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Photonic sensing and measurement

We develop advanced instrumentation capable of performing with precision in challenging and extreme conditions. Our work combines microfabrication techniques with quantum optics and astrophotonics — a combination of photonics and astronomical instrumentation — to create adaptable, high-performance tools for a variety of applications. This includes medical imaging, where photonic sensors enable non-invasive diagnosis, and environmental monitoring, where precise measurements are crucial for tracking environmental changes.

We develop optical diagnostics to measure complex properties such as strain, deformation, and fluid dynamics when materials are placed under stress. These diagnostics play an essential role in validating manufacturing models and advancing the technologies used in critical processes.

Our research also contributes to defence technologies, creating resilient systems that can operate reliably in the field. With expertise in quantum-enhanced sensing and optical measurement, we develop tools that provide accurate and reliable data across multiple sectors, from healthcare to national security.

Through close partnerships with clinical and environmental research groups, our photonic sensing technologies are advancing the capabilities of diagnostic and monitoring systems worldwide, offering precision solutions for a broad range of scientific and practical needs.

Photonics is a world-leading area of research expertise at ÀÖ²¥´«Ã½, recognised in the 2021 Queen's Anniversary Prize for photonics. The Institute of Photonics and Quantum Sciences (IPaQS) is an integral part of a focused research ecosystem, collaborating on aligned projects across our other institutes and global research institutes; The National Robotarium, The Lyell Centre for Earth and Marine Sciences and Technology, The Global Research Institute in Health and Care Technologies, and the iNetZ+ Global Research Institute for Net Zero and Beyond.

By bringing together experts in photonics, and a range of scientific disciplines, in a collaborative environment, the most complex challenges can be tackled. This interdisciplinary approach is strengthened through external partnerships, ensuring the research not only advances scientific understanding but also delivers real-world impact across multiple sectors, from telecommunications to healthcare and precision manufacturing.

Related themes and projects

Biomedical photnics 1

Biomedical photonics

Applying light-based technologies to healthcare, improving diagnostics, monitoring, and treatments through advanced lasers and photonic sensors.

Engineering the fight against cancer

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High-power laser applications

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Leveraging powerful laser systems for industrial and medical advancements, supporting precision manufacturing, 3D printing, medical device development and precision surgery.

Nanophotonics

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Exploring light manipulation at the nanoscale, enabling compact, high-efficiency photonic devices for imaging, display, detection, information processing, quantum science, and particle manipulation.

Novel light sources

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Developing advanced technologies such as ultrafast lasers and optical frequency combs. These tools enable precision applications in spectroscopy, metrology, and imaging, impacting industries from astronomy to manufacturing.