Our interests span the full breadth of sustainable electronics systems, from component-level manufacturing, to the role of RF technologies in enabling more sustainable systems

Wireless Power and MHz-Microwave Power Delivery

The full spectrum of wireless power systems from MHz to mmWave; application-driven and across-TRL scale.

• High-TRL RF power delivery and RF-powered sensing, now commercialised via RX WaTT Ltd.
• Fully integrated CMOS wireless-powered systems including rectifiers and backscattering modulators.
• Near-field waveguides for power delivery.
• Implantable and through-body wireless power delivery and their therapeutic applications.
We are active in horizon mapping and community leadership activities, including co-authoring 4 Invited Roadmaps/Features and leading a UK-specific focus (IEEE Microw. Mag'25).

Electromagnetic Sensing: Materials and Devices

Enabling wireless networks to be more efficient and operate uninterrupted in new user-centric applications.
• EM/RF dielectric spectroscopy applied to novel functional materials (Nature Comm.'24, Adv. Science'25).
• RF localisation, ranging, and tracking (IEEE Journal Spec. Areas Sensors'25)
• Chipless resonators for identification and sensing; circular and sustainable materials (IEEE Trans. Microw.'25).
• Antenna-based sensors for environmental and human activity monitoring (IEEE Open Journal Antennas Propag.'22).

Wireless Human Interfaces and E-Textiles

Wireless and battery-less sensors using electromagnetics/materials/smart materials interactions.
• Robust, microwave-enabled wearables and e-textiles (IEEE Journal of Microw.'22).
• Multi-port antenna design for RF sensing.
• Body-centric antenna-based sensing and ML-enabled tracking.
• Materials and surfaces for EM wave manipulation, shielding, and modulation.

Advanced RF Packaging and Heterogenous Integration

Applying scalable additive manufacturing, microfabrication, and deposition methods to meet the requirements of emerging high-density and high-speed interconnects in telecommunications and computing:
• RF-THz interconnects using additive manufacturing.
• 2.5D and 3D integration of MMICs and RFICs.
• High-speed (100 GHz+) and wireless interposer design and fabrication on glass and silicon.

Sustainable and Circular Electronic Materials

Integrating design-for-circularity, "green" materials, and recycling and re-use for next-generation electronics.
• Materials and fabrication for material circularity and IC re-use, including RF systems (IEEE Trans. Circuits Sys.'25).
• Biodegradable and bio-sourced abundant materials for low-waste wireless sensors.
• Life Cycle Assessment (LCA) of RF systems and LCA-driven electronics design (IEEE Journal Microw.'24).
• Applied research with industry on scaling biodegradable/sustainable elctronics to wireless/RF (Whitepaper'25).

Interested in Working Together?

Whether you are an academic undertaking related research or an industry-based end-user looking for further information, please get in touch!

Phone

(+44) 0141 330 3601

Address

James Watt South, School of Engineering
Univeristy of Glasgow
Glasgow, G12 8QQ
University of Glasgow