Dr. Yi Chu is a Research Fellow in the Department of Electronic Engineering at the University of York. He holds a BSc from China Agriculture University (2008) and a PhD from the University of York (2010). His research focuses on Communication Technologies, specializing in Wireless Sensor Networks, Reinforcement Learning, and 5G/Cell-Free MIMO systems. He is actively involved in EPSRC projects like NetCodMod5G and leads collaborative initiatives in aerial neutral host networks and quantum key distribution. Education: BSc, China Agriculture University (2008) MSc & PhD, University of York (2010) Research Interests: Wireless Sensor Networks Reinforcement Learning Applications 5G/6G Network Technologies Cell-Free MIMO Architectures Quantum Key Distribution Recent Work: Developed O-RAN-based testbeds for cell-free MIMO systems Advanced channel estimation using graph neural networks Investigated power consumption in Open RAN digital twins Grants & Projects: EPSRC REACH: Distributed Beamforming Antenna Testbed RIC Enabled (CF-)mMIMO for HDD (2023-2025) KTP with AEMT Ltd (2022-2024) Labs/Teams: Part of the EPSRC-funded NetCodMod5G project team Collaborates with industry partners on aerial telecom infrastructure
Professor Constantia Alexandrou is a distinguished physicist at the Department of Physics, School of Natural and Applied Sciences, University of Cyprus. She leads state-of-the-art research in Lattice Quantum Chromodynamics and hadron structure, heading the Lattice QCD Computational Lab at the university. Professor Alexandrou serves as Chair of the Council of PRACE (Partnership of Advanced Computing in Europe), is a member of multiple prestigious scientific councils including the National Council for Research in Greece and the Helmholtz-Institute Mainz, and represents Cyprus at IUPAP. B.A. in Physics with First Class Honors from University of Oxford (1980) Ph.D. in Theoretical Strong Interactions Physics from MIT (1985) Research positions at Paul Scherer Institute, Switzerland and Erlangen University, Germany Professor Alexandrou's research focuses on Lattice Quantum Chromodynamics, hadron structure, and high-performance computing applications in theoretical physics. Her work bridges fundamental particle physics with advanced computational techniques, particularly in studying nucleon properties and quantum chromodynamics from first principles. She has pioneered methods for calculating parton distribution functions, hadronic vacuum polarization, and nucleon spin decomposition using lattice techniques, contributing significantly to our understanding of strong interaction physics. Her recent work has expanded into quantum computing applications for high-energy physics problems. Analysis of Professor Alexandrou's recent publications reveals a consistent focus on advancing lattice QCD methodologies for calculating fundamental properties of hadrons and nucleons. Her work spans both traditional lattice calculations and emerging quantum computing applications, demonstrating leadership in adapting computational physics to new technological frontiers. The publications show particular emphasis on precision calculations of nucleon structure, hadronic contributions to fundamental constants, and developing non-perturbative methods for quantum field theory. Fellow of the American Physical Society Principal Investigator of three European Joint Doctorates (approximately €3.7 million each) Principal Investigator of Excellence Center Quantum Computing for Science and Technology (QSciTec) under Teaming action (€35 million) Professor Alexandrou has secured approximately €15 million in competitive funding for the Computational-based Science and Technology Research Center of the Cyprus Institute, including two ERA Chair projects of €2.5 million each. She has served as the first Head of the Department of Physics at the University of Cyprus and held leadership positions at the Cyprus Institute from 2004-2022. With over 300 scientific publications and numerous invited talks at international meetings, she has organized several workshops in Cyprus and abroad, significantly contributing to the international lattice QCD community through the Extended Twisted Mass Collaboration (ETMC). She heads the Lattice QCD Computational Lab at the University of Cyprus, which operates dedicated computing clusters for lattice QCD calculations. As a member of the Extended Twisted Mass Collaboration (ETMC) - comprising major European and US research groups - she plays a key role in advancing international collaboration in computational particle physics. Her leadership extends to multiple scientific advisory bodies where she influences research directions in high-performance computing and theoretical physics across Europe.
Dr. Yanhua Hong is a Reader in the School of Computing and Engineering at Bangor University. His research focuses on nonlinear dynamics of semiconductor lasers, chaos theory, and their applications in optical communications and microwave photonics. He leads projects such as 'Microwave Photonics Generation Using Low-Cost VCSELs' and has published extensively in journals like Optics Express and Photonics. Key areas of expertise include semiconductor laser dynamics under optical feedback, secure communication systems leveraging chaotic signals, and the design of photonic microwave generation systems. Hong collaborates internationally with institutions like Southwest University (China) and the Universitat Politècnica de Catalunya (Spain). He actively supervises PhD students and examines external theses. Recent work highlights include high-speed secure stream ciphers using synchronized chaos, optimization of multimode fiber imaging systems, and analysis of intermittent laser dynamics via reservoir computing. His contributions bridge fundamental research with applied photonics, contributing to advancements in optical security, signal processing, and next-generation communication networks.
Kerstin Andersson is an Associate Professor in Computer Science at Karlstad University. Her research focuses on quantum chemical calculations, particularly using the MOLCAS software to explore organic solar cells and molecular properties. She has held roles including postdoc at IBM (California), assistant professor in theoretical chemistry at Lund University, and visiting professor in computational physics at Linköping University. Her academic journey includes undergraduate studies in engineering physics and graduate work in theoretical chemistry at Lund University, supervised by Björn Roos. Teaching spans foundational computer science, programming languages, and societal impacts of technology. Research interests blend computational chemistry and theoretical computer science, with key contributions to CASPT2 method development, electronic spectra analysis (e.g., Cr₂, C60), and entropy-related mathematical modeling. Notable publications include studies on molecular properties (TCNQ, VCr), cellular automata theory, and epistemological reflections in education (in Swedish). Her work bridges quantum chemistry and computer science through algorithmic advancements in molecular simulations and information theory. Grants and collaborations are implied through her diverse postdoctoral and visiting roles. No lab/teams explicitly mentioned, but MOLCAS software usage suggests computational infrastructure involvement.
Majid Haghparast serves as an Associate Professor in the Faculty of Information Technology at the University of Jyväskylä, Finland, with a sabbatical research fellowship at Johannes Kepler University (Linz, Austria) from April 2017 to January 2018. His research spans Software Engineering, Quantum Computing, and High Performance Computing, with concentrated expertise in Quantum Algorithms, Reversible Computation, Quantum dot Cellular Automata, and Multiple-Valued Logic. He investigates fault-tolerant quantum systems, ternary logic implementations, and quantum software development frameworks, bridging theoretical quantum principles with practical nanoscale computing applications. Recent publications (2024-2025) reveal dominant trends in quantum circuit optimization, reversible logic design for ternary/qutrit systems, and quantum software tool development. Key contributions include efficient quantum hardware components (comparators, multiplexers, flip-flops) using quantum-dot cellular automata, alongside advancements in quantum communication protocols and algorithm simulation tools. Professor Haghparast has supervised over 10 PhD and 150 MSc theses. He leads the SeQuSoS project (Securing the Quantum Software Stack) and DEQSE (Developer Experience in Iterative Quantum Software Engineering), addressing quantum software security and programming usability challenges. He co-leads the Empirical Software Engineering Research group and heads the Quantum Information and Computation Team, which actively explores quantum computational boundaries through projects like SeQuSoS and DEQSE.
Matthieu Bloch is an Associate Professor in the School of Electrical and Computer Engineering at the Georgia Institute of Technology. He is an expert in quantum communication, information security, and coding theory, with a focus on developing provably secure and covert communication systems using quantum technologies. His research lies at the intersection of information theory, cryptography, and quantum engineering. Key areas include: Quantum Key Distribution (QKD) and post-quantum cryptography Covert and undetectable quantum communication Information-theoretic security over quantum channels Design of efficient reconciliation algorithms for low-information signals Coding and signaling techniques for concentrating diffuse information His work has been recognized through invitations to speak at international scientific events, such as the guest lecture at CY Advanced Studies on "Towards undetectable quantum communications." While specific publications and awards are not listed in the provided text, his contributions reflect cutting-edge advancements in secure quantum communication systems. Dr. Bloch has advised students and led research projects in secure communications, though specific names are not provided. His work is supported by research grants in quantum information science, though details are not specified. He is actively involved in advancing the theoretical and practical deployment of quantum-secured networks, including satellite-based systems like those demonstrated in the Micius project. He is affiliated with the Georgia Tech School of Electrical and Computer Engineering, a leading institution in engineering research and education. His work contributes to both foundational theory and real-world applications in secure communications.
Enrique (Kiko) Galvez is the Charles A. Dana Professor in the Department of Physics and Astronomy at Colgate University . Since 1999, he has led a National Science Foundation (NSF)-funded project to develop undergraduate laboratory experiments that demonstrate fundamental aspects of quantum mechanics through single-photon experiments. Current implementation of quantum mechanics labs since 2005 Hosts Alpha Immersions faculty workshops on quantum experiments since 2011 Develops open-access teaching materials and data acquisition programs The project focuses on quantum superposition , entanglement , and nonlocality , using spontaneous parametric down-conversion photon sources. Experiments are designed for advanced undergraduate students to engage with counter-intuitive quantum phenomena through hands-on work. Recent updates include GitHub repository with Matlab programs for photon experiments (last updated September 2024) and bug-fixed software for data acquisition boards.
Daniel Oi is a Reader in the Computational Nonlinear and Quantum Optics (CNQO) group at the Department of Physics, University of Strathclyde, under the Faculty of Science. He is also affiliated with SUPA (Scottish Universities Physics Alliance), Ocean, Air and Space, and StrathCyber. He holds an honorary Senior Lecturer position at the University of Bristol's Merchant Venturers School of Engineering (2020–2023). He is actively involved in quantum research and is accepting PhD students. BSc Hons Physics, University of Western Australia (1995) BEng Hons Mechanical Engineering, University of Western Australia (1997) MASt (Part III Mathematics), University of Cambridge (1999) PhD in Quantum Channels, Mixed States, and Interferometry, University of Oxford (2002) Daniel Oi's research spans fundamental quantum theory, quantum engineering, quantum computation, and quantum space technologies. His work emphasizes quantum communication, quantum optics, and quantum information, with applications in space-based quantum key distribution and satellite quantum networks. He explores quantum retrodiction, entanglement, and quantum metrology, bridging theoretical models with experimental implementations. His research contributes to UN Sustainable Development Goals, particularly in education and technological innovation. His recent publications (2020–2025) show a strong focus on space quantum communication, including satellite QKD, quantum repeaters, atom interferometry, and radiation-hardened photodetectors. His work combines theoretical advances with practical engineering for space deployment, emphasizing performance under finite resources and real-world constraints. Key themes include quantum networking, entanglement distribution, and quantum-enhanced sensing using interferometric techniques. He received the recognition of being a founding member of QUISCO (Quantum Information Scotland Network) in 2008. Daniel Oi has been a principal or co-investigator on multiple research projects, including EPSRC-funded CASE accounts, the DTP 2224 studentship, NPL iCASE on quantum transduction, the Integrated Quantum Networks Hub, and ESA’s VOLT Mission. He has hosted academic visitors, organized workshops, and delivered invited talks globally. He supervises research students and contributes to datasets in quantum scheduling and state amplification. He is actively involved in professional activities, including organizing the INSQT Workshop 5, speaking at the Satellite Quantum Key Distribution event, and participating in quantum networks and gravity workshops. His lab, the CNQO group, focuses on computational and theoretical aspects of nonlinear and quantum optics, supporting satellite quantum technologies and foundational quantum research.
Shahram Rahimi is a Professor and Head of the Department of Computer Science at The University of Alabama, College of Engineering. He also serves as Chief Advisor to the Alabama Cyber Institute, demonstrating leadership in both academic administration and cybersecurity research. His career includes prior roles as the Gloria & Douglas Marchant Endowed Chair Professor and department head at Mississippi State University. Education: Ph.D., Computational Sciences, The University of Southern Mississippi, NASA John C. Stennis Space Center M.S., Computer Science, The University of Southern Mississippi M.S., Computer Engineering Technology, The University of Southern Mississippi M.S., Computer Architecture, Sharif University of Technology B.S., Computer Engineering, Shahid Beheshti University Dr. Rahimi's research is centered on Artificial Intelligence , with deep expertise in Generative AI & LLMs, Machine Learning, Neural Networks, and Quantum Computing . His work bridges theoretical innovation and real-world applications in healthcare, public safety, and policy. He has developed influential systems such as Foresight , a game theory-based decision support tool for foreign policy, and EmTime/Symphony , an AI algorithm optimizing emergency room staffing used in over 1,000 hospitals. His research integrates computational intelligence, multi-agent systems, and predictive analytics to solve complex societal challenges. The analysis of his recent publications reveals a consistent focus on hybrid AI models, uncertainty reasoning (e.g., Z-numbers), predictive modeling in healthcare and transportation, and the integration of game theory with machine learning. His work increasingly explores quantum computing and generative AI, reflecting cutting-edge trends in computer science. These publications span top journals such as IEEE Transactions on Cybernetics and Expert Systems and Applications. Scientific Recognition: EmTime/Symphony recognized as one of the top 10 AI healthcare technologies by HealthTech magazine (2018) Editor-in-Chief of two major AI journals Member of editorial boards for several AI and computing journals Advisor to federal task forces on predictive analytics for policy and defense Dr. Rahimi has been principal investigator on over $25 million in federally and industry-funded research projects, reflecting strong grant acquisition and project leadership. He has advised numerous students and mentored researchers in AI and computational intelligence. He has organized 15 international conferences on computational intelligence and multi-agent systems, fostering global academic collaboration. He leads key initiatives including the Alabama Center for the Advancement of AI and collaborates with multiple research centers such as the Center for Advanced Public Safety and the Center for Sustainable Infrastructure. His lab work integrates interdisciplinary teams focused on intelligent systems, cybersecurity, and AI for social good.
Rubem Mondaini is an Assistant Professor at the University of Houston's Department of Physics since March 2024. Holding a PhD from the Federal University of Rio de Janeiro, he specializes in theoretical investigations of quantum many-body systems using large-scale numerical simulations. His research spans in- and out-of-equilibrium phenomena, including quantum phase transitions, many-body localization, superconductivity, and topological materials. He actively collaborates with experimentalists on quantum emulators for quantum communication protocols and energy storage applications. Key research areas: Quantum Many-Body Systems, Superconductivity, Topological Phases, Disorder Effects, Quantum Computing Recent publications focus on superconducting qubits, sign problem universality, and non-Hermitian quantum systems Notable awards include the NSFC Outstanding Youth Scientist (2022) and Scialog Fellowship (2025). He has supervised numerous postdoctoral scholars and graduate students across institutions in the US, China, and Brazil, while securing significant research grants from NSFC and the Simons Foundation.
Bartolomeo Montrucchio is a Full Professor of Information Processing Systems (ING-INF/05) at the Department of Control and Computer Engineering (DAUIN) of the Polytechnic University of Turin. He is a member of the Interdepartmental Center Photonext - PoliTo Interdepartmental Center on Applied Photonics and serves as deputy director at the Interuniversity Center of Regional Interest for the Training of Secondary School Teachers (CIFIS) since July 2012. Additionally, he has held an adjunct professor position at the University of Illinois at Chicago during July 2008. Professor Montrucchio's research spans several cutting-edge areas with a primary focus on quantum computing, computer vision, and sensor networks. His work encompasses image processing, scientific visualization, parallel and distributed systems, and wireless sensor networks. He actively contributes to European research initiatives including the EQUO (European QUantum ecOsystems) project as Scientific Responsible. His research bridges theoretical computer science with practical applications across multiple industries. His publication record shows a strong trajectory toward quantum technologies, with numerous recent publications focusing on quantum machine learning, quantum algorithms for financial applications, and quantum applications in cybersecurity. His work demonstrates increasing emphasis on practical implementations of quantum computing in real-world scenarios, particularly in industrial settings and telecommunications. Best student paper award at BIOSIGNAL2002, conferred by EURASIP, Italy (2002) Associate Editor of IEEE TRANSACTIONS ON VEHICULAR TECHNOLOGY (2019-present) Professor Montrucchio actively supervises numerous PhD students working on quantum computing applications across various domains including finance, cybersecurity, traffic optimization, and industrial use cases. His teaching portfolio includes courses on Quantum Computing, Parallel and Distributed Computing, and Image Processing and Computer Vision across multiple degree programs including Computer Engineering, Biomedical Engineering, and Quantum Engineering. He leads multiple research projects funded by both competitive calls and commercial contracts, with a significant focus on quantum technologies since 2019. His patent portfolio includes several inventions related to tire manufacturing processes and visual rehabilitation for telemedicine.
Constandinos Mavromoustakis is a Professor at the Department of Computer Science, University of Nicosia (School of Sciences and Engineering). He leads the Mobile Systems Lab (MOSys Lab) and holds leadership roles in IEEE, including Vice-Chair of the Cyprus Section and Chair of the Computer Society Chapter. He actively contributes to IEEE Communications Society committees and standardization groups like IEEE-SA SCC42 WG2040. Education includes: Dipl.Eng in Electronic and Computer Engineering from Technical University of Crete MSc in Telecommunications from University College London PhD from Aristotle University of Thessaloniki His research integrates Mobile Systems, IoT, and Wireless Communications, with emphasis on: 5G/6G network security using AI-driven strategies Resource optimization in cloud-edge ecosystems UAV-assisted networks for critical infrastructure Healthcare applications via IoMT and data analytics Recent publications (2024-2025) demonstrate strong focus on securing next-gen networks (O-RAN, 6G), optimizing edge computing for VR/IoT, and advancing smart healthcare/cities. Dominant themes include Deep Reinforcement Learning, quantum-inspired optimization, and latency minimization techniques. He participates in EU-funded initiatives including FP7, H2020, Eureka, and national projects. Industrial collaborations include consultancy for Intel Corporation. He directs the MOSys Lab, which researches mobile systems, IoT interoperability, and network security, with projects spanning UAV communications, medical IoT, and sustainable computing.
Serkan Ateş is an Associate Professor at the Department of Physics, Izmir Institute of Technology, Turkey. He received his undergraduate degree in Physics from the same institution and earned his MSc and PhD in Physics from the University of Stuttgart, Germany. Undergraduate: Physics, Izmir Institute of Technology MSc & PhD: Physics, University of Stuttgart His research focuses on solid-state quantum optics , nanophotonics , and quantum technology applications , particularly leveraging defects in hexagonal boron nitride for quantum key distribution and single-photon emitter studies. His recent work explores polarization dynamics and non-resonant cavity coupling for quantum communication advancements. His publications highlight trends in: Quantum key distribution using 2D materials Single-photon emitter spectroscopy Non-Markovian quantum dynamics Photon statistics in microcavity systems Resonant quantum dot interactions Frequency conversion for quantum networks Notable awards include: Outstanding Young Scientist Award (GEBİP) from Turkish Academy of Sciences (TÜBA) Science Academy Young Scientist (BAGEP) Award
Dr. Ernestas Filatovas is a Senior Researcher and Chief Researcher in the Project at Vilnius University's Institute of Data Science and Digital Technologies (formerly Institute of Mathematics and Informatics), where he has been affiliated since 2013. He leads the Blockchain and Quantum Technologies Group, focusing on cutting-edge research at the intersection of quantum computing, blockchain, and artificial intelligence. Previously, he served as an Associate Professor and Lecturer at Vilnius Gediminas Technical University's Faculty of Fundamental Sciences from 2013 to 2019. Dr. Filatovas earned his Doctor of Technology in Computer Science Engineering from Vilnius University Institute of Mathematics and Informatics in 2012. His dissertation, supervised by Prof. Dr. Olga Kurasova, focused on the interactive solution of multi-criteria optimization problems. His research spans multiple high-impact domains, with particular expertise in blockchain technologies, quantum computing, artificial intelligence, and machine learning. He has pioneered work in quantum blockchain implementations, reproducibility of AI research through blockchain verification, and quantum machine learning applications. His research bridges theoretical computer science with practical applications in financial markets, healthcare, and distributed systems. His extensive publication record—over 50 scientific papers, with more than 25 in Clarivate Analytics-indexed journals—demonstrates consistent productivity and international collaboration. Recent work shows a clear trajectory toward quantum-enhanced AI systems, blockchain-based research verification frameworks, and quantum algorithms for practical problems. Laureate of the 4th LMA Young Scientists' Conference (2014) INFOBALT scholarship 2nd place winner (2014) Lithuanian State Science and Studies Foundation funding recipient (2009, 2010) Recognized as one of Lithuania's most active doctoral students Master's degree with honors (2006) Dr. Filatovas leads multiple significant research projects, including the 2021-2024 project 'Solving the problems of reproducibility of scientific research in the field of artificial intelligence using blockchain technologies' as team leader, and the 2023-2027 project 'Development and validation of quantum machine learning methods using prepared datasets' as Chief Researcher. He has also contributed to international collaborations such as the Spanish-funded 'High Performance Solutions for Modern Scientific Computing Challenges' (2019-2021). His popular science contributions, including the VU news portal article 'Quantum Computing: Who and Why?', demonstrate his commitment to science communication. As a key member of Vilnius University's Blockchain and Quantum Technologies Group, Dr. Filatovas contributes to Lithuania's growing reputation in quantum computing research and blockchain innovation, working closely with international collaborators across Europe.
Theresa Lynn is a faculty member in the Department of Physics, specializing in quantum communication protocols using photon pairs entangled in polarization states and spatial modes. Her research explores the role of quantum entanglement in enhancing communication bandwidth and security, particularly through protocols like quantum secret sharing. Key research areas include: Quantum communication via entangled photons Advantages and limitations of linear optical devices in quantum systems Entanglement-based security mechanisms Recent publications focus on hyperentangled Bell state distinguishability, single-atom cavity QED control, and quantum secret sharing frameworks. Her work bridges theoretical and experimental quantum information science.
