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).
Tejs Vegge is a Professor and Head of the Section for Autonomous Materials Discovery (AMD) at the Department of Energy Conversion and Storage, Technical University of Denmark (DTU). His research focuses on accelerating the discovery of clean energy materials through integrated computational and experimental approaches. Key areas include battery materials, hydrogen/ammonia storage, and electrocatalysts for sustainable fuels. Vegge leads major initiatives like the Pioneer Center CAPeX and the Villum Center V-Sustain, and has received awards such as the August-Wilhelm Scheer Visiting Professorship and the Ellen and Hans Hermers Award. His projects include the CAPeX Center (2023–2036) for P2X materials, the DELIGHT project (2021–2024) on green catalysis, and collaborations like Battery2030+. He supervises multiple PhD students in topics like battery electrolytes, autonomous workflows, and machine learning for materials design. Research Themes: Autonomous materials discovery, AI-driven experiments, sustainable energy systems Key Tools: Density Functional Theory (DFT), high-throughput screening, self-driving labs Recent Trends: Focus on strain engineering for ion conductivity, CO₂ reduction catalysts, and quantum computing applications Publications span over 300 articles, emphasizing interdisciplinary methods like reinforcement learning and Bayesian optimization. Vegge advocates for open-access research infrastructure and has pioneered lab automation frameworks like Finales.
Rune Hylsberg Jacobsen is a Professor at the Department of Electrical and Computer Engineering, Aarhus University. His work bridges energy systems, drone technology, and blockchain applications, with a focus on smart grids, autonomous systems, and decentralized infrastructure. Research interests include: Security frameworks for prosumer-driven energy systems using blockchain mmWave and LEO satellite communication protocols Homomorphic encryption for smart meter privacy Cooperative drone swarm navigation and infrastructure inspection Earth observation via CubeSats for climate research His recent publications highlight advancements in: Zero trust security models for renewable energy certificates Transport protocol optimization in satellite networks AI-driven charging window scheduling for drone fleets Decentralized identity management in Web3 infrastructure Key projects include: DISCO-2: Student CubeSat for Arctic climate monitoring Drones4Safety: Safety-critical inspection systems VPP4SGR: Virtual Power Plant networks
Per Hedegård is a Professor in the Condensed Matter Physics group at the Niels Bohr Institute, University of Copenhagen. His research spans multiple areas of theoretical and experimental condensed matter physics with particular emphasis on molecular-scale phenomena. Based at Universitetsparken 5, Building D in Copenhagen, he maintains an active research program with extensive international collaborations. Hedegård's research interests focus on the intersection of quantum physics and molecular systems, with particular expertise in molecular electronics, statistical physics, solid-state physics, superconductivity, magnetism, and electron transport. His work explores how quantum mechanical effects manifest in molecular systems, especially regarding spin phenomena in chiral molecules and magnetic interactions at the nanoscale. Recent work has investigated chirality-induced spin selectivity, spin dynamics in molecular systems, and magnetic properties of metal-organic frameworks. His publication record shows consistent high-impact research output, with significant contributions in the last five years. The research trends reveal a strong focus on spin-related phenomena in molecular systems, particularly the relationship between molecular chirality and electron spin. His 2022 review article in Advanced Materials on 'Theory of Chirality Induced Spin Selectivity' has become a key reference in the field with over 200 citations, demonstrating substantial influence. Other notable work includes studies on molecular junctions, spin coupling mechanisms, and statistical methods for analyzing experimental data. Hedegård's work has received significant attention in the scientific community, with multiple publications featured in high-impact journals including Nature Chemistry, Physical Review Letters, and Advanced Materials. His research has been referenced in patents, Wikipedia pages, and picked up by numerous news outlets, indicating practical relevance and broad scientific impact. The extensive reader metrics across platforms like Mendeley show his work is widely followed by researchers globally. His research program involves substantial international collaboration, as evidenced by co-authorships with researchers from multiple countries. The work spans both theoretical modeling and experimental validation, often involving interdisciplinary approaches that bridge physics, chemistry, and materials science. Current projects appear to focus on spin phenomena in molecular systems, magnetic properties of novel materials, and developing theoretical frameworks for understanding quantum transport at the nanoscale.
Jesper Lützen is an academic historian of mathematics at the Department of Mathematical Sciences , University of Copenhagen . He is renowned for his expertise in the history of mathematics, particularly focusing on the period 1800–1950, analysis, and mechanics. His current status as a Part-time Lecturer reflects continued engagement despite his emeritus title. Born : October 8, 1951, in Svendborg Education : Student exam (mathematical-physical line), Svendborg State School (1970) B.Sc. in Natural Sciences (mathematics major, physics minor), Aarhus University (1976) Licentiate (Ph.D.) in History of Science, Aarhus University (1980) Doctor of Science, University of Copenhagen (1990) Research Interests : Lützen specializes in the history of mathematical impossibility theorems, ranging from ancient Greek antiquity to modern times. His work spans analysis, mechanics, and the philosophical underpinnings of mathematical concepts. He has extensively explored duality, distributions, and the legacy of figures like Hjelmslev and Juel. Academic Engagement : His 15 most recent publications (2000–2024) reveal a consistent focus on mathematical history, methodology, and foundational debates. Key themes include distribution theory, geometric philosophies, and historical critiques of mathematical rigor. Scientific Awards : Fyns Stiftstidende’s Forskerpris (1982) Børge Jessens Diplom for godt foredrag (1988) Det Naturvidenskabelige Fakultets Formidlingspris (2000) Det Naturvidenskabelige Fakultets Undervisningspris (2003) Editorial and Institutional Roles : Lützen has served on editorial boards for Archive for the History of Exact Sciences and Historia Mathematica , and as a committee member in various academic and outreach initiatives. His outreach efforts include lectures for high school teachers, students, and contributions to the Great Danish Encyclopedia .
Nitin Jain is a Researcher at the Department of Physics Quantum Physics and Information Technology, Technical University of Denmark (DTU), based in Lyngby, Denmark. His work focuses on advancing quantum cryptography technologies, particularly in continuous-variable quantum key distribution (CVQKD) and quantum random number generation. Jain's research explores high-speed quantum communication systems, noise optimization in CVQKD, photonic-electronic integration for quantum receivers, and practical implementations of quantum encryption in network infrastructure. Key areas include Gaussian modulation techniques, long-distance fiber-optic QKD, and real-time cryptographic solutions. His recent publications (2024-2025) demonstrate a consistent focus on scaling quantum communication technologies: improving transmission speeds (up to 10 GBaud), extending operational distances (100+ km fiber), enhancing system robustness against noise, and developing integrated hardware for real-world deployment. Theoretical and experimental work converges on optimizing CVQKD for future-proof security applications. Jain collaborates extensively within DTU's Quantum Physics and Information Technology group, contributing to projects involving quantum receiver design, field testing of QKD systems, and cryptographic protocol development.
Claudio Orlandi is a Professor in the Department of Computer Science at Aarhus University. His research focuses on cryptography, secure computation, privacy-preserving technologies, and blockchain security. He is actively involved in advancing cryptographic protocols for applications such as secure multi-party computation, zero-knowledge proofs, and homomorphic encryption. Orlandi has contributed to numerous high-impact publications on topics ranging from threshold cryptosystems to privacy-preserving analytics. He serves as Chief Cryptographic Protocol Designer and Partner at Partisia, where he applies his expertise to real-world cryptographic solutions. His work emphasizes practical implementations of secure systems, including protocols for distributed data analytics, private set intersection, and accountable blockchain mechanisms. Orlandi’s research bridges theoretical cryptography with real-world usability, addressing challenges in privacy, efficiency, and security in distributed environments. Key areas of specialization include secure computation frameworks, post-quantum cryptography, and cryptographic mechanisms for distributed systems. His contributions have been recognized through collaborations with industry partners and academic institutions, driving innovation in privacy-preserving technologies.
René Bødker Christensen is an Assistant Professor at the Department of Mathematical Sciences, Aalborg University, within the Faculty of Engineering and Science. His research focuses on quantum codes, quantum error correction, entanglement engineering, and their applications in secure communication and computing. He holds a PhD in Mathematics (2020) from Aalborg University, specializing in quantum codes and multiparty computation. Education: PhD in Mathematics: Quantum Codes and Multiparty Computation (2020) Research Interests: Quantum coding theory, entanglement-based protocols, quantum error correction, and educational applications of virtual reality in mathematics. His work bridges theoretical mathematics and practical implementations in quantum networks and secure computation. Projects: myPBL-VRMath: Integrates virtual reality into engineering mathematics education (2024) Quantum codes research collaboration (2017-2019) Activities: Active in international conferences, including presentations on quantum entanglement applications and satellite-aided quantum networks. Participated in workshops on future communication technologies and quantum engineering. Labs/Teams: Collaborates with interdisciplinary teams in quantum information science and mathematics education. Engaged in projects combining theoretical research with practical implementations in emerging technologies.
Yunhong Ding is a Senior Researcher at the Department of Electrical and Photonics Engineering at Technical University of Denmark (DTU), working within the Centre of Excellence for Silicon Photonics for Optical Communications. Based at Ørsteds Plads, 340, 1.8.E, 2800 Kgs. Lyngby, Denmark, Ding maintains an active research profile with 242 publications and involvement in 13 research projects (3 active, 10 completed). Ding's research spans multiple areas within photonics, with a strong emphasis on silicon photonics, waveguide physics, resonators, and quantum key distribution. Their work contributes to UN Sustainable Development Goals through advancements in optical communication technologies. Key research areas include: Thin-film lithium niobate photonics for quantum applications Silicon photonics for optical communications Nanophotonic devices and metasurfaces Quantum information processing and communications Terahertz technology and detection Recent publications (2024-2025) demonstrate a strong focus on thin-film lithium niobate platforms for quantum photonics applications, including single photon storage, temporal multiplexing, and quantum communications. Ding's work shows a clear trajectory toward developing integrated photonic solutions for both classical and quantum communication systems, with particular emphasis on underwater communications, LiDAR applications, and quantum network technologies. Ding actively supervises PhD students on cutting-edge projects related to optical communications and quantum photonics, indicating a significant role in academic mentoring and research leadership. Their publications show strong international collaboration across multiple institutions and research groups. As a Senior Researcher at DTU, Ding contributes to the university's research excellence in photonics and optical communications, working within one of Europe's leading research institutions in this field. The extensive publication record and active project portfolio demonstrate sustained research productivity and relevance in the rapidly evolving field of integrated photonics.
Mujtaba Zahidy is a Research Fellow at the Department of Electrical and Photonics Engineering at Technical University of Denmark (DTU), working within the High-Speed Optical Communications Centre of Excellence for Silicon Photonics for Optical Communications. His research portfolio spans quantum communication, quantum cryptography, and advanced photonics, with significant contributions to practical implementations of quantum key distribution systems. Dr. Zahidy's research focuses on overcoming fundamental challenges in quantum communication, with particular emphasis on: High-dimensional quantum key distribution protocols Integration of quantum communication with classical optical networks Temporal multiplexing techniques for quantum information processing Development of practical quantum communication infrastructure Resilience of quantum systems to noise and interference Information reconciliation methods for quantum cryptography His recent publications demonstrate a strong trajectory toward making quantum communication technologies more practical for real-world implementation, with several 2024-2025 papers addressing critical engineering challenges in deploying quantum networks alongside existing telecommunications infrastructure. Dr. Zahidy actively supervises PhD research through two major projects: Quantum Communication and Co-Existence with Classical Communication (2025-2028) with PhD student Sirovich, F. Quantum communication using high-order modes (2023-2026) with PhD student Beraza, I. His collaborative network spans multiple European institutions, with notable partnerships in Italy, contributing to the development of European quantum communication infrastructure. His work directly supports UN Sustainable Development Goals related to technological innovation and secure communications.
L.K. Oxenlowe is a Professor and Groupleader at the Department of Electrical and Photonics Engineering, Technical University of Denmark (DTU), where he leads research within the Centre of Excellence for Silicon Photonics for Optical Communications and the Center for Quantum Technologies. His work is deeply integrated with high-speed optical communications and quantum photonics, contributing to global sustainable development through energy-efficient ICT solutions. Centre of Excellence for Silicon Photonics for Optical Communications High-Speed Optical Communications Center for Quantum Technologies His research focuses on advancing optical communication technologies using silicon photonics, thin-film lithium niobate, and optical frequency combs. Key interests include quantum memory, temporal and spatial multiplexing, wavelength conversion, and four-wave mixing, with applications in ultrahigh-bandwidth and long-haul communication systems. Recent publications highlight a strong trend toward integrated quantum photonics and sustainable optical networks. His work leverages microcombs and nonlinear photonic devices to enable scalable, energy-efficient data transmission. Research spans fundamental device physics to system-level optimization, with emphasis on practical implementations in telecom infrastructure. Although no specific awards are listed in the provided text, his leadership in major research centers and extensive publication record in high-impact journals such as Nature Photonics and npj Quantum Information reflect significant recognition in the field. L.K. Oxenlowe actively supervises multiple PhD students and leads several funded research projects, including initiatives on optical frequency combs, spatially distributed links, and environmental sustainability of ICT. His grants reflect a strategic focus on next-generation optical networks and quantum communication systems. He also contributes to the scientific community through conference presentations, such as at ECOC 2010. His research is conducted within advanced photonics laboratories at DTU, focusing on integrated photonic devices, quantum light sources, and high-capacity optical transmission systems. The team collaborates extensively across disciplines and international borders, as evidenced by wide research network activity.
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.
Tudor-Ovidiu Pal is a Lecturer at the Department of Computer Science , University of Copenhagen, contributing to teaching and research in programming language technology and theoretical computer science. He is affiliated with the Programming Languages and Theory of Computation Section (PLTC), which focuses on foundational and applied research spanning algorithmic programming, formal verification, computer security, and high-performance computing systems. His work intersects with key research groups within PLTC, including investigations into secure networked systems (blockchain, distributed ledger technology), software-based security techniques, functional programming optimizations, and probabilistic programming applications in bioinformatics and AI-driven vaccine design. He also engages with topics like program inversion, reversible computing, and quantum programming paradigms through collaborative efforts with other researchers in the section.
Jens Ulstrup is a Professor at the Department of Chemistry, Technical University of Denmark (DTU). His research focuses on electrochemical processes at molecular and biomolecular scales, with emphasis on electron transfer mechanisms, nanoscale systems, and bioelectrochemistry. He leads projects such as Electronic Processes in Nanoscale Systems and Bioinorganic Chemistry , exploring applications in sustainable energy and biocatalysis. Ulstrup's expertise spans electrochemistry of redox enzymes, nanoporous materials, and molecular-scale electronics. His work contributes to UN Sustainable Development Goals related to affordable and clean energy (SDG 7) and industry innovation (SDG 9). He supervises PhD students in projects like Electrochemical studies of redox active molecular monolayers and Development of 3D graphene biocatalysts . Key achievements include pioneering studies on single-molecule electron transfer, wearable biosensors, and nanoporous gold electrochemistry. His lab, part of the NanoKemi group, collaborates globally, publishing widely in journals like Chemical Science and Electrochimica Acta .
Huy Quang Nguyen is a Postdoctoral Researcher in the Department of Physics at the Technical University of Denmark (DTU), specializing in quantum information processing with a focus on squeezed light technologies. His work bridges theoretical quantum optics and experimental implementations for secure communication systems, operating within DTU's Quantum Physics and Information Technology research environment. Nguyen's research centers on overcoming practical barriers in quantum cryptography, particularly through continuous-variable quantum key distribution (CV-QKD). He pioneers solutions for free-running local oscillators, digital signal processing integration, and chip-scale squeezed light sources using thin-film lithium niobate platforms. His innovations target real-world deployment of quantum-secured networks by addressing synchronization challenges and hardware limitations in existing quantum communication infrastructures. Analysis of his 2024-2025 publications reveals a cohesive research trajectory focused on making squeezed-light-based quantum communication commercially viable. Key advancements include digital reconstruction techniques for quantum states, integrated photonic implementations, and noise-resilient protocols for telecom networks. His work consistently merges quantum optical engineering with information theory to enhance system robustness. Nguyen has not received major scientific awards according to available records. As a recent PhD graduate transitioning to postdoctoral work, he has not yet assumed formal advising roles but contributed significantly as the principal investigator in his doctoral project. He operates within DTU Physics' Quantum Optics Laboratory under Professor Tobias Gehring's supervision, utilizing advanced experimental setups for generating non-classical light states. Current efforts focus on developing field-deployable quantum communication systems through industry-academia collaborations and European research initiatives.
