Leen Pollefliet is an academic communication specialist at Ghent University's Faculty of Engineering and Architecture , specifically within the Department of Information Technology . With a 1985 Master of Languages (magna cum laude) from Ghent University, she has been teaching engineering students since 1988, developing a comprehensive communication learning pathway for bachelor's to master's level curricula. Specializes in academic writing and oral communication Authored 8+ educational handbooks since 2009 Focus on practical skills: thesis writing, presentations, job applications Created QR-code-based interactive learning tools for digital teaching Her research focuses on professional communication challenges in engineering education, particularly: Structural integrity in technical documents Modern APA referencing practices Effective academic poster design Business presentation techniques Writing process optimization Language education for STEM students Key publication trends show sustained focus on engineering communication since 2009, with 2024 conference paper "Connecterend presenteren" emphasizing audience engagement strategies. Her 2022 book "Scoring with Your Thesis" integrates digital learning materials through QR codes. Notable contributions include: 2024 Conference Paper on Presentation Techniques 2022 Thesis Writing Handbook 2016 8th Edition Communication Guide
Dr. Scott R. Graham is the Dean for Research and Professor of Computer Engineering at the Air Force Institute of Technology . He earned his Ph.D. in Electrical Engineering from the University of Illinois at Urbana-Champaign (2004), M.S. in Electrical Engineering from AFIT (1999), and B.S. in Electrical Engineering from Brigham Young University (1993). Senior Member, IEEE (2011) Recipient of multiple awards including AETC Outstanding Scientist/Engineer (2022), AFIT Advising & Mentoring Award (2020), and AF Science & Engineering Team Awards (2010-2011) Active researcher in cyber physical systems security with 30+ peer-reviewed publications His research focuses on cyber physical systems security , computer architecture , and embedded computing . Key areas include hardware security, networked control systems, and security by design principles. Recent work examines microarchitectural monitoring for task identification, ransomware mitigation in critical infrastructure, and secure communication protocols for autonomous systems. Publications reveal trends in cybersecurity (20+ papers), embedded systems (10+ papers), and network security (15+ papers). Common subfields include hardware vulnerability analysis, RISC-V security, UAV threat modeling, and networked control system resilience. Scientific achievements include: Tau Beta Pi (1998) and Eta Kappa Nu (1998) honors IEEE Senior Member (2011) Air Force and AETC awards for research excellence Dr. Graham has advised numerous students, evident from 25+ publications with * (Master's) and ^ (PhD) student co-authors. His work impacts unmanned aerial vehicle security , smart grid protection , and cyber-physical system resilience across defense applications.
Matteo Lisi is a Lecturer in the Department of Psychology at Royal Holloway University of London. His research examines how humans process uncertainty in decision-making across perceptual, financial, and medical contexts, combining behavioral experiments with computational modeling. He actively shares code and data on GitHub and OSF. Role: Lecturer in Psychology Institution: Royal Holloway University of London Research Focus: Visual perception, interoception, and uncertainty computation Research Outputs: His recent work includes studying error correction in diverse populations, mapping visual contrast sensitivity with fMRI, and analyzing cardiac interoception in infants. Articles explore motion perception extrapolation, visual hallucinations from Ganzflicker, and prior knowledge effects in childhood vision development. Collaborative Projects: Currently involved in an MRC-funded study on sex differences in interoception and mental health across the menstrual cycle, alongside Dr. James Shinskey and others.
Atousa Hajshirmohammadi serves as a Senior Lecturer at Simon Fraser University's School of Engineering Science, where she has taught since 2004 after returning from industry experience at LSI Logic Inc. in Silicon Valley. Her academic journey includes B.Sc. and M.Sc. degrees in Electrical and Computer Engineering from Isfahan University of Technology and a Ph.D. in Communications Engineering from the University of Waterloo. Her research spans two primary domains: technical communications and engineering pedagogy. In digital communications, she focused on multimedia transmission, cognitive radio networks, and unequal error protection until approximately 2015. Her pedagogical research, which dominates recent work, investigates experiential learning, student wellbeing, time management strategies, and innovative teaching methods in engineering education. Her publication trend shows a clear shift from wireless communications research (2000-2015) to educational scholarship (2015-present), with significant contributions to IEEE Communications Magazine and Frontiers in Education conferences. Supported by multiple SFU Teaching and Learning Development Grants, she has developed tangible lab assignments, interactive online quizzes, and wellbeing-focused learning environments. Her outreach includes workshops like the Insect-Robot program for K-7 students and collaborations with SFU's Health Promotion unit. While her technical research involved graduate students, her primary role as teaching faculty emphasizes curriculum innovation rather than traditional graduate supervision.
Lindsey Bosko-Dunbar is an Associate Professor of Mathematics at St. Norbert College, where she teaches courses ranging from foundational calculus to advanced algebra and financial mathematics. She actively organizes the annual PME Conference, fostering academic collaboration in mathematical education. B.S. in Mathematics Secondary Education from Elizabethtown College M.S. and Ph.D. in Mathematics from North Carolina State University Her research focuses on Leibniz and Lie algebras, exploring their structural relationships and applications in cryptography. She also mentors student projects in recreational mathematics and games, bridging theoretical concepts with practical engagement. Recent publications highlight her work on maximal subalgebras, nilradical structures, and Frattini theory in Leibniz algebras, alongside cryptographic applications. These contributions align with broader interests in algebraic systems and applied mathematical methods. Educator of the Year, Norbertine Leadership & Service Awards (2022) Bosko-Dunbar teaches core courses such as Calculus, Abstract Algebra, and Financial Mathematics, while integrating her research into student mentorship programs. She maintains active involvement in mathematical societies and academic outreach initiatives.
Diana Ilieva Radkova is an Assistant Professor in the Department of Algebra at the Faculty of Mathematics and Informatics, Sofia University. Her research focuses on coding theory with emphasis on algebraic structures of error-correcting codes. Education: PhD (Candidate of Mathematical Sciences) from Delft University of Technology, 2009 MSc (Master of Mathematics) from Sofia University "St. Kliment Ohridski", 2001 Research Focus: Dr. Radkova specializes in Coding Theory , particularly investigating cyclic codes, constacyclic codes, and their algebraic properties. Her work explores the relationship between coding theory and algebraic concepts such as invariant subspaces, finite fields, and matrix theory. She has conducted significant research on bounds for minimum distance in various code structures, with special attention to cases where field characteristic divides code length. Her research has practical applications in error detection and correction for reliable data transmission. Publication Analysis: Dr. Radkova's publications from 2007-2009 demonstrate a cohesive research trajectory in algebraic coding theory. Her work consistently examines cyclic and constacyclic codes through algebraic frameworks, particularly focusing on invariant subspaces. A major theme across her publications is establishing theoretical bounds for minimum distance in code structures, with specialized investigations into cases where field characteristic divides code length. Her collaborations with researchers from Delft University of Technology (particularly A.J. van Zanten) and Bulgarian colleagues (notably A. Bojilov) highlight international and domestic research partnerships. Teaching Responsibilities: Dr. Radkova teaches exercises in "Linear Algebra and Analytic Geometry" for various physics-related programs including Physics, Astronomy, Meteorology and Geophysics, Engineering Physics, and Nuclear Engineering and Energy. Her office hours are held Monday 13:00-15:00 and Tuesday 15:00-17:00 in room FzF-14 at the Faculty of Mathematics and Informatics.
Prof. Meir Ariel serves as a Professor in the School of Electrical Engineering at Tel Aviv University and heads the university's Space Engineering Center, an interdisciplinary hub for "new space" research focused on satellite development for scientific missions including cosmic radiation monitoring and hyperspectral environmental sensing. His academic foundation comprises a B.Sc., M.Sc. (with honors), and PhD in Electrical Engineering from Tel Aviv University, specializing in algebraic structures of codes and fast decoding methods. Prior industry experience spans communication systems, satellite technology, and computer vision across Israeli and international high-tech sectors. Research domains prominently feature: Space engineering and miniaturized satellite systems (e.g., Tevel2 nano-satellite swarm launched March 15, 2025) Quantum cryptography including post-quantum algebraic encryption and satellite-based quantum key distribution Advanced satellite communication under unstable SNR conditions Classical/quantum error-correcting codes with fast decoding algorithms Hyperspectral remote sensing for climate applications Optical communications and payload deployment technologies As director of the Space Engineering Center, he oversees active projects in cosmic radiation monitoring, hyperspectral imaging, automated ground stations, and quantum encryption, while supervising graduate students in space systems development and theoretical communications research.
Kazimierz Choroś is a Professor at the Department of Applied Informatics , Faculty of Information and Communication Technology , Wrocław University of Science and Technology. He held leadership roles as Deputy Director of the Institute of Informatics (2008-2014) and Deputy Dean of the Faculty of Computer Science and Management (2016-2020). Research interests: digital image/video processing, content-based video indexing, computer animations, multimedia systems, web systems analysis, and information systems design. Organizer and Chair of the International Conference on Multimedia & Network Information Systems (MISSI 2022) Chair of Special Session WebSys 2020 at ICCCI 2020 Other activities: Since 1993, member and former President (1993-2002) of the SAGE Association (Polish Graduates of French Grandes Ecoles). Since 1982, member of the Polish Numismatic Society, author of dozens of numismatic publications, and Editor-in-Chief of Wrocławskie Zapiski Numizmatyczne (2003-present). Contact: Email: kazimierz.choros@pwr.edu.pl Phone: +48-71.320.3799 Office: Building D2, Room 201/1 Address: Wrocław University of Science and Technology, Wyb. Wyspiańskiego 27, 50-370 Wrocław, Poland
Mohammadreza MOUSAVI-KALAN is an Assistant Professor of Statistics at CREST-ENSAI. Previously, he was a postdoctoral fellow in the Department of Statistics at Columbia University. He received his Ph.D. in Electrical Engineering from the University of Southern California (USC) and his B.Sc. from Sharif University of Technology. Dr. MOUSAVI-KALAN's research focuses on theoretical foundations at the intersection of statistics and distributed computing. His primary interests include statistical machine learning, transfer learning, optimization theory, and distributed computing systems. He investigates how to design efficient algorithms that can leverage knowledge across related tasks while providing rigorous theoretical guarantees for learning procedures. His work addresses fundamental questions about sample complexity, computational efficiency, and statistical performance in modern machine learning settings. His publication record reveals a clear research trajectory from foundational work on distributed optimization (2018-2019) toward specialized topics in transfer learning and statistical hypothesis testing (2020-2025). A consistent theme across his work is establishing theoretical limits (minimax bounds, rate analyses) for practical machine learning problems. His recent publications focus on outlier detection, Neyman-Pearson classification frameworks, and transfer learning theory, demonstrating evolution toward more specialized statistical learning problems with practical applications. Dr. MOUSAVI-KALAN has established strong collaborative ties with researchers at USC, including Mahdi Soltanolkotabi, Salman Avestimehr, and Songze Li. His most influential work includes the Lagrange coded computing framework for distributed systems, which addresses critical challenges in resiliency, security, and privacy. His research bridges theoretical computer science, statistical learning theory, and practical distributed systems challenges, with implications for secure and efficient large-scale machine learning applications.
OKAMOTO Eiji is a Professor at the Department of Electrical and Mechanical Engineering, School of Engineering, Nagoya Institute of Technology. His research focuses on quantum cryptography, satellite communications, wireless networks, 5G/6G technology, information security, and Sub-THz imaging. He has made significant contributions to the fields of quantum key distribution, non-terrestrial networks, and secure wireless communications. OKAMOTO received his Doctor of Informatics from Kyoto University in 2003, Master of Engineering in 1995, and Bachelor of Engineering in 1993, all from Kyoto University. Prior to his current position, he worked at the Communications Research Laboratory, Ministry of Posts and Telecommunications (1995-2002), NICT (2011-2013), and Simon Fraser University (2004). Professor OKAMOTO's research interests span multiple cutting-edge areas in communications technology. His work in quantum cryptography focuses on improving information reconciliation for continuous-variable quantum key distribution using polar codes and raptor codes. In satellite communications, he has conducted extensive research on non-terrestrial networks and optical satellite data relay systems. His contributions to wireless networks include developing low-latency communication techniques, advanced multiple access methods, and secure communication protocols. His recent work in Sub-THz imaging has led to innovations in hazardous material identification and complexity reduction methods. Analysis of his recent publications reveals a strong focus on quantum key distribution systems, with multiple papers addressing information reconciliation efficiency. There's also a significant emphasis on non-terrestrial networks for 6G applications, particularly leveraging LEO satellites and optical communications. His research bridges theoretical advances with practical implementations, as evidenced by numerous papers on experimental demonstrations and system implementations. Education Achievement Award from IEICE (2025) Best Paper Award from IEICE Communications Society (2024) Satellite Communication Research Award (2023) Activity Merit Award (Review Committee) (2022) Meritorious Service Award (Research Committee Chair) (2022) Excellent Teaching Award from Nagoya Institute of Technology (2022) IEICE ComEX Top Downloaded Letter Award (2022) IEICE Fellow (2022) Professor OKAMOTO actively mentors numerous graduate students, with recent research involving M1 and M2 students working on quantum cryptography, Sub-THz imaging, and non-terrestrial networks. His laboratory at Nagoya Institute of Technology has received funding for research on quantum cryptography communication (2019), autonomous driving (2014), sensor networks (2009), and optical satellite communication (2008). He has served as a committee member for numerous academic societies including IEEE and IEICE. Professor OKAMOTO leads the Eiji Okamoto Laboratory at Nagoya Institute of Technology, which focuses on creating next-generation mobile and satellite communication systems. The laboratory aims to cultivate independent thinking engineers while developing new wireless (and wired) communication methods to realize a safer, more secure, and more convenient super-smart society. Current research projects include quantum cryptography, Sub-THz imaging for security applications, non-terrestrial networks for 6G, and low-latency communication techniques for autonomous driving and V2X applications.
Marika Kieferova is a Senior Lecturer at the School of Computer Science, University of Technology Sydney (UTS), and a researcher at the UTS Centre for Quantum Software and Information (QSI). She previously held a postdoctoral position at UTS and earned her PhD in Physics and Astronomy from the University of Waterloo (2019) with a cotutelle from Macquarie University. Research Interests Her work spans quantum computing, quantum simulation, and quantum information theory. Key areas include developing quantum algorithms for Hamiltonian simulation, error mitigation strategies, and entanglement-induced optimization challenges in quantum neural networks. She explores non-Abelian anyon braiding, engineered dissipation for correlated states, and bound states of interacting photons in superconducting qubit arrays. Article Trends Her recent publications focus on quantum dynamics in many-body systems, error suppression techniques, and algorithmic advancements. Topics include phase transitions in random circuits, superdiffusive quantum transport, and randomized multi-product formulas for efficient simulation. These works highlight her contributions to quantum chemistry, topological quantum computing, and NISQ-era applications. Scientific Awards QIP Best Poster Award (2020) IQC Achievement Award (2019) Grants and Leadership She leads the QB-suite grant for quantum algorithm design (2024-2027) and contributes to defense quantum optimization projects (2021-2024). She serves as an associate editor for Quantum Science and Technology and participates in peer review for Physical Review A.
Shunsuke Horii is an Associate Professor at the Center for Data Science, Waseda University. His research spans information theory, coding theory, statistical learning theory, and data science applications. He actively collaborates with industry through initiatives like the Waseda Data Science Consortium. Education: Ph.D. in Science and Engineering from Waseda University (2009), Master's from Waseda University Graduate School of Science and Engineering (2004). Research Focus: Addresses causal effect estimation in data science using Bayesian decision theory, sparse modeling, and optimization techniques like ADMM and variational inference. Develops efficient algorithms for multiuser communication, matrix completion, and privacy-preserving distributed computing. Teaching: Instructs courses on statistics literacy, data science, and programming with Python/R across multiple academic quarters. Grants: Leads projects funded by Japan Society for the Promotion of Science, including causal inference frameworks, product recommendation systems, and business analytics. Publications: 21 papers with 61 Scopus citations, focusing on LP decoding, Bayesian hierarchical models, and statistical causal analysis.
Nathaniel Johnston is a researcher specializing in quantum information theory, combinatorics, and computational mathematics. He is the creator of QETLAB , a MATLAB toolbox for quantum entanglement, and the founder of ConwayLife.com , a major resource on cellular automata including the comprehensive LifeWiki. He also maintains StatDistributions.com and PlatPrices.com. His research spans: Quantum entanglement and quantum error correction Superpermutations and combinatorics on words Conway’s Game of Life and cellular automata Matrix norms and linear preserver problems Applications of linear algebra to puzzles like Lights Out Geometric optimization and calculus problems He produces educational math videos using Manim, covering advanced topics in an accessible format. His scholarly output includes significant contributions to open problems in mathematics and software tools widely used in the research community. He actively engages with users via GitHub and social media (Bluesky). Notable Projects: QETLAB : A MATLAB toolbox for quantum entanglement, actively developed and cited in research. ConwayLife.com / LifeWiki : The largest encyclopedia of Conway’s Game of Life patterns. StatDistributions.com : A tool for calculating p-values and test statistics. PlatPrices.com : A non-academic site tracking PlayStation game prices and trophies. Scientific Contributions: Disproved the minimal superpermutation conjecture. Developed algorithms for computing hard-to-compute matrix norms. Created accessible explanations of complex topics via video and interactive tools. While his current institutional affiliation is not stated, his body of work, software development, and scholarly communication confirm his status as an active academic researcher in applied and computational mathematics.
Laura Titolo is a Principal Research Scientist at Code Metal, where she applies formal methods to enhance the reliability of code transpilation for edge computing applications. Previously, she served as a Lead Research Scientist at NASA Langley Research Center, contributing to the NASA Formal Methods team in the Safety-Critical Avionics Systems Branch. She holds a Ph.D. in Computer Science from the University of Udine, Italy, where she also earned her BSc and MSc with full honors. Ph.D. in Computer Science, University of Udine, Italy (2014) MSc in Computer Science, University of Udine, Italy (2010) BSc in Computer Science, University of Udine, Italy (2008) Her research centers on formal methods, static analysis, abstract interpretation, and computational logic, with a focus on verifying floating-point programs and safety-critical systems. She has developed key tools such as PRECiSA for round-off error analysis and ReFlow for extracting verified floating-point C code from formal specifications. Her work ensures robustness in numerical computations essential for avionics and autonomous systems. The 15 most recent publications reflect a strong trend in formal verification of numerical software, particularly floating-point arithmetic in safety-critical domains like avionics. Her work integrates abstract interpretation, theorem proving (PVS), and static analysis to detect and correct numerical instabilities, ensure control flow correctness, and generate formally verified code. Applications span air traffic algorithms, geofencing, and autonomous flight monitoring. Scientific awards include: NASA Group Achievement Award (2021) for verifying the Compact Position Reporting Algorithm Laura Titolo actively contributes to the academic community through program committee roles and leadership. She has served as Program Co-Chair for SOAP 2022, General Chair for NFM 2025, and PC member for numerous conferences including POPL, CPP, VMCAI, SAS, and PLDI. She mentors junior researchers and collaborates extensively with teams at NASA and academic institutions. Her current work at Code Metal extends formal methods to transpiled code in edge computing, ensuring correctness in distributed and resource-constrained environments. She leads and contributes to several research projects: PRECiSA: Static analyzer for floating-point round-off errors with PVS proof certificates ReFlow: Tool for extracting floating-point C code from PVS real-number specifications VSCode-PRECiSA: Integration of PRECiSA into Visual Studio Code FRET Proof Framework: PVS formalization of FRETish requirements FPRoCK: Solver for mixed real and floating-point constraints
Professor Gary McGuire is a Full Professor in the School of Mathematics and Statistics at University College Dublin (UCD), specializing in discrete mathematics, number theory, algebraic geometry, and cryptography. He holds a PhD from the California Institute of Technology and has been a central figure in advancing research in finite fields and their applications. BSc, University College Dublin MSc, University College Dublin PhD, California Institute of Technology His research focuses on algebraic structures over finite fields, including Galois theory, permutation polynomials, error-correcting codes, and quantum codes. He has made significant contributions to the understanding of supersingular curves, L-polynomials, and lattice-based cryptanalysis. His work spans theoretical advances and practical applications in cryptography and computational mathematics. The recent publications reflect a strong trend in algebraic and computational number theory, with emphasis on Galois groups of linearized polynomials, quantum code construction, and discrete logarithm algorithms. His work often involves deep connections between algebraic geometry and coding theory, particularly in the construction of MDS and quantum codes from generalized monomial-Cartesian and algebraic geometry codes. Notable scientific awards and recognitions include: Best Paper Award at CRYPTO 2013 Invited Speaker at the 12th International Conference on Finite Fields (2015) Invited Speaker at the 25th British Combinatorial Conference (2015) Invited Session Speaker at the AAAS Annual Meeting (2014) Speaker at multiple international workshops on finite fields, cryptography, and polynomials Professor McGuire actively supervises PhD students and has coordinated key modules such as Galois Theory, Cryptography, and Numbers & Functions. He has secured research grants, including one on the simulation of photo-electronic excitation in nanofilms. His most famous contribution is the proof that no 16-clue Sudoku puzzle exists, achieved through a novel hitting set enumeration algorithm. He is a principal investigator in computational and theoretical mathematics with ongoing collaborations across Europe. He is a member of research teams focused on finite field applications, cryptographic protocols, and algebraic coding theory. His lab-like collaborative environment involves work with postdocs and researchers on projects related to discrete logarithm computation, polynomial factorization, and quantum code design.
