Yakov Shlapentokh-Rothman is an Assistant Professor in the Department of Mathematics at the University of Toronto St. George and the Department of Mathematical and Computational Sciences at the University of Toronto Mississauga. He holds a PhD from MIT (2015) and a BS with Honors from Stanford (2010). His research focuses on Partial Differential Equations, General Relativity, and Geometric Analysis, with particular emphasis on black hole dynamics, gravitational stability, and mathematical physics. He has been supported by an Alfred P. Sloan Fellowship and NSERC grants (RGPIN-2021-02562 and DGECR-2021-00093). His work includes groundbreaking studies on naked singularities, wave equations on Kerr spacetimes, and the Einstein vacuum equations. He currently advises PhD student Avyay Venkat Viswanath. Key research contributions span topics like mode stability, decay estimates for linear waves, and the interplay between geometric analysis and general relativity. His recent articles explore self-similar solutions to Einstein equations and Cauchy horizon instabilities, advancing theoretical frameworks for understanding spacetime singularities and black hole physics.
Dr. Matt Kerr is an Associate Professor of British Literature from 1837 to 1939 at the University of Southampton. He specializes in Victorian literature, with a focus on oceanic humanities, waste studies, and post-colonial contexts. Before joining Southampton in 2015, he taught and completed his doctorate at the University of Oxford. His current research includes editing Frederick Marryat’s Mr. Midshipman Easy (funded by the British Academy) and a project on marine refuse in 19th-century literature. He contributes to the Journal of Victorian Culture editorial board. Education: PhD from University of Oxford. Teaching includes Victorian literature modules, American Gothic, and core humanities courses. Supervises PhD students in English literature. Active in interdisciplinary research groups such as the Southampton Marine and Maritime Institute and the Southampton Centre for Nineteenth-Century Research. Research themes emphasize environmental humanities, colonialism, and oceanic cultural studies. Recent publications include a book on Victorian marine language and critical reviews in art and literature journals.
Dr. Prince Anandarajah is an Assistant Professor in the School of Electronic Engineering at Dublin City University (DCU). He holds a B.Eng. from the University of Nigeria (1992), M.Eng.Sc. from DCU (1998), and a PhD from DCU (2003). His research focuses on high-speed optical communications, photonic sensing, optical frequency combs, and radio-over-fiber systems. He has published over 200 articles, holds 5 patents (2 licensed), and co-founded Pilot Photonics. Key roles include Senior Research Fellow at DCU (2007–2016) and Research Officer at the High Speed Devices and Systems Centre. He received the DCU President’s Research Award (2016) and is a Senior Member of the IEEE. Research Interests: High-speed optical communications Photonic sensing Direct modulation techniques Optical frequency comb generation Spectrally efficient modulation formats Radio-over-fiber systems Publications: Over 200 peer-reviewed articles in journals like Journal of Lightwave Technology , Physical Review Applied , and IEEE Photonics Journal . Recent work includes multifunctional active demultiplexers, Kerr soliton synchronization, and photonic integrated circuits for optical networks. Awards/Honors: DCU President’s Research Award (2016) Senior Member, IEEE (since 1999) Industry Engagement: Co-founder and director of Pilot Photonics (spin-off company) 5 international patents (2 industry-licensed) Labs/Teams: Active in the High Speed Devices and Systems Centre and Rince Institute at DCU, focusing on advanced photonics and optical communication systems.
Michael Galili is an Associate Professor in the Department of Electrical and Photonics Engineering at the Technical University of Denmark (DTU). He is affiliated with the High-Speed Optical Communications Centre of Excellence for Silicon Photonics. His research focuses on high-speed optical communication systems, including nanotechnology-based components like optical filters and ultra-fast lasers for data signal processing. He explores novel solutions to handle data rates exceeding 320 Gbit/s using photonics, addressing challenges in signal processing and system design beyond traditional electronic limits. Galili leads the Nano-COM project developing nanotechnology-driven optical communication components. His work integrates advanced photonics with fiber optics, emphasizing optical signal processing, nonlinear effects, and quantum communication systems. He has supervised multiple PhD students in areas such as quantum communication multiplexing, frequency conversion, and mode division multiplexing. His recent publications span topics including all-optical switching via Fano resonance, parametric spectral shaping, and long-haul unrepeated transmission systems. He has received awards such as the Jorcks forskningspris (2021) and AEG Elektronprisen (2023). His lab, part of DTU’s Fotonik research group, collaborates internationally on projects like photonic lanterns and silicon carbide-based Kerr combs for ultra-high-speed data transmission.
Conor Meade is an Associate Professor at Maynooth University , affiliated with the Faculty of Science & Engineering and the Department of Biology . He co-developed the BSc Biological and Geographical Sciences program and leads the 7 Skills Undergraduate Writing Programme . His research focuses on plant ecology , plant-soil microbiome interactions , agro-ecology , and conservation biology , particularly for arctic-alpine species and rare plants in Europe and Tropical Asia . BSc Environmental Biology PhD Botany , Trinity College Dublin (2000) His recent work examines genome size variation in Arctic-Alpine plants , biogeographic patterns , and microbial community impacts on plant growth . He has authored studies in journals such as Scientific Data , Plants , and Plant Ecology and Diversity . Fulbright EPA Climate Change Scholar (2017) Meade has advised PhD students including Xiaodong Dang and Emma Howard-Williams , and his teaching includes modules like Molecular Ecology and Biogeography and Environmental Field Skills .
Pascal Del'Haye is a Group Leader at the Max Planck Institute for the Science of Light (MPL) in Erlangen, Germany, where he heads the Microphotonics research group. His work focuses on advancing integrated photonics through innovative approaches to microresonator design, nonlinear optical phenomena, and frequency comb generation. With a strong publication record in high-impact journals, Del'Haye has established himself as a leading researcher in the field of microphotonics and nonlinear optics. Dr. Del'Haye's research spans several key areas in modern photonics: Microresonator-based optical frequency combs and soliton physics Nonlinear optical phenomena including symmetry breaking and Kerr effects Advanced materials for integrated photonics, particularly silicon nitride platforms Novel designs for photonic integrated circuits using inverse design techniques Hybrid photonic systems combining multiple materials and nonlinear effects His recent work (2023-2025) demonstrates a clear trend toward increasingly sophisticated integrated photonic systems that leverage multiple physical phenomena simultaneously. Del'Haye's group has pioneered approaches to control dispersion through segmented sidewall modulation, generate multiple comb states via cascaded Brillouin scattering, and combine different nonlinear effects in single devices through hybrid material platforms. This work has significant implications for telecommunications, sensing, quantum information processing, and precision metrology, with many publications highlighting the potential for CMOS-compatible implementations that could enable commercial applications and large-scale integration. As a Group Leader at one of the world's premier photonics research institutions, Del'Haye supervises multiple researchers and students, fostering the next generation of photonics scientists. His work is supported by significant research funding that enables state-of-the-art experimental capabilities for nanofabrication and optical characterization, with recent publications indicating strong collaborations across multiple institutions and research groups. The Microphotonics group operates advanced laboratories for photonic device fabrication and testing, with particular expertise in silicon nitride photonics, microresonator design, and frequency comb generation. The group collaborates extensively with other divisions at MPL and with international research teams to push the boundaries of integrated photonics technology, with recent work spanning from fundamental theoretical investigations of symmetry breaking to practical device implementations for optical switching and communication applications.
Tomas Dohnal is a Professor at the Institute of Mathematics of Martin Luther University Halle-Wittenberg , Germany, since 2018. His research focuses on Nonlinear Partial Differential Equations (PDEs) , Dispersive Waves , Bifurcation Theory , and Wave Propagation in Periodic Structures . He has held academic positions at Technical University Dortmund, Karlsruhe Institute of Technology, ETH Zurich, and University of New Mexico. Research Interests : Nonlinear PDEs, Surface Plasmon Polaritons, Gap Solitons in Photonic Crystals, Spectral Problems, Rigorous Asymptotics, Numerical Analysis Grants : DFG grants on nonlinear wavepacket asymptotics and moving gap solitons in periodic media Students : Supervised PhD students including Maximilian Hanisch, Matthias Ionescu-Tira, and Daniel Tietz; Master students at multiple institutions Software : Co-developer of the PDE2PATH MATLAB package for bifurcation analysis Publications span topics in Maxwell equations with interfaces, PT-symmetric problems, homogenization of periodic media, and nonlinear wave dynamics. His work often bridges rigorous mathematical analysis with numerical methods. Teaching includes courses on Dispersive PDEs, Asymptotic Methods, Nonlinear Analysis, and Wave Propagation. He has taught at TU Dortmund, Karlsruhe Institute of Technology, and Martin Luther University.
Susan Sun is a Research Fellow at Swinburne University of Technology's School of Science, Computing and Emerging Technologies. Her research focuses on integrated nonlinear optics, microwave photonics, and neuromorphic computing, with a PhD from Swinburne (2020–present) and prior degrees from Beijing Institute of Technology (Bachelor, 2012–2016) and Beijing University of Posts and Telecommunications (Master, 2016–2019). She has authored 13 SCI journal papers, including high-impact works in Advances in Optics and Photonics and IEEE Journal of Selected Topics in Quantum Electronics , with over 600 citations and an H-index of 9. Her work emphasizes optical microcomb applications in high-speed signal processing, feedback control systems, and neuromorphic computing architectures. Recent contributions include microcomb-based microwave photonic transversal filters, graphene oxide-enhanced nonlinear optics, and ultra-high bandwidth optical neural networks. She is a member of Optica and IEEE, and serves as a reviewer for Optics Continuum . Key research themes include optimizing microcomb-based systems for precision and scalability, exploring novel materials (e.g., graphene oxide) for integrated photonics, and advancing optical solutions for real-time data processing and AI applications. Her lab integrates theoretical modeling with experimental validation, targeting innovations in both discrete and integrated photonic platforms.
Linnan Jia is a Research Assistant (Postdoctoral) at the School of Science , RMIT University, Australia. Their work focuses on integrated photonics , nonlinear optical materials , and hybrid photonic devices , particularly leveraging 2D materials like graphene oxide and BiOBr nanoflakes to enhance optical performance. Research Highlights: Integration of graphene oxide films with silicon photonic devices for improved thermo-optic and Kerr nonlinear effects. Development of hybrid micro-ring resonators and nanowire waveguides for enhanced four-wave mixing and optical bistability . Investigation of BiOBr nanoflakes as novel nonlinear optical materials for hybrid integrated photonics. Teaching & Supervision: Interested in supervising Masters and PhD students in photonics and materials science.
Dr. Nithyanandan Kanagaraj is an Assistant Professor in the Department of Physics at the Indian Institute of Technology Hyderabad, leading the Ultrafast Fiber Optics and Complex Photonics Laboratory . His interdisciplinary research bridges photonics, computational science, and materials engineering. Ph.D. from Pondicherry Central University Collaborates with engineers in Electrical, Communications, and Computer Science domains His research focuses on fiber lasers, nonlinear photonics, and ultrafast optical phenomena , with applications in sensing, high-performance computing, and additive manufacturing. Recent publications highlight trends in dissipative solitons, spectral pulsations, and advanced fiber devices , often leveraging AI/ML and quantum technologies for pulse optimization. CEIFPRA/IFCPAR Industry-Academic Grant (180 Lakhs) JICA Friendship Grant 2.0 OSA Senior Member (2021) Bureau of Indian Standards (BIS) member He mentors a diverse team of Ph.D. and Master's students, including Amala Jose, Subrata Manna, Ashish Kumar Kok , and others, while collaborating with international experts like Prof. Philippe Grelu (France) and Prof. David Richardson (UK).
Andis Supe serves as an Associate Professor at Riga Technical University's Institute of Photonics, Electronics and Electronic Communications, where he leads research in advanced optical communication systems and fiber optic technologies. His institutional affiliation with RTU spans multiple research initiatives focused on telecommunications infrastructure and photonic device development. Dr. Supe's research centers on fiber optic amplifiers, nonlinear optical phenomena, and optical signal restoration techniques. Recent work explores IoT-integrated environmental monitoring systems for indoor air quality and microclimate analysis in public buildings, demonstrating practical applications of photonics in sustainable infrastructure. His expertise bridges theoretical optical physics with real-world telecommunications engineering challenges. Analysis of his 15 most recent publications (2021-2025) reveals three dominant research thrusts: cladding-pumped rare-earth-doped fiber amplifiers (particularly Er/Yb co-doped systems), optical sensing technologies including FBG interrogators and polarization OTDR, and IoT-based environmental monitoring. The publications show increasing diversification from core amplifier design toward applied sensing solutions while maintaining strong theoretical foundations in nonlinear optics. No scientific awards or major honors are documented in available sources. Information regarding graduate student supervision or external research funding remains undisclosed in the provided materials. As a core member of RTU's Institute of Photonics, Electronics and Electronic Communications, Dr. Supe contributes to the institution's optical fiber research ecosystem. The institute maintains specialized laboratories for photonic device characterization and optical network testing, though specific lab affiliations or team structures are not detailed in current documentation.
Prof. Dr. Georg Woltersdorf serves as a Principal Investigator and Professor at the Institute of Physics, Martin Luther University Halle-Wittenberg, where he leads the Optics and Time-Resolved Spectroscopy Group. He functions as Vice-Spokesperson for the Transregio Collaborative Research Center TRR 227 'Ultrafast Spin Dynamics' and serves as Principal Investigator for Projects B01 and B02 within this research consortium. His research group maintains close collaborations with other institutions including the Max Planck Institute and international partners. Woltersdorf's research focuses on spin dynamics and spin transport phenomena at small time and length scales, with particular emphasis on magnetization dynamics in magnetic nanostructures, spin Hall effects, spin torque through spin-orbit coupling, and ultrafast demagnetization processes. His group employs time-resolved optical methods, particularly Kerr microscopy, alongside sample fabrication techniques including molecular beam epitaxy and electron beam lithography. Current investigations explore electrical control of magnetization dynamics in dielectric/ferromagnet hybrid systems with the goal of developing novel spintronic devices. Analysis of Woltersdorf's recent publications reveals strong focus on terahertz spin dynamics, magnonics, and spin-orbit effects. His work bridges fundamental physics with potential applications in next-generation electronics, particularly through research on spin current generation, manipulation, and detection. Notable trends include increasing exploration of van der Waals materials, multiferroic systems, and nanoscale engineering of magnetic structures for frequency control applications. While no specific awards for Woltersdorf himself are mentioned in the provided materials, his research group has received recognition with doctoral researchers winning awards such as the Best Poster Award at the Transnational Round Table on Magnonics and the Young Scientist Award from the German Terahertz Center. Woltersdorf actively supervises master's and doctoral students, with multiple thesis opportunities available in his group focusing on spin dynamics, magnonics, and spin transport phenomena. His research is supported by third-party funding through the TRR 227 consortium and likely other grants, enabling the group to maintain a steady stream of doctoral positions despite project fluctuations. The group participates in collaborative initiatives including the international research training group (iRTG) on Ultrafast Spin Systems. The Woltersdorf Group maintains comprehensive experimental capabilities including sample growth (molecular beam epitaxy and sputtering), nanofabrication (electron beam lithography), and advanced characterization techniques centered around time-resolved Kerr microscopy for studying magnetization dynamics. The group participates in the TRR 227 consortium which includes multiple institutions and principal investigators working on complementary aspects of ultrafast spin dynamics.
Deming Kong is a Researcher at the Department of Electrical and Photonics Engineering, Technical University of Denmark (DTU), affiliated with the Photonic Integrated Circuit based Systems Centre of Excellence for Silicon Photonics for Optical Communications. His research spans optical communications, silicon photonics, and optical signal processing, with expertise in photonic integrated circuits for optical neural networks and wireless communication systems. Key focus areas include optical matrix multiplication processors, digital precoding for multi-mode fiber transmission, nonlinear channel equalization using silicon microring modulators, and ultrafast terahertz wireless communication leveraging Kerr frequency combs. Recent publications (2024-2025) demonstrate significant contributions to optical computing hardware for neural networks and advanced optical communication techniques, integrating silicon photonics with machine learning and communication theory to address challenges in high-speed data transmission and neural network acceleration. Dr. Kong actively supervises PhD research at DTU, including: Digital Optical Computing Platform for Neutral Networks (2024-2027) Silicon Photonics for Optical Neural Networks (2024-2027) Silicon Photonic Integrated Circuits for Optical Processing aided Artificial Intelligence (2019-2023) These projects focus on optical neural networks and silicon photonics for AI applications. He operates within DTU's Photonic Integrated Circuit based Systems Centre of Excellence, a leading hub for silicon photonics research targeting optical communications and neural network hardware acceleration.
David Kerr is a Professor of Cancer Medicine and Consultant Physician at the University of Oxford, affiliated with the Nuffield Division of Clinical Laboratory Sciences. He leads the Kerr and Pezzella Group, focusing on colorectal cancer clinical trials and the molecular mechanisms underlying tumor growth, particularly the non-angiogenic pathway. His research integrates biomarker development, anti-angiogenic therapies, and genomic analysis to improve patient outcomes. Key collaborations include work with Dr. Rachel Midgley on adjuvant chemotherapy trials (e.g., QUASAR 2) and partnerships with institutions like AstraZeneca. His group has pioneered prognostic mRNA signatures and biomarkers for therapies like bevacizumab. Research interests span colorectal cancer genetics, immunotherapy resistance, and precision medicine. Notable achievements include identifying cancer susceptibility SNPs and advancing understanding of tumor vasculature dynamics. Awards include CBE, FMedSci, and FRCP. Funding comes from governments (e.g., Malaysia, Saudi Arabia) and industry. He also co-leads the Kerr-Cai Group exploring epigenetic regulation in cholangiocarcinoma. Recent work emphasizes AI-driven diagnostic tools for histopathology and ctDNA-based recurrence prediction (CORRECT-MRD I). His lab’s focus on multi-omic analyses and clinical translation aims to bridge basic science and patient care, addressing global cancer disparities through initiatives like the Africa-Oxford-Harvard/Hopkins consortium.
Auro Michele Perego is an Associate Professor and Royal Academy of Engineering Research Fellow at the Aston Institute of Photonic Technologies (AiPT), part of the College of Engineering and Physical Sciences at Aston University. His research focuses on nonlinear photonics, mode-locking in lasers, frequency comb generation, and optical sensing. He received his PhD in 2018 from AiPT, focusing on nonlinear optical systems. He is open to supervising PhD students in relevant fields. Education: PhD in Nonlinear Optical Systems, Aston Institute of Photonic Technologies, 2018. His research interests include modulation instability in fiber cavities, parametric amplification, and the application of solitons in optical communications. He has contributed significantly to the development of optical frequency combs and their applications in sensing and neuromorphic computing. Awards: Royal Academy of Engineering Research Fellowship He is affiliated with the Aston Research Explorer and has collaborated internationally on projects involving nonlinear optical systems. His work often explores the dynamics of coupled lasers and novel techniques for optical signal processing.
