LiFi & Visible Light Communications
High‑speed, license‑free wireless links delivered through everyday LED lighting, spanning MU‑MIMO precoding, modulation design, and hybrid RF/VLC network architectures.
James Watt School of Engineering · University of Glasgow
Researcher and educator innovating on light‑based wireless communications and sensing.
I am a Lecturer (Assistant Professor) in the James Watt School of Engineering at the University of Glasgow, specialising in LiFi (Light Fidelity) and optical wireless communication systems. Before joining Glasgow, I was a Postdoctoral Research Associate in the Department of Electronic and Electrical Engineering at the University of Strathclyde (2020–2022), and at the LiFi Research and Development Centre, University of Edinburgh (2017–2020).
I received both my MSc and PhD in Electrical and Computer Engineering from Khalifa University, UAE, in 2013 and 2017 respectively. My research develops intelligent, energy‑efficient, and scalable light‑based communication and sensing technologies, combining information theory, signal processing, and machine learning to enable next‑generation wireless networks.
I have led several pioneering projects, including the EPSRC‑funded PerceptiFi project, and established the LIGHTS Lab (Laboratory for Intelligent Guided Hybrid Transmission and Sensing) at Glasgow. I have been named among the 100 Brilliant and Inspiring Women in 6G and endorsed as a Global Talent by the Royal Academy of Engineering. I am a Senior Member of IEEE and have served as an Associate Editor for leading IEEE journals.
I established and lead the LIGHTS Lab at the University of Glasgow. My team investigates how to turn light into an intelligent medium for communication, sensing, and positioning, bringing together optical wireless communications, signal processing, and machine learning to shape the next generation of connected environments.
High‑speed, license‑free wireless links delivered through everyday LED lighting, spanning MU‑MIMO precoding, modulation design, and hybrid RF/VLC network architectures.
Reusing light for data transfer and environmental awareness at once, enabling localisation, occupancy, and gesture sensing through the same lighting infrastructure.
Optical and RF intelligent reflecting surfaces that reshape signal propagation, improving coverage and flexibility across space‑air‑ground integrated wireless networks.
Exploiting the directionality and confinement of light to build inherently secure, eavesdropper‑resistant communication links for 6G systems and beyond.
Current PhD researchers supervised within the LIGHTS Lab.
A selection of my journal papers, conference proceedings, and books. Full and continually updated records are on Google Scholar.
Enhancing PLS of indoor IRS‑VLC systems for colluding and non‑colluding eavesdroppers
Leveraging IRS‑induced time delay for enhanced physical layer security in VLC systems
Frequency‑domain channel characteristics of intelligent reflecting surface assisted visible light communication
RIS‑assisted space‑air‑ground integrated networks: new horizons for flexible access and connectivity
LiFi through reconfigurable intelligent surfaces: a new frontier for 6G?
On the performance of visible light communication systems with non‑orthogonal multiple access
Non‑orthogonal multiple access for visible light communications
Enabling mmWave communications with VCSEL‑based light‑emitting reconfigurable intelligent surfaces
A scanning‑based indoor optical wireless positioning system with a single VCSEL
Intelligent reflecting surface‑aided visible light communications for granting indoor secrecy
Intelligent reflecting surfaces for enhanced physical layer security in NOMA VLC systems
Optical wireless communications using intelligent walls
An introduction to optical wireless mobile communications
Visible‑light communications and light fidelity
My goal is to inspire students to think critically, innovate boldly, and develop the skills needed to solve tomorrow's engineering challenges.
I have contributed to the teaching and development of the following undergraduate modules:
James Watt School of Engineering, University of Glasgow, Glasgow, UK.