Invited Speakers


  • Lisa Bardou, DLR, Germany (Active and Adaptive Optics)
  • Almut Beige, University of Leeds (Quantum Information and Foundations)
  • Christiaan Bekker, Heriot-Watt University (Nanophotonics & Nanoscale Quantum Optics)
  • Graham Bruce, University of St. Andrews (Optical Trapping and Manipulation) 
  • Tom Charrett, Cranfield University (Advances in Optical Metrology and Measurements) 
  • Simon Cornish, Durham University (Atomic and Molecular Photonics)
  • Alessandro Fedrizzi, Heriot-Watt University (Quantum Networking)
  • Julian Fells, University of Oxford (Optical Environmental Sensing)
  • Kate Fenwick, University of Ottawa (Integrated Photonics & Photonic Systems)
  • James Gates, University of Southampton (Waveguide and Fibre Optic Devices and Sensors)
  • Dimitars Jevtics, University of Strathclyde (Heterogeneous Photonic Integration)
  • Samer Kurdi, Heriot-Watt University (Solid state quantum systems)
  • Charalambos Louca, University of Cambridge, UK (Ultrafast and Strong Light-Matter Interactions)
  • Aurora Maccarone, Heriot-Watt University (Quantum Metrology, Imaging, and Sensing)
  • Yasir Noori, University of Southampton (AI in Photonics)
  • Anna Peacock, University of Southampton (Nonlinear Photonics)
  • Isabelle Racicot, University of Cambridge (Medical Application of Light)

Lisa Bardou

Lisa started her career as an adaptive optics scientist, studying laser guide stars for her PhD at observatoire de Paris. She then moved to Durham University as a post-doctoral researcher working on developing adaptive optics systems for the extremely large telescope. Nowadays, she works in Germany and still develops adaptive optics systems, but now in the context of free space optical communication.

Title: Adaptive Optics for free space optical communication at the German Aerospace Centre

Almut Beige

Almut Beige is Head of the Quantum Group at the University of Leeds and has more than 30 years of research experience in theoretical quantum optics. She is mostly known for her expertise in modelling photon emission, especially in systems with potential applications in quantum technology. For example, her intuition helped to identify the mirror-mediated ultralong-range electric dipole interactions that led to the formation of the quantum sensing company NIQS Tech Ltd. Since completing her PhD at the University of Goettingen, AB also has a keen interest in the foundations of quantum physics. 

Title: Photon emission without quantum jumps

Christiaan Becker

Christiaan completed his PhD and undergraduate studies in physics at the University of Queensland, Brisbane, Australia, focusing on the development of chip-integrated cavity opto-electromechanical systems. He initially joined Heriot-Watt University as a postdoctoral research associate to study colour centre spins in diamond and silicon carbide, and currently holds a Royal Academy of Engineering Research Fellowship. His research interests include development of scalable microfabrication protocols for integrated quantum device arrays, bridging of spin-active defects and cavity optomechanics, and operation of quantum photonic systems in harsh environments.

Title: Generation of Solid-State Defect Single Photon Emitters within Photonic Microstructures through Femtosecond Laser Writing

Tom Charrett

Dr Tom Charrett is a Lecturer in Optical Sensors within the Centre for Engineering Photonics at Cranfield University in the UK. He has been involved with optical instrumentation for over twenty years, with experience in a range of optical techniques including laser speckle correlation and speckle interferometry, full-field imaging instrumentation, and fibre optic and bulk optical interferometry. His current research includes the development of novel optical instrumentation for application in robotics, and automation and manufacturing including for Wire and Arc Additive manufacturing and laser processing.

Title: Optical interference instrumentation for position and orientation measurement in robotics, automation and manufacturing

Simon Cornish

Simon L. Cornish is a Professor in the Department of Physics at Durham University working in the Quantum Light and Matter research group. He was educated at Oxford University where he received his PhD in experimental atomic physics in 1998. He developed an interest in ultracold gases at the University of Colorado, where he undertook pioneering experiments on Bose-Einstein condensation with tunable interactions. His current research focuses on the study of ultracold polar molecules formed by associating pairs of ultracold atoms, inspired by the prospect of using molecules as a platform for quantum simulation and quantum computation.  He leads a national research program in the UK focused on the study of quantum many-body physics with ultracold polar molecules and was awarded the 2019 Institute of Physics Joseph Thomson medal and prize for outstanding contributions to experiments on ultracold atoms and molecules.

Title: TBC

Julian Fells

Professor Julian Fells gained a first class degree in Electronic Engineering from UCL in 1991 and a PhD from Bath University in 1995. He then spent 10 years within Corporate Research Centres, GEC Marconi and Nortel Networks, where he worked on a variety of optical devices and systems. He was then R&D Manager at Cambridge University spin-out Splashpower. In 2009 he joined the leadership team of Stingray Geophysical, where he led the development of an off-shore seismic optical fibre sensor system. In 2015 he moved to the University of Oxford, where he established and leads the Optical Fibre Sensors Group.

Title: Micro-engineered optical fibre sensors for remote monitoring of extreme environments

Kate Fenwick

Kate is a Research Associate, holding a Luise and Gerhard Herzberg Fellowship, in the Ultrafast Quantum Photonics group at the National Research Council of Canada (NRC). She completed her PhD studies in physics at the University of Ottawa, where she held a Vanier Scholarship. Prior to her PhD, she completed her BSc and MSc at Queen's University, also in physics. Kate's primary research interests lie in the field of ultrafast quantum photonic technologies, with a focus on ultrafast photonic quantum information processing. 

Title: All-optical quantum information processing in the ultrafast regime

 

Dimitars Jevtics

Dimitars Jevtics (PhD, MInstP) received his Master of Engineering in Electronic Engineering and Nanotechnology from the University of York in 2015. That same year, he joined the Institute of Photonics at the University of Strathclyde as a PhD student, working on the heterogeneous integration of nanophotonic components, particularly nanowire lasers, using advanced micro‑transfer‑printing techniques. He now works as a senior Research Associate in the Integrated Optics group led by Prof. Michael J. Strain, where his research focuses on the design, fabrication, integration, and characterisation of next‑generation nanophotonic emitters for quantum and optical computing applications.

Title: Challenges and techniques for scalable integration of nanophotonics

Samer Kurdi

Samer Kurdi is an Assistant Professor at Heriot-Watt University’s Quantum Photonics Laboratory and holder of a Dutch NWO Veni Fellowship. His research explores spin and charge transport in quantum materials – including superconductors and twodimensional magnets – using nanoscale magnetic imaging using spin defects in wide bandgap semiconductors. His PhD at the University of Cambridge was part of the Marie Curie SELECTA network, focusing on magnetic materials and spintronics, complemented by research visits in Japan, Germany, and Italy. Before joining Heriot-Watt, he worked on quantum sensing and time-resolved magnetism at TU Delft and the University of Groningen in the Netherlands.

Title: Mapping nanoscale spin transport using spins in diamond

Charalambos Louca 

Charalambos Louca is a physicist working at the frontier of atomically thin materials, polariton physics, and ultrafast nanophotonics. As a Research Associate at the University of Cambridge, he studies and engineers strong nonlinear optical behaviour in low-dimensional semiconductors, hybrid light–matter quasiparticles, and plasmonic systems. His work has delivered advances in enhanced dipolar exciton–polariton nonlinearities and femtosecond switching in microcavities based on two-dimensional semiconductors. With research experience in Sheffield, Milan, and Cambridge, he is developing novel nanostructures for next-generation ultralow-energy optical technologies.

Title: Low-Dimensional Light–Matter States for Ultrafast Switching and Nanoscale Nonlinear Optics

 


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