Research group

Smart Lasers and Special Fibres

Laser lights

Our research vision is to revolutionise manufacturing in the digital era by developing the next generation of reconfigurable, scalable, resilient, power efficient, disruptive ‘smart’ fibre laser tools for the demanding medical and biosciences sectors.

About

Fibre laser and special fibre technologies have impacted a number of industrial sectors, enhancing manufacturing, healthcare, defence, communication, and energy systems. They have provided the advanced manufacturing, imaging and sensing tools to revolutionise entire industries such as the car, aerospace, oil, defence and civil engineering industries. And yet, continued advancements in fibre and fibre laser technologies are expected to drive further innovations and transformative applications in the future.

Our research will focus on removing the technology and science roadblocks, develop novel optical materials, address the underlying fundamental physics to fully exploit the massive parallelism offered uniquely by the optical fibre technology, utilise the vectorial nature of light – by optimally combining spatial, polarisation and wavelength attributes – and embed advanced deep-learning algorithms to solve the multi-dimensional complexity control problem.   

Our advanced fibre/fibre laser technology can also contribute into the promising quantum revolution by providing innovative solutions for quantum metrology and the development of precise and ultra-stable sources for quantum-computing. Innovative specialty fibres, supplemented by advanced AI for control and interrogation, can also revolutionise smart distributed fibre sensor systems, for the aerospace, the traditional oil and the fast-growing renewable energy industries.    

Our longer-term research ambition is to catapult specialty fibres and fibre lasers to places no laser has been before, thus enabling them to not only manufacture our future goods and make UK a more prosperous nation, but also to protect against aerial threats, build the next generation of efficient, compact particle accelerators, clean-up space debris, treat nuclear waste, and all in all make the world a better, cleaner, greener, and safer place.

People, projects and publications

People

Dr Ali Masoudi

Principal Research Fellow
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Mr Andres Biondi Vaccariello

Research interests

  • Laser processing and microfrabrication.
  • Application for Hollow Core Fibre for sensing purposes. 
  • Fibre optics sensors. 
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Professor Andy Clarkson

Professor of Optoelectronics Research
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Dr Ben Mills

Principal Research Fellow
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Professor Gilberto Brambilla

Associate Dean International
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Dr Jacob Mackenzie

Associate Professor

Research interests

  • Waveguide amplifiers and lasers
  • Cryogenically cooled lasers for peak and average power scaling
  • Ultra-fast high repetition rate compact lasers

Accepting applications from PhD students

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Dr James A. Grant-Jacob

Senior Research Fellow-ORC advanced

Research interests

  • Photonics with artificial intelligence
  • Environmental sensing using light
  • Laser-induced forward transfer (LIFT)

Accepting applications from PhD students

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Professor Jayanta Sahu

Professor of Photonics

Accepting applications from PhD students

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Professor Johan Nilsson

Professor of Optoelectronics
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Dr Manuel Medina

Research Fellow
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Related research institutes, centres and groups

Zepler Cleanrooms

The Zepler Cleanrooms Complex is a state-of-science multidisciplinary Centre which includes a variety of facilities and laboratories for materials and device research in electronics, photonics and nanotechnology, with both planar wafer and optical fibre capabilities supporting both Research and Enterprise.

Advanced Solid-State Sources

The Advanced Solid-State Sources group develops novel approaches for scaling output power from lasers for use in a variety of applications including industrial manufacturing, medicine and defence.

Advanced Fibre Applications

We are dedicated to exploring advanced applications of cutting-edge optical fibres, with a special emphasis on hollow core fibres. These fibres are designed and fabricated by the Zepler Institute Microstructured Fibre group, while our group focuses on aspects of these newly-emerging fibres from the ‘user perspective’.

Computational Nonlinear Optics

We develop theoretical models and computer simulations for a wide range of photonics systems, such as optical fibres, integrated waveguides, and quantum technology.

Distributed Optical Fibre Sensing

We design and develop novel optical fibre sensors capable of measuring temperature, strain, and vibration at thousands of points using a single strand of optical fibre.

High Power Fibre Lasers

The High Power Fibre Laser group, led by Professor Johan Nilsson, works on advanced fibre lasers for beam combination and sensing for lidar and net-zero aviation (pollution monitoring).

Silica Fibre Fabrication

We conduct fundamental and applied research in the field of optical fibre technology.

Planar Waveguide and Slab Lasers

We specialise in developing novel photonic materials, waveguide devices, and laser systems for application in remote sensing, defence, manufacturing, and metrology.

Fibre Bragg Gratings

We design and fabricate passive and active periodic fibre devices, including fibre Bragg gratings, for a variety of applications in photonics.

Advanced Laser Laboratory

Advanced Laser Laboratory is a joint TRUMPF Laser UK and Optoelectronics Research Center (ORC) lab lead by Dr C. Codemard (TRUMPF) and Prof. M.N. Zervas (ORC) imbedded in the ORC, addressing fundamental fibre laser research issues.

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Contact us

Email Professor Michalis Zervas with your enquiries.