Supervisors

Pioneering cutting-edge light-based connectivity for eco-friendly, sustainable, and secure future wireless networks

Designing and using soft materials

Cutting-edge nanoelectronics through advanced models using machine learning, quantum mechanics, high-performance computing

Innovating at the intersection of Neuromorphic and quantum sensing and photonics for transformative technologies

Distributing Trustworthy AI: A Novel Synergy between Federated Intelligence and Learning

Developing statistical models to solve real world problems around health and the environment

Bringing rigour, reflection, and responsibility to computing through formal verification, competency-based learning, and the ethical integration of generative AI in education

Harnessing machine learning to unite engineering and science

Modelling and understanding complex systems

Nature-based solutions for climate-resilient infrastructure

Exploring novel models of learning and teaching, including apprenticeships and game-based learning, with an increasing focus on diversity, inclusion, and widening participation

Pioneering quantum-enhanced sensors and next-generation energy harvesting materials. Innovating at the interface between solid-state physics, quantum engineering, physical chemistry, and materials science.

Flows, fields, and forces

Globally equitable diagnostics with open source hardware.

Forecasting and decision-making under uncertainty

Transforming geotechnical design to drive the energy transition

Innovating decisions on complex systems by System Reliability Engineering

Human-AI collaboration for Software Engineering (SE)

Researching environments at the forefront of climate change

Applying Electromagnetism across the spectrum

Design to educate about, resist against, and subvert AI

Human interface interact and interconnect with mechano-electronic system

From battery materials to manufacturing/cell design

Virtual social interactions

Innovating flood risk reduction strategies in rapidly changing landscapes

Bridging the cap between theory and practice to develop software systems that are safe, resilient, and adaptable

Developing environmental biotechnologies for water systems

I develop data-driven solutions to optimise complex systems

Developing AI that learns from data and expert knowledge for reliable health and climate solutions

Quantum Imaging and sensing and healthcare applications

Visualising and understanding magnetism at the nanoscale for next-generation technologies

Harmonising Computational Mechanics, Bayesian Analysis, and Computational Geometry for Precision Physics-Informed Digital Twins

Engineering adaptive ultrasonic devices and systems for industrial and medical applications

Engineering adaptive ultrasonic devices and systems for industrial and medical applications

Novel Porous Materials for Energy and Healthcare

Designing socially intelligent robots for natural human interaction

Enabling intelligent, resilient monitoring and communication in challenging underwater environments

Bioactive Small Molecule Design and Synthesis

Pushing the state-of-the-art for performance prediction of AI, and explainable AI with over 100 publications in top tier conferences and journals and 17 US patents

Electro-upcycling of chemicals with simultaneous hydrogen production/K-ion batteries for grid storage/chemical vapour deposition of ultra low energy quantum devices for 2D materials

Pure mathematics, particularly in the area of low dimensional topology

Nanowires engineered for the next generation of quantum and photonic devices

State-of-the-art Chemistry for Environmental Engineering

Innovation at interface of computational chemistry, quantum mechanics, devices modeling and materials simulations.

Harnessing quantum innovation for a sustainable future

Innovating ethical AI at the interface of radar, multimodal signals, and health equity

Observing working catalysts

Frontearing AI driven medical image analysis

Materials by design

Human-centred empirical software engineering - innovating around sustainability, agility and the social and ethical impacts of digital technology

Advancing cutting-edge numerical models to unlock the secrets of planetary evolution, habitability, and critical resource discovery — from Earth’s deep interior to icy moons beyond

Developing AI capabilities for understanding human emotion behaviour for mental health and human-agent interaction

Quantum Sensors: developing next generation superconducting single-photon detectors, engineering compact cryogenics, exploring advanced photon counting applications

Innovating at the interface of Chemistry, Biology and Medicine

How to enable autonomous operation of complex distributed systems in known and unknown contexts

Single molecule spectroscopy: greater than the sum of its parts

Building machines that understand visual data with minimal human input, to aid in healthcare, physical sciences and 3D perception

Transforming interdisciplinary understanding of biogeochemical cycling from nano to global scales, across the ocean, Earth, and planetary sciences.

Modeling and digitizing humans in visual computing

Where next-gen telecom and RF innovations meet real-world impact

Gen AI enabled Future Telecoms

Integrated Omics

Modelling dynamic facial expressions across cultures

Artificial Intelligence and Information Retrieval

Designing intelligent multi-sensory systems that learn, infer, and enhance human health and wellbeing

Human-Computer Interaction and Human-centered Security, Privacy and Safety

Enabling robotics through real-time networks and the computing continuum

Intelligent Data Engineering for bridging scientific disciplines and infrastructures

Smart energy innovation from materials and devices to integrated systems

Innovating at the interface of AI, autonomous systems, system reliability and safety, and robotics

Sensing for assisted living, sport performance, and animal welfare

Pushing the physical limits, Innovating in Engineering

Multiscale engineering of materials and devices using physics-based models and machine learning

Mutual enhancement: environmental sensing and wireless communication in synergy

Realising new applications of power ultrasonics enabled by device innovations and understanding of device/target material interactions

Carbon Dioxide Removal for a Sustainable Future

Understanding what happens at the nanoscale...

Atomic-scale microscopy of materials to develop new technologies

Innovating behavioural AI and multimodal machine learning

Cutting-edge muography research at the academia-industry interface

Towards silent and sustainable wind energy

Mathematical and computational modelling

Artificial Intelligence for gravitational wave discovery

Research interests are primarily focused on the development of metal oxide/chalcogenide molecule based materials for energy applications

Advancing green and sustainable wireless communications technologies for zero-touch networks

Breaking barriers in precision timing

Biophotonics - where optics meets the life sciences

Exploring climate change and predicting its impacts through the development and application of process-driven, statistical, and AI-based models

Micro engineering for biomedical devices, 3D printing, photovoltaics

Study and design smart and functional materials

Smart, green, and AI-powered: next-gen networks

Developing statistical and machine learning methods for spatiotemporal and network data with applications in environmental science, engineering and economics

Developing responsible, intelligent, data-driven technologies that connect people with the information they need

Practical solutions for energy transition and climate mitigation

Numerical and experimental investigation of particle-scale mechanisms in geomaterials

Doug's research uses micro-fabrication and nano-fabrication approaches to deliver practical quantum technology systems for applications including position, navigation, timing, LiDAR, quantum imaging, memories, gravity imaging, sensing and secure communications

Quantum imaging and sensing: seeing the unseen

Developing Internet protocols, architecture, technologies, and governance

Coalescing cross-disciplinary techniques to advance imaging technologies, space mission strategies, and more just space futures

Engineering new molecules and materials to create sensors for unmet biomedical and environmental challenges, from bench to point-of-need

Empowering intelligent, connected systems through AI, robotics, and 5G innovation

Realtime AI at the interface between robotics and biomedical engineering

Bubbles to make the world a better place

New polymers for healthcare

I am interested in how we make sense of images and videos and use visual input for complex control tasks

Integrated mid-infrared photonic devices

Towards intelligent and reliable telecom and healthcare

We are working at the interface of polymer chemistry, materials science, engineering and biology

Working with partners in other disciplines to develop photonic chips for a variety of applications: sensing, medical diagnostics, unknown substance identification, light delivery, optical forces and more...

Bridging physics and data to advance composite mechanics - from process to performance

Where physical principles meet human innovation.

My research focusses on mathematical techniques to reason about safety, reliability, and predictability of complex systems

Mathematical modelling and numerical simulations

Making computers safe and secure for everyone

Research at the interface of ecology, theory and engineering

Innovating electrification of energy and transport by intelligent data-driven technology

Making sure that people can use AI to benefit their lives and society

Developing a fundamental understanding of granular flow behaviour with applications in both natural and industrial environments

Discovery of Novel Medical Imaging Agents for Healthcare Applications

Applied research that drives societal impact

Harnessing data and mathematical modelling to solve real-world challenges

Where physics meets life: AI and rheology driving innovative diagnostics and future technologies

Peering inside living organisms to see as clearly as we would see a cell on a microscope slide

Designing biomolecules

Pioneering new approaches for sustainable aviation and aircraft design

Understanding how living cells respond to mechanical stimuli, to design next generation diagnostic and therapeutic approaches

Fluid mechanics across scales: from water treatment techniques to nature-based solutions for flood resilience

Neurotechnology for improving peak performance and for neurorehabilitation; brain computer interfaces

Building green wireless RF electronics and embedded systems; creating commercial impact and communicating research to the public.

Advancing GaN laser technology

Pioneering robotics for a more connected world

Nanoelectronics for critical technologies.

Methodological innovation in embedding geospatial intelligence into AI Foundation Models

Innovating at the interface of single-cell technologies, artificial intelligence, and translational medicine

Uncovering the principles behind deep learning to design efficient and trustworthy AI for medical imaging and neuroscience

Innovating at the aerospace and modern electrification for Net Zero

Innovating at the interface of visual and cognitive computing, AI and machine learning

Digital-twin-based self-certification for complicated systems and multi-agent system

Innovating in the Net Zero geo-energy engineering

Using Earth system modelling to quantify impacts of climate change and human on terrestrial ecosystem dynamics, including vegetation dynamics, greenhouse gas emissions, biogeochemical cycle and water cycle

Computational fluid dynamics, computational aero-acoustics, design optimisation, rotorcraft, rotary wings, advanced air mobility