Roberto Proietti is an Associate Professor at the Department of Electronics and Telecommunications (DET) at Politecnico di Torino. He is a member of the PhotoNext Interdepartmental Center for Applied Photonics and coordinates the Laurea degree program in Electronic and Communications Engineering. His research focuses on optical networks , optical switching , silicon photonics , and quantum networking , with applications in machine learning-driven environmental sensing and smart infrastructure . He has led projects like Performance Tradeoff Studies of Copropagating QKD and Classical Signals in WDM Optical Networks (Scientific Director, 2023-2024) and contributes to SDG Goals 9 (Industry & Innovation) and 11 (Sustainable Cities). He advises PhD students Andrea Rosso and Hasan Awad. His teaching includes Quantum Communications and Networks , Optical Fiber Communications , and Open Optical Networks across multiple degree programs, including Electrical, Communications, and Quantum Engineering. Email: roberto.proietti@polito.it Phone: +39 0110904126 Projects: Quantum Wrapper Networking, Machine Learning for Earthquake Detection
Kenneth Dahl Knudsen is an Adjunct Professor in the Department of Interdisciplinary Physics at the Norwegian University of Science and Technology (NTNU). His research focuses on soft condensed matter, polymers, biopolymers, and the application of neutron and X-ray scattering techniques for materials characterization. He received his MSc in applied physics from NTNU in 1985 and his PhD in biophysics from NTNU in 1990. Following his doctoral studies, he completed postdoctoral appointments at NTNU, the University of Murcia, and ESRF-Grenoble. Professor Knudsen's primary research interests lie in soft condensed matter physics, with particular expertise in polymers and biopolymers. He specializes in neutron and X-ray methods, particularly small-angle scattering techniques, which he applies to study complex materials systems. His work bridges fundamental physics with practical applications in materials science, energy, and environmental technologies. Analysis of his recent publications (2021-2025) reveals a strong focus on clay minerals, CO2 capture materials, thermoresponsive polymers, and advanced characterization techniques. His research spans multiple disciplines including materials science, environmental science, polymer physics, and energy storage. Key themes include nanoconfinement effects, intercalation phenomena, and the development of novel materials for sustainable technologies. Scientific Awards: CAS Fellow at the Norwegian Academy of Science and Letters (2011) Professor Knudsen has held significant leadership roles in the neutron science community, including Chairman of the Norwegian Neutron Scattering Association (2004-2015) and Member of the Science Advisory Committee for the European Spallation Source (2010-2015). He is associated with the Soft and Complex Matter Lab at NTNU, where his team conducts research on soft materials using advanced scattering techniques. His work often involves international collaborations and has practical applications in energy, environmental technologies, and biomaterials.
Mustafa Gökhan UZGÖREN is a Professor in the Department of Electrical and Electronics Engineering at Beykent University. He holds a distinguished academic career with previous appointments as Professor at Istanbul Ayvansaray University, Gedik University, Istanbul Cultural University, Kadir Has University, and Istanbul University. His administrative roles include Department Head, Vice Rector, and Dean across these institutions. His educational background includes a Doctorate (1982), Master's (1977), and Bachelor's (1975) in Electrical Engineering from Istanbul Technical University. UZGÖREN's research focuses on electromagnetic theory , wave diffraction , and scattering phenomena . His work spans analytical methods in wave interactions with complex surfaces, antenna design, and high-frequency electromagnetic modeling. Key areas include dielectric interfaces, impedance boundaries, and curved structures. His publications (1984–2010) predominantly explore wave diffraction mechanics, scattering at discontinuities, and electromagnetic boundary problems, with consistent applications in antenna technology and waveguide systems. Students Advised: 9 graduate theses supervised (1994–2005), including research on 3D object modeling, network security, diffraction theory, and circuit design. He maintains an IEEE membership since 1979 and has authored/co-authored 15+ textbooks on electromagnetic fields, antenna theory, and mathematical methods in engineering.
Michał Piłat serves as an Assistant Professor at Gdańsk University of Technology in the Institute of Physics and Applied Informatics within the Faculty of Applied Physics and Mathematics. His research spans multiple areas of theoretical and computational physics with a focus on quantum mechanical phenomena. Dr. Piłat's research interests concentrate on relativistic electron-atom scattering phenomena, quantum probabilities, and the application of non-Newtonian calculus to physical systems. His work bridges theoretical physics with computational methods, particularly in analyzing electron interactions with atoms and developing mathematical frameworks for quantum phenomena. He has made significant contributions to understanding scattering processes at low energies and reformulating quantum probabilities using alternative mathematical approaches. His recent publications (2024-2025) demonstrate a consistent focus on relativistic quantum mechanics, particularly in electron-atom scattering processes. The research shows a progression from theoretical foundations to computational implementations, with applications to noble gas elements. His work on non-Newtonian calculus represents an innovative approach to reformulating quantum probabilities across different spin states. Dr. Piłat has developed computational tools like the GRASPC package, which extends the capabilities of existing quantum mechanical software for calculating continuum orbitals and electron scattering phenomena. His methodological contributions include novel approaches to calculating scattering lengths using both phase shift analysis and wave function examination at zero energy thresholds.
Hanna Isaksson is a Professor in Biomedical Engineering at Lund University and a LINXS Fellow, actively serving on the IPDD Working Group 3 and Imaging Working Group. Her research specializes in bone biomechanics and mechanobiology, with primary focus on functional imaging and material characterization of musculoskeletal tissues including bone and tendons. She investigates damage and fracture mechanisms using synchrotron-based techniques such as X-ray tomography, scattering, and spectroscopy to establish relationships between mechanical performance, structural organization, and tissue composition across multiple length scales from whole organs to molecular building blocks. At LINXS, she contributes to interdisciplinary initiatives that integrate advanced neutron and X-ray methodologies for biomedical and materials science applications, particularly within the Imaging and Integrative Pharmacology domains.
Anders Virtanen is a Professor at Uppsala University's Department of Cell and Molecular Biology and the Uppsala RNA Research Centre (URRC). His work focuses on mRNA processing mechanisms, particularly poly(A)-specific ribonuclease (PARN) function, RNA-protein interactions, and genetic disorders linked to RNA metabolism. Affiliated with both the Department of Cell and Molecular Biology and Microbiology and Immunology, Virtanen maintains active research in molecular biology and RNA regulation. His research spans RNA biology , gene regulation , and genetic disorders , with emphasis on PARN's role in mRNA deadenylation, cap recognition, and telomere maintenance. Recent work explores disease mechanisms in bone marrow failure syndromes and developmental delays caused by PARN mutations. His group investigates how RNA-processing enzymes interact with mRNA structures and how dysregulation leads to pathological conditions. Analysis of his recent publications reveals a strong focus on mRNA 5' cap recognition , poly(A) tail dynamics , and disease-linked RNA processing defects . His work bridges structural biology, enzymology, and clinical genetics, particularly in telomere biology and hematopoietic disorders. Key themes include PARN's allosteric regulation, processivity in deadenylation, and cross-talk between RNA metabolism and DNA damage response pathways. Virtanen leads research at the Uppsala RNA Research Centre, contributing to understanding fundamental RNA-processing mechanisms with implications for genetic diseases. His work has been referenced in multiple patents and cited across biomedical literature, including Wikipedia pages related to RNA metabolism and genetic disorders.
Jari Kinaret is a Full Professor in the Condensed Matter and Materials Theory group within the Department of Microtechnology and Nanoscience at Chalmers University of Technology, Sweden. His research spans condensed matter physics with particular emphasis on graphene-based nanomaterials and nanoelectromechanical systems. Professor Kinaret's research focuses on the fundamental physics of two-dimensional materials, particularly graphene and carbon nanotubes. His work explores plasmonic phenomena in graphene nanostructures, electromechanical properties of carbon-based nanomaterials, and quantum transport in low-dimensional systems. His research program integrates theoretical modeling with experimental validation to understand the unique electronic, optical, and mechanical properties of nanoscale carbon structures. The analysis of his 15 most recent publications reveals a consistent research trajectory centered on graphene plasmonics, with particular attention to nonlocal effects, edge magnetoplasmons, and practical applications in sensing and optical devices. His work demonstrates strong international collaboration, frequently appearing in high-impact journals like Physical Review B and Nano Letters. Professor Kinaret has been instrumental in several major research initiatives, most notably serving as principal investigator or key participant in multiple phases of the Graphene Flagship project funded by the European Commission. His projects span from fundamental theoretical investigations to applied research with potential technological impact. His research group maintains strong connections with other leading graphene research centers across Europe, contributing to the development of graphene-based technologies for electronics, photonics, and sensing applications. The group's work bridges theoretical physics with practical device engineering, creating a unique interdisciplinary research environment.
Thomas Engelhardt is a Researcher and PhD student at the Computer Graphics Group of the Karlsruhe Institute of Technology (KIT) , Germany. His work focuses on real-time rendering techniques, including global illumination, participating media, and visibility culling. Research Interests: Interactive 3D graphics High-quality lighting simulation GPU-based rendering algorithms Occlusion culling and visibility optimization Participating media rendering Environment mapping techniques Publications demonstrate expertise in virtual point lights, epipolar sampling, hierarchical buffers, and scalable final gathering for global illumination.
Professor R. Vijaya is a distinguished faculty member in the Department of Physics at the Indian Institute of Technology Kanpur, specializing in Photonics. Previously, she served as a faculty member at IIT Bombay from 1997 to 2011 before joining IIT Kanpur. Her research spans multiple areas of optical science and technology. Professor Vijaya completed her PhD and M.Sc. at IIT Madras, following her B.Sc. at Meenakshi College, Madras. Her academic journey has positioned her as a leading researcher in photonics and related optical technologies. Her research focuses on Photonics, Nonlinear Optics, Fiber Optics, Photonic crystals, and Optical Nanostructures. Professor Vijaya's work explores the fundamental properties and applications of light in various media, with particular emphasis on developing novel optical devices and understanding light-matter interactions at the nanoscale. Her research bridges theoretical understanding with practical applications in optical communications and sensing technologies. Analysis of Professor Vijaya's recent publications reveals a strong focus on fiber lasers, photonic crystals, and nanostructures. Her work demonstrates expertise in both theoretical modeling and experimental implementation, with particular attention to nonlinear phenomena in optical systems and the development of novel photonic devices with enhanced functionality. SPIE Visiting Lecturer (2006 – ongoing) Multiple best thesis/paper/poster awards received by group members Professor Vijaya actively mentors PhD students including Ummer K.V., Suchita, Govind Kumar, Arpita Haldar, and Pratyasha Sahani. Her research group has produced significant contributions to the field of photonics, with publications in high-impact journals including Journal of the Optical Society of America, Applied Physics B, and Nanophotonics. Her research group maintains strong connections with professional societies including the Optical Society of America, SPIE, and IEEE, where she holds senior membership. These affiliations facilitate collaborative research and provide students with opportunities to present their work at international conferences.
Chinedum O. Osuji is the Eduardo D. Glandt Presidential Professor and Department Chair of Chemical and Biomolecular Engineering at the University of Pennsylvania's School of Engineering and Applied Science. He also holds a secondary appointment in Materials Science and Engineering. His research integrates multiple disciplines to advance fundamental understanding of soft matter while addressing critical challenges in water purification, energy generation, and advanced materials development. Professor Osuji's research spans several interconnected areas including soft matter physics, complex fluids, directed self-assembly, and nanostructured membranes. His lab investigates how external fields (magnetic, electric, optical) can control the spatiotemporal structuring of self-assembled soft materials, with particular focus on liquid crystals, block copolymers, and nanocomposites. A significant thrust of his work involves developing autonomous experimentation platforms to accelerate soft materials discovery, particularly through the Soft-AE system that integrates machine learning with high-throughput characterization. Analysis of his recent publications reveals a strong focus on membrane science for separation applications, with particular emphasis on precisely engineered nanoporous structures at the sub-1 nm scale. His work bridges fundamental soft matter physics with practical applications in water purification, energy storage, and responsive materials. The research consistently demonstrates how controlling nanoscale structure through directed self-assembly leads to enhanced macroscopic properties. Osuji has been recognized with the prestigious Eduardo D. Glandt Presidential Professorship, highlighting his significant contributions to engineering and materials science. His research has been published in top-tier journals including Nature Materials , Science Advances , ACS Nano , and Proceedings of the National Academy of Sciences . Professor Osuji maintains an active research group with numerous PhD students, postdoctoral researchers, and collaborators across multiple research thrusts. His lab is organized into specialized subgroups focusing on Autonomous Experimentation, Directed Self-Assembly, Membrane Separations, and Complex Fluids. This structure enables deep expertise in specific areas while facilitating cross-pollination of ideas between research domains. The Osuji Lab operates from facilities in Towne Hall (office) and the Moore building (research space), with equipment supporting advanced materials characterization including microscopy, scattering techniques, and rheological measurements. The lab's collaborative approach extends to partnerships with other Penn researchers and external institutions, particularly in advancing membrane technologies for water purification and energy applications.
Hanna Jonasson is a Lecturer at Linköping University's Department of Medical Technology (IMT), where she conducts research focused on microcirculation and optical techniques to measure skin microcirculation. Her work aims to understand the role of microcirculation in disease development and the complex relationship between large and small vessel function. Dr. Jonasson's primary research interest lies in biomedical optics, specifically using light-based techniques to non-invasively measure parameters in the microcirculation such as blood flow, blood volume, and oxygen saturation. Her work investigates how changes in skin microcirculation may reflect the function of all small vessels in the body and how these changes relate to cardiovascular diseases, diabetes, and other conditions. She is particularly interested in developing better individualized risk assessment for cardiovascular disease through microcirculatory measurements. Her recent publications demonstrate a strong focus on microcirculation measurement techniques, cardiovascular risk assessment, skin optics, and biomedical education. The research spans from fundamental optical techniques development to clinical applications, with significant work on the SCAPIS study examining microvascular function in a Swedish middle-aged cohort. Her work combines optical engineering with physiological understanding to develop non-invasive diagnostic tools. Dr. Jonasson is actively involved in biomedical engineering education, having developed interactive remote laboratory modules for electrical safety training. Her research group is part of the Biomedical Optics research area at Linköping University, which is an emerging field using light and electromagnetic energy to understand cellular and tissue structures in living organisms. She collaborates extensively with researchers across multiple institutions, as evidenced by her numerous co-authored publications, particularly within the SCAPIS Micro project which explores links between impaired microcirculation and cardiovascular diseases using new optical techniques.
Professor Jaroslaw Nowak is a faculty member in the Department of Physics at Lancaster University. He serves as Chair of the Nuclear & Particle Physics Theme Group and actively coordinates and teaches multiple advanced physics modules including Phys311 (Particle Physics) and Phys133 (IT Skills - LaTeX). As a leading figure in neutrino physics, he contributes to detector development and simulation software. Phys311 (Particle Physics) - Coordinator/Instructor Phys133 (IT Skills - LaTeX) - Coordinator/Instructor Phys450 (MPhys projects) - Report Moderator His research program focuses on experimental particle physics with particular emphasis on neutrino interactions, dark matter detection, and liquid argon detector technology. Key areas include resonance excitations, hyperon production, and nuclear effects in neutrino scattering. He leads the NuWro generator development and contributes to GENIE and NUANCE neutrino simulation frameworks. Recent publications highlight his work on neutrino cross-section measurements (MicroBooNE, DUNE), detector calibration (DarkSide-20k), and software development (ProtoDUNE-SP algorithms). His team investigates supernova neutrino detection capabilities and MeV-scale sensitivity in LArTPCs, while maintaining active participation in the DUNE, SBND, and MicroBooNE collaborations. Professor Nowak supervises PhD candidates including Krittika Adhikari and Bethany McCusker, while previous students like Dr. Christophe Thorpe and Dr. Adam Lister have completed neutrino interaction studies. His research receives support from STFC and MSCA grants, including DUNE-related projects and DarkSide travel funding.
George Jones serves as a Senior Lecturer in the Department of Physics at the University of Northern British Columbia (UNBC), holding a PhD from the University of Windsor. His academic career spans multiple institutions including Brandon University, University of Windsor, Bishop's University, University of New Brunswick (Saint John), West Virginia University, and University of the Virgin Islands (St. Croix), reflecting extensive teaching experience across North America. His educational foundation includes doctoral research applying abstract algebra to special and general relativity at the University of Windsor. This mathematical approach has profoundly shaped his scholarly trajectory. Dr. Jones' research program centers on cosmology and general relativity , with significant contributions to black hole physics and mathematical structures in foundational theories . He has recently expanded into quantum field theory and elementary particle physics , driven by fascination with early universe cosmology where thermal physics, relativity, and quantum phenomena converge. His methodological signature involves leveraging advanced algebraic frameworks to solve complex physical problems. His publication timeline from 1988 to 2019 reveals an intellectual evolution from algebraic formulations of relativity (Pauli/Clifford algebras, spinor theory) toward quantum molecular systems. This progression demonstrates sustained engagement with mathematical physics while adapting to emerging questions in quantum dynamics, unified by rigorous structural analysis. Available as a media expert in cosmology and relativity, Dr. Jones actively supervises students at UNBC though specific advisee details remain unpublicized. His laboratory instruction role complements theoretical research, creating synergies between experimental and conceptual physics education.
Professor Tom Lancaster holds a prominent position in the Department of Physics at Durham University, serving as both Professor and Deputy Head of Department. He also represents Physics in the Institute of Medieval and Early Modern Studies. His research employs advanced techniques to investigate fundamental phenomena in condensed matter systems, with particular expertise in using muons as microscopic probes of magnetic properties. Professor in the Department of Physics, Durham University Deputy Head of Department, Durham University Department Rep (Physics), Institute of Medieval and Early Modern Studies Lancaster's research spans multiple frontiers of condensed matter physics. He specializes in muon spectroscopy to study collective states of matter including magnets, superconductors, and magnetic glasses. His work explores excitations such as spin waves and vortices across scales from quantum mechanical interactions to polymer chain dynamics. Key focus areas include low-dimensional magnetism in molecular systems, frustrated magnets seeking spin liquid states, and unconventional superconductors where magnetism and superconductivity coexist. His research leverages major international facilities including the ISIS neutron and muon source in the UK and the Swiss Muon Source at the Paul Scherrer Institut. His recent publication record reveals a strong trajectory in topological magnetic phenomena, particularly skyrmions and quantum spin liquids. The work demonstrates sophisticated integration of experimental muon spectroscopy with computational methods and theoretical frameworks. His research frequently addresses complex magnetic phase diagrams, dimensional effects in quantum magnets, and the interplay between crystal structure and magnetic properties in novel materials. 2020: President of the International Society for Muon Spectroscopy Professor Lancaster mentors graduate students including Nathan Bentley and Samuel Ladd. He has made significant scholarly contributions through textbooks including 'Muon Spectroscopy: an introduction' (Oxford University Press, 2021), 'General Relativity for the Gifted Amateur' (2025), and 'Quantum Field Theory for the Gifted Amateur' (2014). His research program benefits from access to world-leading facilities and maintains active international collaborations across the muon spectroscopy community. As a key member of Durham University's Muon group, Lancaster contributes to a vibrant research ecosystem focused on applying muon techniques to cutting-edge problems in quantum materials. His work bridges experimental investigation with theoretical understanding, particularly in the areas of quantum magnetism and topological phenomena, maintaining strong connections with both particle physics facilities and condensed matter theory.
Sarah Finkeldei serves as an Assistant Professor with joint appointments in the Department of Chemistry and the Department of Materials Science and Engineering at the University of California, Irvine. Her research is primarily housed within the Samueli School of Engineering, focusing on critical materials challenges related to nuclear energy systems and waste management. Dr. Finkeldei's research interests center on nuclear materials science, particularly the behavior of materials in extreme environments relevant to nuclear waste disposal. Her work spans multiple critical areas including corrosion science of waste package materials, development of advanced ceramic waste forms, pyrochlore and fluorite structure materials, sol-gel synthesis techniques for nuclear materials, and fundamental understanding of grain boundary phenomena in nuclear fuels. She investigates materials for deep geological repositories, focusing on long-term stability and performance under repository conditions. Nuclear waste form development and characterization Corrosion mechanisms in multi-material systems Advanced ceramics for radioactive waste immobilization Sol-gel processing of nuclear materials Grain boundary effects in nuclear fuels Materials behavior in extreme environments Analysis of Dr. Finkeldei's recent publication record (2023-2025) reveals a strong focus on practical solutions for nuclear waste management challenges. Her work demonstrates expertise in both fundamental materials science and applied engineering solutions, with particular emphasis on corrosion phenomena in repository environments, advanced ceramic synthesis techniques, and the behavior of complex oxides under irradiation. The research shows a clear trajectory toward addressing immediate challenges in nuclear waste disposal while developing next-generation materials solutions. Dr. Finkeldei maintains an active research program focused on nuclear materials challenges, with recent publications reflecting significant contributions to the field of nuclear waste management and materials science for extreme environments.
