensing and communication platforms, and programmable metasurface antennas and reflective surfaces, for the EM sensing domain.
Antenna Solutions for Next Generation Enhanced Wireless Sensing Systems is written for researchers, engineers, and students working at the intersection of antennas, electromagnetic metamaterials, wireless systems, signal processing, and RF sensing technologies across microwave, mmWave, and THz regimes. The book will also be of interest to those working in the closely related fields of IoT, electronics, energy harvesting, RF and microwave engineering, circuits and systems, and advanced electromagnetic materials.
Masood Ur-Rehman is an associate professor at the James Watt School of Engineering, University of Glasgow, UK. He is chair of the IEEE UKRI Young Professionals Affinity Group, vice-chair of the IEEE UKRI APS/MTTS Joint Chapter, a fellow of RSA, a fellow of Advanced HE (UK), a senior member of IEEE, a member of the IET and a member of the Bioelectromagnetics Society. He has authored 8 books and published over 300 peer-reviewed research papers.
Abdul Jabbar is a vice-chancellor independent research fellow (VCIRF) in the School of Mechanical, Electrical and Manufacturing Engineering at Loughborough University, UK. Before VCIRF, he was a postdoctoral research associate at Glasgow Caledonian University and worked on the EPSRC-funded CHEDDAR Hub project in early 2025. He completed his PhD from the University of Glasgow in 2024 and has authored/co-authored more than 40 research papers.
Muhammad Ali Imran is a professor of communication systems, head of school at the James Watt School of Engineering, University of Glasgow, UK. He is the founding director of the Communication Sensing and Imaging Hub. He has supervised 60+ PhD graduates and published over 1000 peer-reviewed research papers. He is a fellow of the Royal Society of Edinburgh, the IET, and the IEEE.
Qammer Abbasi is the professor of applied electromagnetics and sensing at James Watt School of Engineering and director of the Centre for Integrated Sensing and Communication for Cognitive Cities University of Glasgow, UK. He is a Fellow of EAI, IET, and the Royal Society of Edinburgh.
