Daniel Stilck França is an Associate Professor at the Department of Mathematical Sciences within the Faculty of Natural and Life Sciences at the University of Copenhagen . He is affiliated with the QMATH Centre for Quantum Mathematics and related research networks. His research focuses on quantum information and computation , particularly on noise characterization in quantum systems, its impact on computational tasks, and quantum-inspired convex optimization algorithms. Recent work explores tensor networks and quantum error mitigation limitations. Key publications (2023-2025) address topics like Pauli channel estimation, Hamiltonian parameter learning, and quantum simulator scalability. His work has been featured in Nature Communications , Nature Physics , and ACM/IEEE conferences.
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.
Darko Zibar is a Professor at the Department of Electrical and Photonics Engineering, Technical University of Denmark (DTU), and leads the Machine Learning in Photonics Systems (MLiPS) group. He holds a M.Sc. in Telecommunication and a Ph.D. in Optical Communications from DTU (2004, 2007). As a Visiting Professor, he has contributed to research at Politecnico di Torino, Friedrich Alexander University of Erlangen, University of California Santa Barbara, and University of Colorado, Boulder. Research Interests: Machine learning applications in optical communication systems Digital signal processing for classical and quantum photonics Optimization of Raman amplifiers and frequency combs Nonlinear fiber optic transmission modeling Photonic reservoir computing with silicon microring resonators Scientific Contributions: His work includes record-breaking achievements in optical phase noise measurement (approaching quantum limits) and programmable gain Raman amplifier design (S+C+L band). He has received prestigious awards such as the ERC Consolidator Grant (2017), Humboldt Bessel Research Award (2021), and Villum Investigator Award (2023).
Thomas Willum Hansen is a Professor at the Technical University of Denmark (DTU), affiliated with the National Centre for Nano Fabrication and Characterization. His primary role involves advancing atomic-scale materials dynamics through aberration-corrected environmental TEM (ETEM). He oversees the ETEM facility and trains users in electron microscopy techniques. Hansen holds a PhD from DTU (2002–2006), followed by a Postdoc at the Fritz Haber Institute (2006–2008) and a Research Assistant position at Haldor Topsøe A/S (2001–2002). His research focuses on catalyst materials characterization, nanostructured materials, and microscopy innovations. Key areas include transmission electron microscopy (TEM), nanoparticle dynamics, and in-situ TEM studies. Recent work explores beam-induced heating effects, machine learning in microscopy, and solar degradation mechanisms in energy materials. Hansen supervises multiple PhD projects, including studies on quantum emitters in 2D materials, pyrolytic carbon for energy storage, and high-resolution TEM of catalytic surfaces. His contributions align with sustainable development goals through advanced material science.
Anasua Chatterjee is a researcher at the Center for Quantum Devices, part of the Niels Bohr Institute at the University of Copenhagen. Her work focuses on quantum dot arrays, spin qubits, and semiconductor-based quantum computing platforms. She collaborates with leading quantum research groups and contributes to advancements in quantum device calibration, optimization, and noise mitigation. Affiliation: Center for Quantum Devices, Niels Bohr Institute, University of Copenhagen Her research spans quantum device automation, charge sensing, and real-time control of qubit fluctuations. Recent publications highlight her expertise in radio-frequency reflectometry, gate voltage optimization, and topological superconductivity in hybrid devices. Key article trends include autonomous calibration of quantum dots using evolutionary algorithms, spin qubit control via FPGA-based feedback systems, and integration of superconducting elements with semiconductor platforms. These studies often involve collaborations with institutions in the U.S. and Europe. While no formal awards are listed in the provided texts, her work appears integral to scaling quantum processors and improving qubit coherence for fault-tolerant systems.
Jonas Schou Neergaard-Nielsen is an Associate Professor in the Department of Physics at the Technical University of Denmark (DTU). His research focuses on quantum physics and information technology, with expertise in quantum optics, continuous-variable quantum information processing, and quantum sensing. Key research areas include: Generation and application of squeezed light states Quantum metrology and sensing enhancements Integrated photonic quantum systems Quantum computation with continuous variables Recent experimental work demonstrates advances in thin-film lithium niobate quantum light sources, long-distance quantum communication, and measurement-device-independent protocols. His publications frequently explore quantum state engineering, optical quantum technologies, and quantum-enhanced measurement techniques. Dr. Neergaard-Nielsen serves as Principal Investigator at DTU's Center for Quantum Technologies and Center for Macroscopic Quantum States.
William Iain Leonard Lawrie is an Assistant Professor at the Niels Bohr Institute , University of Copenhagen , specializing in Condensed Matter Physics . His research focuses on quantum technologies, particularly semiconductor spin qubits, quantum dots, and low-temperature quantum systems. Recent publications highlight advancements in: Quantum dot engineering in germanium Exciton transport mechanisms High-fidelity two-qubit gates in silicon Charge noise mitigation in semiconductor systems His work intersects quantum computing, nanotechnology, and material science, with applications in fault-tolerant quantum systems and quantum information processing.
Martijn Wubs is a Professor and Group Leader in the Department of Electrical and Photonics Engineering at the Technical University of Denmark (DTU). His research focuses on Quantum Photonics , Plasmonics , and Two-Dimensional Materials , with affiliations to the Center for Quantum Technologies and NanoPhoton – Center for Nanophotonics . He leads the Quantum Photonics of Low-dimensional Systems group, investigating phenomena such as collective photon emission, optical trapping, and light-matter interactions in nanoscale systems. His work spans applications in quantum optics, nanophotonics, and metamaterials. Recent research emphasizes dielectric nanocavities , single-photon sources in 2D materials, and strong coupling in hybrid systems. Over 129 publications and 25 active/finished projects reflect his contributions to topics like plasmonic systems, nonlocal optical effects, and defect engineering in hBN. He supervises multiple PhD students in areas such as nanosensing, optical trapping, and moiré heterostructures. His lab explores quantum emitters in 2D materials , optical trapping mechanisms , and phonon-mediated dynamics , with applications in quantum communication and nanoscale sensing. Collaborations span international institutions, advancing the frontiers of nanophotonics and quantum technologies.
Lars Søgaard Rishøj is a Senior Researcher at the Department of Electrical and Photonics Engineering, Technical University of Denmark (DTU), where he works within the Fiber Optics, Devices and Non-linear Effects group and contributes to the Centre of Excellence for Silicon Photonics for Optical Communications. He is based in Kgs. Lyngby, Denmark, and actively engaged in cutting-edge research in nonlinear fiber optics and photonic devices. Full Name: Lars Søgaard Rishøj Institution: Technical University of Denmark (DTU) Department: Fiber Optics, Devices and Non-linear Effects Email: lris@dtu.dk ORCID: 0000-0003-0810-3859 His research interests lie at the intersection of nonlinear optics and fiber photonics, with a strong focus on intermodal four-wave mixing, Bragg scattering, frequency conversion, and optical fiber sensing. He investigates higher-order mode propagation in large-core fibers and nonlinear effects in few-mode and tapered fibers, aiming to develop novel photonic devices for communication and sensing applications. The recent publications reflect a consistent trend in harnessing nonlinear optical phenomena in specialty fibers for wavelength conversion, signal processing, and distributed sensing. Key themes include intermodal nonlinear interactions, dispersive wave generation, and the development of fiber-based sensors for voltage and strain. The work combines theoretical modeling with experimental validation, often leveraging advanced fiber designs such as step-index and few-mode fibers. Lars Søgaard Rishøj is actively involved in supervising PhD students and leading research projects. He serves as main or co-supervisor in multiple PhD projects related to Raman fiber lasers, frequency conversion, and high-power nonlinear optics in large-core fibers. His collaborations span across DTU and involve close work with senior researchers like Karsten Rottwitt and Jesper Lægsgaard. Although no specific grants are detailed, his involvement in Centre of Excellence activities and multiple funded projects indicates active grant-supported research. He is part of the research team within the Centre of Excellence for Silicon Photonics for Optical Communications, contributing to advanced photonics research. His work is closely integrated with experimental teams focusing on fiber design, nonlinear characterization, and optical sensing systems. The collaborative network includes experts in photonic crystal fibers, amplifier technology, and quantum photonics.
Jean-Baptiste Sylvain Béguin is an Assistant Professor in the Quantum Optics and Photonics group at the Niels Bohr Institute, University of Copenhagen. His research focuses on experimental quantum optics with particular emphasis on light-matter interactions at the quantum level, especially using one-dimensional atomic systems. Dr. Béguin completed his PhD at the Niels Bohr Institute in 2015 with his thesis "A One-Dimensional Quantum Interface between a Few Atoms and Weak Light." His academic career demonstrates specialized expertise in quantum interfaces, atomic physics, and quantum measurement techniques. His primary research interests include quantum spin phenomena, coherent light scattering, quantum noise characterization, and optical trapping techniques. Dr. Béguin investigates how quantum correlations manifest in light-atom systems, with applications in quantum communication and quantum information processing. He specializes in creating and manipulating quantum states using precisely controlled atomic ensembles in one-dimensional geometries. Analysis of his publication record reveals a clear research trajectory from fundamental quantum phenomena (2014-2016) to increasingly complex systems involving optomechanical interactions and nanoscale optical trapping (2017-2020). A consistent theme across his work is the use of one-dimensional geometries for enhanced light-matter coupling, enabling novel quantum control and measurement capabilities. His publications demonstrate strong technical expertise in both experimental implementation and theoretical understanding of quantum optical phenomena. Dr. Béguin has published in prestigious journals including Physical Review Letters (124 citations for his 2016 paper), Physical Review X, Optics Letters, Applied Physics B, and Proceedings of the National Academy of Sciences. His work has been cited over 300 times collectively, with significant social media engagement and mentions in news outlets. As part of the Quantum Optics section at the Niels Bohr Institute, Dr. Béguin likely participates in teaching activities and mentors graduate students in experimental quantum optics. His research program contributes to the broader quantum technology initiatives at one of the world's leading physics institutions, collaborating with researchers like Eugene S. Polzik and Jürgen H. Müller. The Quantum Optics and Photonics group where Dr. Béguin works is embedded within the Niels Bohr Institute's research ecosystem that includes Astrophysics and Planetary Research, Biocomplexity and Biophysics, and the Cosmic Dawn Center. This environment provides access to state-of-the-art facilities for quantum optics experiments and opportunities for interdisciplinary collaboration.
Oliver Mortensen is a PhD Fellow (Research Fellow) at the Machine Learning Section , Department of Computer Science (DIKU) , University of Copenhagen , Denmark. He is affiliated with the university’s Faculty of Science and participates in the cross-faculty SCIENCE AI Centre , a strategic initiative to advance artificial intelligence research and applications. Research Interests Mortensen’s research lies at the intersection of machine learning , quantum computing , and neuro-symbolic AI . His work spans both theoretical foundations—such as entropic risk optimization in reinforcement learning and Riemannian generative models—and highly applied domains including medical AI, recommender-system fairness, and brain-computer interfaces. A recurring theme is trustworthy AI , where he investigates explainability, fairness, and sustainability across large language models and clinical decision-support systems. Scientific Contributions & Trends Across more than 60 peer-reviewed contributions (2024-2025), Mortensen demonstrates a clear trajectory toward hybrid quantum-classical algorithms , energy-efficient AI , and human-centric evaluation . His publications integrate rigorous theoretical guarantees with empirical validation on real-world data from electronic health records, satellite imagery, and conversational corpora. Collaborations & Resources He carries out his doctoral research under the supervision of Professor Yevgeny Seldin within DIKU’s vibrant Machine Learning Section. The group offers access to a dedicated high-performance compute cluster, the SCIENCE AI Centre ’s GPU/TPU pools, and interdisciplinary ties to life-science, geoscience, and humanities researchers across the university.
Adnan Adil Ebrahim Hajomer is an active Researcher in the Department of Physics at the Technical University of Denmark (DTU), specializing in quantum information technology. His work focuses on cutting-edge quantum communication systems with institutional affiliation at Fysikvej 307, 2800 Kgs. Lyngby, Denmark. His research interests center on quantum key distribution , particularly continuous-variable systems and squeezed light applications . Key areas include quantum cryptography implementation over optical fibers, high-speed quantum networking, and measurement-device-independent protocols. His fingerprint analysis reveals dominant contributions to Continuous Variable (100%), Quantum Key Distribution (71%), and Squeezed Light (35%) research domains. Analysis of his 17 publications shows consistent focus on practical quantum communication deployment, with recent work emphasizing integrated photonic receivers, finite-size security, and passive optical network architectures. His 2024-2025 publications demonstrate strong collaboration with Ulrik L. Andersen and Tobias Gehring at DTU. No scientific awards or student advisement information is currently documented in available sources. His research appears centered in quantum optics laboratories with emphasis on experimental quantum communication systems development.
Jakob Schiøtz is a Professor at the Department of Physics, Technical University of Denmark (DTU), leading the theory group in the Center for Individual Nanoparticle Functionality (CINF). His research focuses on nanoparticle shape-functional relationships, hot-electron catalysis, and nanocrystalline materials' mechanical properties. He coordinates the Master's program in Physics and Nanotechnology and has advised numerous PhD students. Education includes a PhD in Physics (DTU, 1992–1995), M.Sc. in Electronics Engineering/Applied Physics (DTU, 1986–1991), and postdoctoral experience at Washington University (1995–1996). He holds teaching qualifications in research management and didactics. Research interests span nanomaterials, catalytic processes, and computational methods like molecular dynamics and density functional theory. His work contributes to sustainable energy solutions through advanced material characterization and nanotechnology. Key grants include a Danish National Research Foundation Center (2005–2010) and collaborations with industry partners. Awards include the P. Gorm-Petersen Memorial Award (1997). Schiøtz maintains the open-source ASAP molecular dynamics software and actively reviews for top journals. His lab focuses on in situ electron microscopy, machine learning for image analysis, and nanoscale material dynamics. Projects involve catalytic nanoparticles, defect formation in 2D materials, and thermal transport phenomena.
Albert H. Werner is an Associate Professor at the Department of Mathematical Sciences, University of Copenhagen. His research focuses on quantum physics, quantum information theory, and mathematical physics, with contributions to quantum lattice dynamics, tensor networks, and quantum simulation methodologies. He has published extensively in peer-reviewed journals and collaborates internationally. His work emphasizes theoretical rigor and practical implications for quantum technologies. Research interests include quantum Hamiltonian estimation, scalability in quantum simulators, and resource theories in quantum computing. His recent articles address challenges in error mitigation, gate-set characterization, and the foundational aspects of quantum dynamics. Collaborations span institutions globally, reflecting his engagement in advancing theoretical frameworks and experimental applications in quantum science. While no specific awards are listed, his contributions reflect active participation in high-impact research areas.
Morten Kjaergaard is an Associate Professor at the Niels Bohr Institute , University of Copenhagen , within the Solid State Physics department. His research focuses on quantum computing , superconducting qubits , and semiconductor devices , with an emphasis on nanotechnology and quantum information science . Key research themes include quantum control , error mitigation , hybrid quantum systems , and quantum thermodynamics . His work often bridges applied physics and quantum hardware design , targeting advancements in qubit coherence and quantum feedback systems . Recent publications highlight trends in superconducting qubit architectures , quantum transport , and noise characterization . Notable contributions include gate-tunable transmon qubits and real-time adaptive feedback for coherence improvement.
