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Mahdi DoostmohammadiView profile

Lecturer

• Mixed Integer Optimization
• Polyhedral Theory
• Mathematical Programming
• +7 more

Mahdi Doostmohammadi is a Lecturer (Assistant Professor) in Operational Research at the Department of Management Science, Strathclyde Business School, University of Strathclyde since 2018. He holds a B.Sc. and M.Sc. in Applied Mathematics from the University of Isfahan (2004, 2007) and a Ph.D. in Operational Research from the University of Aveiro (2014). Prior roles include Post-Doctoral positions at Strathclyde and Instituto Superior Técnico (Lisbon), and a Lecturer position at the University of Edinburgh's School of Mathematics. Education: B.Sc. Applied Mathematics (Computer Science), University of Isfahan, 2000–2004 M.Sc. Mathematics (Optimization and Optimal Control), University of Isfahan, 2005–2007 Ph.D. Operational Research (Distinction), University of Aveiro, 2009–2014 Research Interests: Focus on Mixed Integer Optimization , Polyhedral Theory , Network Optimization , and their applications in production planning, transportation, and metabolic engineering. His work bridges theoretical developments with practical challenges in supply chains, healthcare, and renewable energy systems. Publications Trends: Recent articles emphasize optimization algorithms for supply chain design, healthcare decision-making, renewable energy infrastructure, and metabolic engineering. Methodological strengths include mixed-integer programming and system dynamics modeling. Scientific Awards: First Award of B.Sc. graduates in Mathematics, 2004 Ph.D. with Distinction in Operational Research, 2014 Advising & Grants: Directs MSc programs in 'Data Analytics' and online 'Operational Research'/'Business Analysis and Consulting'. Active in peer review for journals like Journal of the Operational Research Society and Computers & Operations Research .

Polina BayvelView profile

Professor

• Optical Communications
• Optical Networks
• Nonlinear Fibre-Optics
• +5 more

Professor Polina Bayvel is a Professor of Optical Communications and Co-Director of the Institute of Communications and Connected Systems (ICCS) at University College London (UCL). She leads the Optical Networks Group, established in 1994, and has held a Royal Society University Research Fellowship (1994–2004). Her research focuses on optical communications, nonlinear fibre-optics, and high-capacity transmission systems. Education: BSc (Eng) in Electronic & Electrical Engineering, University of London (1986) PhD in Electronic & Electrical Engineering, University of London (1990) Research Interests: Professor Bayvel’s work spans optical network architectures, wavelength-routing, nonlinear fiber mitigation, and ultra-wideband communication systems. She pioneered the use of wavelength domains for optical network routing and developed key devices for network implementation. Recently, her group has addressed capacity limits in nonlinear systems and low-latency optical infrastructure for the digital economy. Awards & Recognition: Royal Society Wolfson Research Merit Award (2007–2012) 2013 IEEE Photonics Society Engineering Achievement Award 2014 Royal Society Clifford Paterson Prize Medal 2015 Colin Campbell Mitchell Award (shared with her team) CBE for services to engineering (2017) Grants & Projects: UNLOC: EPSRC Programme Grant (2012–2018) to maximize optical communications capacity TRANSNET: Current project on intelligent optical infrastructure COIN: Past project on nonlinear optical coding Labs & Teams: Head of the Optical Networks Group at UCL, collaborating with industry leaders like Nortel Networks and STC Submarine Systems. Her team includes Research Fellows Ruijie Luo and Filipe Marques Ferreira.

• Microelectromechanical Systems (MEMS)
• Radio Frequency Circuits
• Integrated Circuit Design
• +7 more

Frédéric Nabki is a Professor in the Department of Electrical Engineering at École de technologie supérieure (ÉTS) in Montreal, Canada. Holding a B.Ing. and Ph.D. from McGill University, he maintains an active research program focused on microelectromechanical systems, RF circuits, and integrated photonics. His work bridges fundamental research with practical applications in avionics, wireless communications, and sensing systems. Dr. Nabki's research interests span microelectromechanical systems (MEMS), radio frequency integrated circuits, sensor design, microfabrication techniques, and optical communications. His laboratory, LACIME (Communications and Microelectronic Integration Laboratory), focuses on three primary research axes: Sensors, Networks and Connectivity; Innovative materials and advanced manufacturing; and Quantum Engineering. His work encompasses analog and RF microelectronics, MEMS and MOEMS devices, microfabrication, system-on-chip design, integrated sensors and actuators, interface circuits for sensors, wireless and optical communication circuits, energy harvesting microsystems, silicon photonics, and embedded systems for avionics applications. Analysis of Dr. Nabki's recent publications reveals a strong focus on MEMS technology with applications spanning multiple domains. His work demonstrates expertise in piezoelectric MEMS devices, optical switching solutions using silicon nitride photonics, ultrasonic transducers for sensing applications, and RF front-ends for avionics. The research increasingly incorporates machine learning techniques for signal processing and fault detection, showing an interdisciplinary approach that combines hardware design with advanced algorithms. His work maintains strong ties to practical applications, particularly in aerospace, industrial monitoring, and biomedical imaging. Dr. Nabki has successfully supervised numerous graduate students through their master's and doctoral research. His supervision portfolio includes over 30 theses covering diverse topics from MEMS resonators and energy harvesters to optical switching systems and avionics RF front-ends. His research has been supported through significant funding that has enabled the filing of 48 patents, numerous peer-reviewed publications (116 journal articles), and multiple book chapters. The extensive patent portfolio demonstrates the translational nature of his research with practical commercial applications. Dr. Nabki leads the LACIME research laboratory, which focuses on the integration of communication systems with microelectronic technologies. The laboratory maintains strong collaborations with industry partners, particularly in the aerospace sector, and has developed specialized facilities for MEMS design, fabrication, and testing. Current research directions include quantum-based security for connected objects, advanced MEMS for avionics applications, and silicon photonics for optical switching solutions.

Khaled Abdel HarfoushView profile

Associate Professor

• Computer Networking
• Internet Measurements
• Peer-to-Peer Systems
• +7 more

Khaled Abdel Harfoush is an Associate Professor at North Carolina State University, affiliated with the College of Engineering and Department of Computer Science. He holds a Ph.D. in Computer Science from Boston University (2002) and earned his M.Sc. and B.Sc. from Alexandria University, Egypt. Education: Ph.D. (2002), M.Sc. (1995), B.Sc. (1992) in Computer Science His research spans computer networking, internet measurements, peer-to-peer systems, and routing protocols, with significant contributions to network security and quantum key distribution. His work addresses censorship resistance, blockchain infrastructure, vehicular network reliability, and wireless sensing. Recent publications analyze censorship techniques, decentralized network vulnerabilities, and protocol optimizations. He received the prestigious National Science Foundation Faculty Early CAREER Award (2004) and Best Paper Award (2006) for his work in virtualization and grid management. Scientific Awards: National Science Foundation Faculty Early CAREER Award (2004) Best Paper Award, IFIP/IEEE International Workshop on End-to-End Virtualization and Grid Management (2006) He has secured multiple grants including Fulbright Junior Faculty Development Program funding (2022) and research grants from NCSU Institute for Next Generation IT Systems for WLAN security and congestion control projects.

Ulf SchlichtmannView profile

Professor

• Electronic Design Automation
• Integrated Circuit Design
• Microfluidics
• +2 more

Professor Ulf Schlichtmann holds the Chair of Design Automation at Technische Universität München's School of Computation, Information and Technology. His research specializes in electronic design automation (EDA) methodologies for complex integrated circuits, with recent focus on optical networks-on-chip, microfluidic biochips, and neuromorphic computing architectures. Research interests span hardware design automation, photonic network optimization, fault-tolerant systems, and AI-assisted hardware generation. Recent innovations include wavelength-routed optical NoCs, 3D-printed microfluidics, and LLM-enhanced HDL design tools that advance hardware efficiency and reliability. Publications demonstrate consistent breakthroughs in cross-domain optimization, with applications spanning from high-performance computing to biomedical microdevices. Laboratory leadership includes coordination of international degree programs and industry collaborations.

Josva KleistView profile

Associate Professor

• Distributed Systems
• Grid Computing
• Optical Networking
• +5 more

Josva Kleist is an Associate Professor at the Department of Computer Science, Aalborg University, affiliated with The Technical Faculty of IT and Design. He specializes in distributed systems, grid computing, and optical networking, with a focus on energy efficiency, middleware development, and process calculus theories. His research spans distributed computing architectures, including grid middleware (e.g., ARC), optical network optimization, and high-performance computing infrastructure for projects like the LHC. He contributed to the Danish Center for Grid Computing and the Network of Excellence on Embedded Systems Design (2004–2008), focusing on system management and resource allocation. Key research interests include: - Energy-efficient optical networks and survivable routing strategies - Grid middleware interoperability and modular design - Large-scale distributed storage and computational frameworks for scientific experiments - Formal methods for process calculi applied to mobile objects and distributed systems Recent work emphasizes cloud provider connectivity for research networks and traffic-aware elastic optical networks. Media coverage highlights his contributions to supercomputing energy efficiency and climate modeling infrastructure. Notable projects include building distributed Tier-1 computing centers for LHC data storage and analyzing network requirements for high-throughput scientific workflows. His work bridges theoretical foundations with practical implementations in distributed systems.

• Quantum Physics
• Quantum Networking
• Quantum Information Science
• +5 more

Dr. Qudsia Quraishi is an Adjunct Assistant Professor at the University of Maryland, leading the Quraishi Group focused on quantum networking with trapped ions. Her research explores quantum entanglement, hybrid ion-neutral atom systems, and quantum frequency conversion to bridge disparate quantum systems. The group’s work includes developing telecom-compatible single-photon sources and scalable photonic networks, recently achieving 11 km photon transmission over existing fiber networks. Key projects involve quantum memory storage via electromagnetically induced transparency (EIT), and entanglement between barium ions and photons in the telecom O-band. Dr. Quraishi collaborates on the Washington DC metropolitan quantum network (DC-QNet), emphasizing clock synchronization and long-distance quantum links. Recent team additions include Brennan Romanoff (2023 graduate student) and former member Dr. John Hannegan (2022 doctoral graduate). Research interests span trapped ion photonics, quantum photonic integration, and hybrid quantum systems. Major contributions include photonic chip-based routing, low-noise frequency conversion, and multi-qubit entanglement protocols. Experimental methods include optical frequency comb control and Rydberg ensemble interactions. Ongoing work targets ultra-long-distance quantum networks and robust quantum repeater architectures. Scientific achievements include first demonstrations of telecom-band photon generation from trapped ions and scalable quantum interference protocols. Advising focuses on training students in quantum hardware development and theoretical modeling. Lab infrastructure includes advanced ion trap setups, fiber-optic networks, and cryogenic systems.

• Flow-Aware Networking
• Optical Networks
• Network Resilience
• +5 more

Andrzej Jajszczyk is a prominent researcher in telecommunications and computer networks, with extensive contributions spanning Flow-Aware Networking, optical networks, resilience mechanisms, and Quality of Service (QoS) architectures. His work frequently appears in IEEE publications and conference proceedings, reflecting his active role in advancing network technologies. Research Focus: Jajszczyk's primary interests include congestion control algorithms, network reliability frameworks, and traffic management in Flow-Aware Networks. Recent work explores nanocommunications (FRET-based signaling) and energy-efficient cloud-fog interplay. His research consistently addresses both theoretical models and practical implementations in optical and software-defined networks. Publication Trends: Analysis of his 15 most recent articles reveals strong emphasis on: (1) Optimization of optical routing and spectrum allocation, (2) Nanoscale communication systems for biomedical applications, (3) Congestion mitigation in flow-oriented architectures, and (4) Energy-aware network resource provisioning. The work demonstrates consistent innovation in network resilience and QoS frameworks since the early 2000s. Awards & Recognition: No specific scientific awards or fellowships are documented in the provided text. Academic Leadership: Jajszczyk has edited IEEE Communications Magazine features and co-authored comprehensive books like Guide to Flow-Aware Networking . While student advisees aren't listed, his frequent collaborations (e.g., with Domżał, Wójcik) suggest mentorship roles.

• Quantum Technologies
• Photonic Engineering
• Integrated Photonics
• +3 more

Professor James Gates is a Professorial Fellow (Research) at the University of Southampton, specializing in photonic engineering, quantum technologies, and ultra-precision fabrication. With over 25 years' experience, he leads a research team developing proprietary techniques like flame hydrolysis glass deposition and air-bearing stabilized laser inscription for applications in quantum computing, telecommunications, and aviation sensing. Quantum Technologies Integrated Photonics Ultra-precision Machining His research focuses on overcoming fabrication challenges in quantum systems, including optical waveguides, superconducting components, and atom trap technologies. Recent work involves intermodal four-wave mixing for broadband wavelength conversion and diamond machining of photonic circuits. Current projects include EPSRC-funded initiatives UPROAR and PURE, plus leadership roles in the Quantum Computing Hub and CDT in Quantum Technology Engineering. His team has contributed to over £100m in research grants. Research group award: Highly Commended (2017) Vice Chancellor's Award (2012) Professor Gates supervises multiple PhD students and collaborates on international projects, including quantum hubs in Oxford and Birmingham. His work bridges academic research with commercial applications through patented fiber assembly methods and invited technical reviews.

• Communication and network engineering
• Measurement engineering
• Electron device and electronic equipment
• +3 more

Makoto Tsubokawa is a Professor at the Faculty of Science and Engineering and Graduate School of Information, Production and Systems at Waseda University . His career spans multiple institutions, including a visiting scholar position at the University of California, Davis (2023-2024) and prior roles at NTT Labs and NTT-East Corp. Research Interests : Optical fiber sensors and polarization-maintaining fibers Fiber optic measurement techniques and mode coupling analysis Photonic network reliability and security in WDM/TDM systems Nanoscale optical devices and metasurface structures His work has focused on enhancing optical signal transmission, suppression of fiber fuse propagation, and innovative designs for photonic nanojets, bowtie core capillaries, and ultra-thin photodiodes. His recent publications (2023-2025) emphasize directional scattering for absorption enhancement, bidirectional nanoparticle transport, and MIMO-based network protection schemes. Education : Ph.D. in Engineering, Hokkaido University (1984) Master’s in Applied Physics, Hokkaido University (1982) B.Sc. in Applied Physics, Hokkaido University (1981) Professional Memberships : OSA (The Optical Society) IEEE (Institute of Electrical and Electronics Engineers) IEICE (Institute of Electronics, Information and Communication Engineers)

• Optical Networks
• Optical Communication
• Broadband Networks
• +5 more

Josep Solé-Pareta is a Professor in the Department of Computer Architecture at the Polytechnic University of Catalonia (UPC), specializing in optical networking and telecommunications. His research spans optical burst switching, wavelength assignment algorithms, network planning, and emerging 5G network architectures. He has contributed significantly to the ALLIANCE project developing converged network solutions for 5G and beyond. His research interests focus on Optical Networks , Optical Communication , Broadband Networks , and Computer Architecture , with particular emphasis on physical layer impairments, routing algorithms, and network optimization. His work bridges theoretical network models with practical implementations in next-generation optical infrastructures. Analysis of his recent publications reveals a strong trend toward converged network architectures integrating optical transport with 5G wireless systems, energy-efficient network design, and machine learning applications for network monitoring. His research consistently addresses critical challenges in spectrum fragmentation, quality of transmission, and network resiliency across multiple generations of optical networking technologies. Professor Solé-Pareta has contributed to significant research projects including the ALLIANCE project for 5G network infrastructure. His work demonstrates consistent funding support for advanced research in optical networking and telecommunications infrastructure. He has been involved with the SMARTxAC platform used by the Supercomputing Center of Catalonia (CESCA) for monitoring the Catalan Research and Education Network. His research group appears to focus on optical network architectures, traffic engineering, and next-generation network planning methodologies.

Marko LoncarView profile

Professor

• Quantum Engineering
• Optics/Photonics
• Nanotechnology
• +3 more

Marko Loncar is the Tiantsai Lin Professor of Electrical Engineering at Harvard University's John A. Paulson School of Engineering and Applied Sciences (SEAS). His research focuses on nanoscale optics, quantum engineering, and integrated photonics, with a particular emphasis on lithium niobate and diamond-based systems. Loncar leads the Laboratory for Nanoscale Optics, advancing technologies in quantum networks, optomechanical systems, and high-performance electro-optic devices. His work bridges fundamental science and engineering applications, including quantum communication, high-speed data transmission, and cryogenic photonics. Key research areas include quantum networking via photonic integration, nanomechanical resonators for quantum sensing, and novel materials for ultrafast photonics. Loncar's group has pioneered thin-film lithium niobate platforms for efficient frequency conversion and electro-optic modulation. Recent breakthroughs include entanglement distribution over metropolitan networks and terahertz detection systems. His projects often involve collaborative efforts with industry and government labs, leveraging advanced fabrication techniques like photonic wire bonding and topology optimization. Loncar’s lab operates cutting-edge facilities for nanophotonic device fabrication and characterization, including cryogenic packaging solutions. His contributions have advanced applications in quantum computing, secure communications, and sensor technology. Current research trajectories explore hybrid systems combining optics, acoustics, and superconducting qubits, aiming to create scalable quantum networks and ultra-precise gyroscopes.

Radim BartosView profile

Professor

• Computer Networks
• Networking Protocols
• Computer Science
• +4 more

Radim Bartos is a Professor and Chair of the Department of Computer Science at the University of New Hampshire (UNH), part of the College of Engineering and Physical Sciences. His research focuses on communication protocols, networked systems, and underwater vehicle networks. He holds a Ph.D. in Mathematics and Computer Science from the University of Denver, along with multiple Master's degrees from the University of Denver and Czech Technical University. Education: Ph.D., Mathematics and Computer Science, University of Denver (1997) M.S., Mathematics, University of Denver (1996) M.S., Computer Science, Czech Technical University (1987) M.S., Computer Engineering, Czech Technical University (1987) Research Interests: Bartos specializes in communication protocol design, precision clock synchronization, mobile video delivery, and underwater communication systems. Notable projects include work on disconnected network protocols for cyber-physical systems, HTTP video streaming optimization, and collaboration with the Autonomous Undersea Systems Institute. Grants & Collaborations: Funded by the National Institute of Standards and Technology (NIST), U.S. Office of Naval Research (ONR), Cisco Systems, and others. His underwater communications work involves partnerships with institutions like Rensselaer Polytechnic Institute and the Naval Undersea Warfare Center. Labs/Teams: Involved with the Autonomous Undersea Vehicle Applications Center and interdisciplinary collaborations on networked systems and optical networking.

• Dependable Computing Systems
• Network-on-Chip (NoC) Design
• Fault Tolerance
• +5 more

Gert Jervan is a Tenured Full Professor in the Department of Computer Systems at the School of Information Technologies , Tallinn University of Technology. He also serves as the Dean of the School of Information Technologies . His research focuses on dependable computing systems, network-on-chip (NoC) architectures, fault tolerance mechanisms, and embedded systems security. He has contributed to advancements in optical communication networks, wearable health monitoring systems, and hardware verification methodologies. Key areas of expertise include: Dependable system design Fault-tolerant routing in NoC-based systems Optical spectrum service characterization Real-time wearable sensor systems Hardware-software co-verification Recent research emphasizes: Edge computing and UAV-based object detection for rescue operations Optimization of optical spectrum allocation in long-haul networks Development of automated assertion mining techniques Biometric fatigue assessment using wearable sensors He leads the Centre for Dependable Computing Systems , fostering interdisciplinary research in secure embedded systems and network reliability. His work integrates systems engineering principles with cutting-edge technologies to address challenges in both academic and industrial domains.

Mark Ammar RayesView profile

Adjunct Professor

• Internet of Things
• Computer Networks
• Artificial Intelligence
• +3 more

Dr. Mark Ammar Rayes is an Adjunct Professor at San José State University's School of Engineering, specializing in IoT, networking, and AI/ML. With over 20 years of industry experience at Cisco and Bell Labs, he bridges academic and practical expertise. He holds a Ph.D. in Electrical & Computer Engineering from Washington University and multiple master's degrees. Research interests include cybersecurity, enterprise platforms, and GPU programming. He authored 200+ publications and 50+ patents, contributing to IEEE journals as editor-in-chief. Current roles include founding president of ISSIP and editorial boards for IEEE Blockchain and ACM Internet Technology journals. Articles focus on network security, telecommunications, and optical network optimization.