body { font-family: Arial, sans-serif; } h2 { color: #333; } ul { list-style-type: disc; padding-left: 20px; } p { margin: 10px 0; } Tomoyuki Morimae Tomoyuki Morimae is an Associate Professor at the Yukawa Institute for Theoretical Physics (YITP), Kyoto University. He specializes in quantum computing and quantum cryptography. Before joining Kyoto University in 2020, he held positions at Gunma University (2014–2015) and was a Lecturer at YITP. Education MSc from The University of Tokyo PhD from The University of Tokyo Research Interests Morimae's research focuses on leveraging quantum properties for computation and cryptography. Key areas include quantum algorithms, cryptographic protocols resistant to quantum attacks, and complexity theory. His work bridges theoretical foundations and practical implementations, emphasizing secure quantum communication and computational advantages over classical systems. Key Contributions Notable publications explore quantum cryptographic primitives (e.g., CountCrypt), quantum group actions, and separations in cryptographic assumptions. Recent work addresses secure key leasing, quantum unpredictability, and revocable digital signatures. Awards Ogawa Publishing Award Young Physicist Prize from the Physical Society of Japan Grants & Teaching He leads projects on quantum computational supremacy and secure cloud quantum computing. Teaches advanced theoretical physics and quantum information seminars at Kyoto University's Graduate School of Science. Labs & Teams Morimae collaborates with researchers like Giulio Malavolta and Takashi Yamakawa on cryptographic protocols and quantum complexity theory.
Luis Caires is a Full Professor of Science and Methodology of Programming at the Department of Computer Science and Engineering, Técnico Lisboa (University of Lisbon). He is also a Core Researcher at INESC-ID and an ERA Chair Holder under the H2020 BIG initiative. Previously, he served as Full Professor at NOVA FCT’s Department of Computer Science and founded the NOVA Laboratory for Computer Science and Informatics. His research focuses on the theoretical foundations and practical applications of programming languages, emphasizing the development of trustworthy concurrent, distributed, and decentralized systems. Key themes include type systems for resource management in concurrent environments, formal logics (types, process algebra), and tools for compiler design and abstract machines. He also explores interdisciplinary areas like computational theories of mind and quantum programming models. Caires has extensive teaching experience, lecturing 23 courses across BSc, MSc, and PhD levels, including foundational programming courses and advanced topics in formal languages, verification logics, and software security. He coordinated 87 course editions between 1992 and 2023. Professional service includes PC roles at major conferences (ECOOP ’25, FoSSaCS ’25, LICS ’25/’26). His work bridges foundational research with system-building, addressing challenges in concurrency, security, and distributed computing.
Courtney Brell is a Lecturer at the Department of Economics, University College London, with a research focus spanning both Economics and Quantum Computing. Her work addresses diverse topics, including labor market integration of refugees, immigration economics, and theoretical physics in quantum systems. Her research in Economics centers on migration policy, wage dynamics, and labor market impacts, particularly in high-income countries. In Quantum Computing, she explores topological quantum error correction, stabilizer codes, and quantum memory. Her publications reflect interdisciplinary contributions across these domains. Courtney Brell has published 13 key articles between 2011 and 2020, with significant output in quantum computing (2011–2017) and economics (2019–2020). Notable works include the 2020 analysis on refugee integration and foundational studies on quantum error correction. Courtney Brell has no documented scientific awards. Her role as a Lecturer involves teaching and research, with collaborations reflecting her interdisciplinary expertise.
Miklos Kertesz is a Professor of Chemistry at Georgetown University, where he served as Department Chair from 2000–2002. He holds a PhD from the University of Budapest and a C.Sc. from the Hungarian Academy of Sciences. His research focuses on applied quantum chemistry, particularly in designing synthetic metals and studying π-stacking interactions, nanotube chemistry, and energy storage materials. He received the Camille and Henry Dreyfus Teacher-Scholar Award in 1984. Education: Dipl. Phys. (1971, University of Budapest); PhD (1978, University of Budapest); C.Sc. (1978, Hungarian Academy of Sciences). Postdoctoral training at University of Florida, Cornell University, and the University of Vienna. His lab explores molecular actuators, carbon nanomaterials, and vibrational spectroscopy of polymers. Research highlights include predicting vibrational spectra of polymers and developing methodologies for π-π stacking interactions in radicals. Key research interests include: structural-electronic properties of conducting polymers, nanotube functionalization, and silicon carbide-derived nanoporous carbons for energy storage. His work bridges computational chemistry and experimental validation, emphasizing molecular-level design for advanced materials. Publications span over 50 years, with recent focus on pancake bonding in carbon nanomaterials, topological transitions in conjugated polymers, and novel π-dimer systems. Awards include the Dreyfus Fellowship and recognition for integrating teaching and research excellence. Lab activities involve collaborations with experimentalists to explore molecular storage in nanoporous carbons and mechanochemical polymerization processes. Current projects investigate diradicaloid systems and strain-induced electronic changes in conjugated materials.
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.
Gilles Brassard is a Professor at Université de Montréal since 1988, holding the Canada Research Chair in Quantum Information Science (renewed 2008, 2015). His career spans over four decades in academia, with roles progressing from Assistant (1979) and Associate (1983) Professor to his current rank. He is a leading figure in quantum information science, contributing foundational work in quantum cryptography, teleportation, and computational theory. Research Interests: Quantum Information Science: Explores quantum entanglement and non-locality as resources for computation and communication. Cryptography: Pioneered quantum and classical cryptographic protocols, including quantum key distribution. Quantum Computing: Advanced theoretical frameworks for quantum algorithms and computational complexity. Foundations of Quantum Mechanics: Investigates philosophical and mathematical underpinnings of quantum theory. Scientific Recognition: Recipient of the Wolf Prize in Physics (2018) and BBVA Frontiers Award (2019). Honorary degrees from ETH Zürich, University of Ottawa, and others. 2009 Gerhard Herzberg Medal (Canada's top science honor). Grants & Advising: Launched the NSERC Gilles Brassard Doctoral Prize (2012). No specific student advisees listed; however, his work has influenced generations of quantum researchers globally.
Andrei Afanasev is a Professor of Physics at The George Washington University, specializing in theoretical nuclear physics and quantum optics. His research focuses on precision calculations in quantum electrodynamics and hadronic structure, with significant contributions to two-photon exchange corrections and orbital angular momentum beam physics. His primary research interests include Theoretical Nuclear Physics (particularly QED corrections in lepton-nucleon scattering) Quantum Optics (structured light, orbital angular momentum beams) Photonics (twisted photon applications, polarization singularities) Hadron structure imaging via deep-inelastic scattering His work bridges fundamental quantum theory with experimental applications at facilities like Jefferson Lab. Analysis of his 15 most recent publications reveals a strong emphasis on radiative corrections for precision hadronic measurements, with 60% of articles addressing two-photon exchange effects. The remaining works explore novel optical phenomena in structured light fields, demonstrating interdisciplinary connections between nuclear physics and quantum optics. Key trends include applications of orbital angular momentum beams to quantum information and hadronic structure studies. While no specific awards are documented in the source material, his leadership in topical collaborations (e.g., Jefferson Lab initiatives) indicates significant professional recognition. Professor Afanasev's research program demonstrates substantial grant support through collaborations with major facilities including Jefferson Lab and participation in international workshops on radiative corrections. His theoretical frameworks directly enable precision experiments in nuclear and particle physics. His work intersects with quantum information science through optical vortex applications, though specific laboratory affiliations beyond university resources aren't detailed in the provided materials.
Ilkka Kylänpää is a University Instructor and Adjunct Professor in Physics at Tampere University, affiliated with the Faculty of Engineering and Natural Sciences. His research focuses on computational materials physics, particularly predictive simulations and method development. He has extensive experience in quantum Monte Carlo methods, electronic structure calculations, and studies on materials like vanadium dioxide and quantum dots. Kylänpää holds a PhD in Physics from Tampere University of Technology (2011) and has held postdoctoral positions at institutions including Oak Ridge National Laboratory and the University of Illinois at Urbana-Champaign. He teaches courses such as Computational Physics 1 and 2, and has contributed to the development of the QMCPACK software package. His work bridges theoretical and computational approaches to understand complex materials and quantum systems. Research interests include quantum simulations, electronic correlations, and the metal-insulator transition in materials. Key contributions involve analyzing vanadium dioxide's electronic properties and developing computational tools for molecular and solid-state systems. His articles span topics from quantum dot dynamics to the effects of oxygen vacancies in heterostructures. Advising and grants are not explicitly detailed in the provided information, but his career trajectory reflects sustained academic and research engagement in computational physics.
Aaron R. Warren is an Associate Professor of Physics at Purdue University Northwest (PNW), serving as Director of the Science Interdisciplinary Research Center (SIRC). He holds a Ph.D. in Physics from Rutgers University (2006) and a B.A. in triple majors (Physics, Mathematics, Astronomy) from Vassar College (2000). His research focuses on physics education research (PER) and computational astrophysics, including Bayesian-based teaching strategies and numerical simulations of binary neutron star mergers. He has received awards such as the PNW Teaching Incentive Award (2018) and the Goldwater Scholarship (1999). Warren’s teaching emphasizes student-centered learning, integrating practical applications and critical thinking. Professional roles include PNW Physics Lab Coordinator (2007–2016), Astronomy Club Advisor (2011–2016), and dual credit program liaison. His grants include a $597,781 NSF IUSE grant (2017–2021) exploring lab activity effectiveness and COES-funded research on neutron star mergers. Key research interests span PER methodologies, gravitational wave modeling, and student epistemology development. He collaborates on projects like ‘Mass Ejecta in Binary Neutron Mergers’ and ‘Quantitative Critical Thinking’ curricula. His work bridges theoretical physics with educational innovation, addressing both astrophysical phenomena and classroom pedagogy.
Dr. Hamid Tebyanian is a Lecturer in Physics and Astronomy at Queen Mary University of London’s School of Physical and Chemical Sciences. His work bridges quantum science with artificial intelligence and post-quantum cryptography, focusing on secure quantum communication protocols, entanglement sources, and quantum randomness generation. He holds affiliations with the National Physical Laboratory (NPL), ID Quantique (Switzerland), and was a Marie Curie Fellow across the University of Geneva, Vigo, and Padova. Research Interests: Quantum Cryptography: Device-independent security frameworks, quantum key distribution (QKD), and QRNG validation Quantum Communication: Entanglement-based protocols for secure networks and Bell inequality violations Quantum Optics: Superconducting nanowire detectors (SNSPDs), parametric down-conversion, and single-photon imaging Hybrid Security Models: Integrating post-quantum crypto with quantum systems to counter classical/quantum adversaries Collaborations: Partnered with 14 institutions including Toshiba, Quantinuum, and NPL on UK-wide quantum security projects. Developed QRNG certification standards using machine learning. Grants & Projects: Marie Curie Fellowship (European “Quantum Communication for All” project) National Physical Laboratory research on entanglement sources UK-wide QRNG assurance project with industry leaders Labs & Teams: Active in QMUL’s quantum computing lab, NPL’s quantum communication group, and ID Quantique’s detector design team.
Lejla Batina is a full professor of security of embedded devices in the Digital Security (DiS) group at Radboud University's Computing Science Department within the Faculty of Science. She also holds an adjunct professorship at the Selmer Center of the University of Bergen, Norway. Her research focuses on applied cryptography, embedded systems security, and leveraging machine learning for side-channel analysis. Batina has contributed significantly to cryptographic implementations, including ECC and post-quantum cryptography. She has organized major conferences such as CHES 2014, EUROCRYPT 2020/2021, and ACNS 2024, and currently serves on editorial boards like ACM TECS. Notable achievements include a VIDI grant (2014) and IEEE Senior Membership (since 2018). Her work spans over 240 publications, covering topics like SCA-resistant ECC, neural network security, and hardware countermeasures. Batina has mentored over 20 PhD students and postdocs, many of whom now hold academic or industry leadership roles. Her lab, CESCA, emphasizes collaborative research in cryptographic hardware and embedded systems security. Education: Professional Doctorate in Engineering (PDEng) in Mathematics for Industry, TU Eindhoven (2001) PhD in Mathematics, KU Leuven (2005) M.Sc. in Mathematics, University of Zagreb (1995) Research Interests: Her work bridges theoretical cryptography and practical implementations, with emphasis on Side-channel and fault attacks on embedded devices Machine learning applications in security Low-cost countermeasures for constrained hardware Post-quantum cryptography implementations Security of neural networks and AI models Grants & Awards: VIDI grant from Dutch Research Council (2014) Senior Member, IEEE (2018–present) Editorial Board Member, ACM Transactions on Embedded Computing Systems (since 2018) Advising & Mentorship: Supervised 15+ PhD students and numerous postdocs, including prominent alumni like Dr. Stjepan Picek (Associate Professor at Radboud) and Dr. Lukasz Chmielewski (Assistant Professor at Masaryk University). Labs & Teams: Leads the Cryptographic Embedded Systems and Security Applications (CESCA) lab, collaborating internationally on hardware-software co-design for secure implementations.
Otso Kinanen is a Doctoral Researcher at the Faculty of Information Technology, University of Jyväskylä. His research focuses on advancing quantum computing through software development and cloud-native platforms. He is part of the Quantum Information and Computation Team, contributing to projects like EM4QS (Enhanced Middleware for Quantum Software). His research interests include quantum software toolchains, hybrid quantum-classical systems, and leveraging cloud technologies like Kubernetes and Jupyter Notebooks for quantum development. Key projects involve creating unified execution platforms and improving developer experiences in quantum computing. Recent publications highlight advancements in quantum middleware, cloud-native frameworks, and agile development practices for quantum software. Otso collaborates with researchers such as Andrés D. Muñoz-Moller, Vlad Stirbu, and Tommi Mikkonen. No scientific awards or grants are explicitly mentioned, but his work is part of ongoing initiatives to decode quantum computational potential and bridge classical-quantum integration challenges.
Prof. Dr. Lutz Feld is a full professor and head of the Chair of Experimental Physics I B and the Institute of Physics I at RWTH Aachen University. He leads the High-Energy Physics Teaching and Research Area and is deeply involved in the CMS experiment at CERN's LHC. His work spans detector development, data analysis, and major leadership roles in German and international particle physics initiatives. University: RWTH Aachen University School: Faculty of Mathematics, Computer Science and Natural Sciences Department: Department of Physics Position: Professor (since 2004) Email: lutz.feld@physik.rwth-aachen.de Prof. Feld studied physics at the University of Bonn, earning his diploma in 1993 and doctorate in 1996 with research on the ZEUS experiment at DESY. He completed his habilitation in 2002 at the University of Freiburg, where he served as a scientific assistant and private lecturer before joining RWTH Aachen. 1988–1993: Physics studies, University of Bonn 1993: Diploma, University of Bonn (ZEUS experiment) 1996: PhD, University of Bonn (ZEUS experiment) 1997–1999: CERN Fellow (CMS silicon tracker development) 1999–2003: Scientific Assistant, University of Freiburg (ATLAS SCT) 2002: Habilitation, University of Freiburg 2003–2004: Private Lecturer, University of Freiburg 2004–present: Professor, RWTH Aachen University His research focuses on experimental high-energy physics, particularly the search for physics beyond the Standard Model such as supersymmetry, and the development of advanced silicon detector systems for the CMS experiment. He has led major upgrades of the CMS pixel and tracking detectors, including novel DC-DC power systems and thermal simulations for future high-luminosity phases. His work combines cutting-edge instrumentation with deep data analysis to probe fundamental questions in particle physics. The 15 most recent publications reflect a strong trend in both experimental data analysis (especially supersymmetry searches using dilepton and diphoton signatures) and innovative detector development (silicon trackers, power systems, thermal design). Keywords span high-energy physics, instrumentation, and data analysis, with subfields including jet physics, photoproduction, radiation-hard detectors, and LHC upgrades. The articles show a consistent focus on CMS-related projects, from early ZEUS work to current HL-LHC developments. Prof. Feld has received recognition for his teaching and leadership: Teaching Award of the Physics Department (2013) Spokesperson of the Physics Department (2008–2010) Chair of CMS Tracker Institution Boards (2014–2017) Spokesperson of BMBF FSP-104 (2018–2021) Chairman of the Committee for Elementary Particle Physics (since 2021) He has supervised numerous bachelor’s, master’s, and doctoral students, many of whom are listed as current or former members of his research group. His research is supported by major grants from DFG, BMBF, HGF, and EU, including the DFG Research Training Group 'Physics of the Heaviest Particles at the LHC' and BMBF programs FSP-102 and FSP-104. He has also contributed to public outreach through lectures, children’s university events, and virtual CMS visits. Prof. Feld leads a vibrant research group at RWTH Aachen, actively involved in detector construction (e.g., TEC+ endcap), data analysis (searching for new physics), and future upgrades for the CMS experiment. The group participates in national collaborations such as the Helmholtz Alliance 'Physics at the Terascale' and organizes key conferences like TEWPP and DCMS-FSP meetings.
Dr. Ioana Andreea Brezestean is a Scientific Researcher III (R2 rank) at the National Institute for Research and Development in Isotopic and Molecular Technologies (Cluj-Napoca, Romania). She holds a PhD in Physics (2022) and Master's degrees in Medical Physics (2013, 2015) from Babeș-Bolyai University . Her work focuses on nanomaterial synthesis , SERS substrate development , and environmental/health monitoring through advanced spectroscopic techniques. Current projects include NanedisSERS (bioinspired 3D nanoplatforms for neurodegenerative disease diagnostics) and AL-DIBI SERS (Alzheimer's biomarker detection using gold nanourchins). Her expertise spans nanoparticle fabrication (silver/gold), microfluidic sensor design , and multi-modal characterization (Raman, FT-Raman, SERS, TERS, microscopy). She contributes to eco-friendly nanocomposite development in projects like ECONANO4AUTO (bio-PA materials with chicken feather derivatives). Key collaborations include SINTEF AS (Norway), University of Medicine and Pharmacy 'Iuliu Hațieganu' , and NANOM MEMS SRL . Her methodology integrates DFT calculations , quantum chemistry modeling , and statistical pattern recognition for pathogen resistance analysis.
Kadir Gümüş is an active researcher specializing in Quantum Cryptography and Free-Space Optical Communication. His work focuses on advancing Continuous-Variable Quantum Key Distribution (QKD) protocols and mitigating turbulence effects in urban optical networks. Institutional Affiliation: Collaborates with leading research groups in optical communication and quantum security. Research Focus: Integrates classical and quantum signal co-propagation with real-time QKD receivers, achieving high-speed data transmission in turbulent environments. Recent Research Trends: From 2020–2025, Gümüş published 16 outputs, including groundbreaking experiments on 4.6 km terrestrial FSO links (2025) and adaptive reconciliation protocols (2024). His work addresses practical deployment challenges for secure quantum communication. Scientific Awards: Finalist for the Corning Outstanding Student Paper Competition (2025).
