Dr. William Fitzgerald is a Lecturer in Probability at The University of Manchester, focusing on probability theory and mathematical physics models. His research includes random growth models, interacting particle systems, and random matrices. He holds a PhD from the University of Warwick (2019) and previously served as a Postdoctoral Research Fellow at the University of Sussex (2019–2021). Research interests span determinantal/Pfaffian point processes, non-colliding stochastic processes, and Brownian motion applications. His work combines rigorous mathematical analysis with probabilistic models from physics. Recent articles explore polynuclear growth dynamics, ordered exponential random walks, and Fredholm Pfaffians in interacting systems. He actively supervises PhD students and currently offers funded projects in probability theory. No scientific awards are explicitly mentioned in the profile. Academic history includes postdoctoral research at Sussex University and doctoral training at Warwick. Collaborations with researchers like Denisov, Tribe, and Zaboronski are evident in co-authored works. His research bridges theoretical probability with applications in particle systems and random matrix theory.
Mark Meckes is a Professor at Case Western Reserve University, affiliated with the Department of Mathematics, Applied Mathematics, and Statistics within the College of Arts and Sciences. His research focuses on Geometry of Metric Spaces and High-Dimensional Probability, with contributions to topics like metric magnitude, convex bodies, and random matrix theory. He is reachable via mark.meckes@case.edu . His research interests delve into the geometric and probabilistic structures of metric spaces, including intrinsic volumes, spectral analysis, and applications to quantum mechanics and ecology. Recent work explores extremal metric spaces, fluctuations in random matrix ensembles, and quenched limits in stochastic models. Publications since 2015 highlight trends in random matrix theory, geometric measure theory, and interdisciplinary applications. Notable topics include the circular law for complex Ginibre ensembles, self-similarity in unitary ensembles, and biodiversity optimization. No scientific awards are explicitly listed in the provided material. Advising and grant details are not specified, though his work suggests active participation in academic mentorship. No lab or team affiliations are noted here.
Riccardo Catena is a Professor in Physics at the Department of Physics, Chalmers University of Technology, Sweden. He leads a research group comprising 1 postdoc, 2 PhD students, and 1-4 master students annually. His academic credentials include a 2014 habilitation (venia legendi) from the University of Göttingen and promotion to docent at Chalmers in 2016. He is an elected member of the IUPAP C4 commission on Astroparticle Physics and a founding member of the European Consortium for Astroparticle Theory (EuCAPT). Research focuses on astroparticle physics, intersecting particle physics, astrophysics, and cosmology, with a current emphasis on dark matter. Key interests include modeling dark matter's microscopic properties, predicting observables, and designing experimental tests. His work is funded by the Swedish Research Council and the Knut and Alice Wallenberg Foundation (co-PI). Publications span dark matter detection strategies, material interactions, and theoretical frameworks. Notable projects include studies on graphene detectors, chiral phonons, and liquid xenon observatories. Grants support initiatives like 'Direct Detection of Light Dark Particles' and 'Computational Modeling of Dark Matter-Electron Interactions.' Catena's advisory role includes mentoring students and overseeing interdisciplinary collaborations. His research group actively explores experimental and theoretical advancements in dark matter physics, contributing to global efforts in astroparticle theory and detector innovation.
David E. Kaplan is a Professor of Physics and Astronomy at Johns Hopkins University, where he has been a faculty member since 2002. He holds a PhD from the University of Washington (1999) and completed postdoctoral research at the University of Chicago/Argonne National Lab and SLAC. His research focuses on theoretical extensions of the Standard Model of particle physics and cosmology, with emphasis on dark matter, axions, quantum gravity, and experimental probes of fundamental physics. Notably, he created and produced Particle Fever , a documentary film awarded the DuPont Journalism Award. Key research interests include exploring new physics beyond the Standard Model, such as models addressing the strong CP problem, probing dark matter interactions via atom interferometry and spin precession, and studying cosmological implications of gravitational theories. He is a Fellow of the American Physical Society (APS), a DOE Outstanding Junior Investigator, Kavli Frontiers Fellow, and Alfred P. Sloan Fellow. His work integrates theoretical frameworks with experimental efforts, such as collaborations at SQMS (Quantum Sensing) and proposals for next-generation experiments like GALILEO (Galactic axion laser interferometer). His recent articles address topics ranging from nonlinear quantum mechanics to gravitational wave detection and cosmological constant relaxation.
Orlin D. Velev is the S. Frank and Doris Culberson Distinguished Professor of Chemical Engineering at North Carolina State University (NC State), part of the College of Engineering. His research focuses on colloid science, soft materials engineering, nanotechnology, and sustainable nanocomposites. He leads the Velev Lab, pioneering innovations in self-propelling microdevices, environmentally benign nanomaterials, and responsive materials for energy and biomedical applications. Velev's academic journey includes a PhD in Physical Chemistry from Sofia University (1999), followed by M.S. and B.Tech degrees in Chemical Engineering from NC State. His work bridges chemistry, physics, and biology, with notable contributions to microfluidics, colloidal assembly, and battery technologies. He has supervised numerous graduate and undergraduate students, fostering interdisciplinary research and innovation. Key research areas include: Directed assembly of colloids using external fields Self-propelling microbots and active particles Sustainable biopolymer composites (e.g., lignin-based nanoparticles) Soft robotic components and smart materials Biodegradable electronics and energy storage solutions Honors include the Braskem Award, AIChE’s Andreas Acrivos Award, and multiple fellowships. His lab’s recent advancements include osmotic-capillary wearable patches for sweat analysis and high-performance lithium-sulfur battery separators using soft dendritic colloids. Velev collaborates extensively, with projects funded by NSF, industry partnerships, and federal grants. His work emphasizes translating fundamental science into real-world applications, such as biodegradable packaging, microplastic remediation, and wearable health monitoring devices.
Antonio Delgado is a Professor in the Department of Physics & Astronomy at the University of Notre Dame. His research focuses on the Higgs boson, particle physics, cosmology, dark matter, and dark energy. He collaborates closely with experimentalists to bridge theoretical insights with LHC discoveries. Education: B.Sc., Universidad Autónoma de Madrid (1997) Ph.D., Universidad Autónoma de Madrid (2001) Research Interests: Delgado's work explores the Higgs boson's role in mass generation and its connections to cosmological mysteries like dark matter and dark energy. He investigates supersymmetric models (SUSY) and their implications for particle physics, including gluinos, sneutrinos, and stop particles. His theoretical frameworks guide experimental searches at the LHC. Publications: His recent work addresses compressed SUSY scenarios, light stop windows, and sneutrino rescues in SUSY models, reflecting a focus on precision LHC physics and dark matter candidates. Experimental collaboration is central to his approach. Grants & Labs: While specific grants aren't listed, his research aligns with LHC collaborations and particle theory initiatives. No dedicated lab teams are mentioned in the text.
Alan Lindsay is an Associate Professor in the Department of Applied and Computational Mathematics and Statistics (ACMS) at the University of Notre Dame, within the College of Science. He holds a Ph.D. from the University of British Columbia (2010) and a B.S. from the University of Edinburgh (2005). His research focuses on computational and analytical methods for partial differential equations (PDEs) modeling physical and biological systems, including Micro-Electromechanical Systems (MEMS), mathematical ecology, imaging, and inverse problems. His email is a.lindsay@nd.edu, and he is based in Crowley Hall. Education: Ph.D., Applied Mathematics, University of British Columbia, 2010 B.S., Mathematics, University of Edinburgh, 2005 Research Interests: Applied Partial Differential Equations Numerical Methods for PDEs Mathematical Biology and Biophysics Scientific Computing and Simulation MEMS and Micro-Electromechanical Systems Mathematical Modeling of Biological Processes Recent Research Trends: Lindsay’s work emphasizes computational techniques like boundary integral methods, kinetic Monte Carlo simulations, and bifurcation analysis to study diffusion processes, first passage times, and pattern formation in biological and physical systems. His studies bridge theoretical analysis and practical applications, such as optimizing T cell antigen recognition and modeling moth mating strategies. Grants & Advising: While no students are listed, his research is supported by grants in computational mathematics and biological modeling. His work often involves interdisciplinary collaborations with biologists and engineers. Labs/Teams: His research is conducted within the ACMS department, leveraging Notre Dame’s computational infrastructure.
Francesco Sannino is a Professor of Computational Science at the University of Southern Denmark's Department of Mathematics and Computer Science. He is affiliated with the Danish Institute for Advanced Study (DIAS) and holds a Ph.D. His research spans quantum field theory, particle physics, and complex systems modeling. Key interests include Standard Model duality, black hole physics, and epidemiological dynamics. Education: Ph.D. in Physics (not explicitly stated in provided text, inferred from title). Research focuses on theoretical physics, including conformal field theories, gauge dynamics, and applications of quantum chromodynamics (QCD). Recent work addresses black hole metrics, pandemic modeling via renormalization group methods, and composite dark matter signatures. His studies often bridge high-energy physics and complex systems. Main Research Trends: Over 15 years, Sannino has produced 333+ publications, emphasizing: Black hole physics and effective metrics Standard Model extensions and dualities Quantum field theory at conformal windows Epidemiological modeling of pandemics Awards: Elected Member of the Finnish Academy of Science and Letters (2015) EU Excellence Grant in Theoretical Physics (2005) International Referee for Austrian Science Fund Grants & Projects: Leader of the DG Center for Particle Physics Phenomenology (2014–2019) Carlsberg Foundation Semper Ardens grant (2023–2029) Coordinator for Danish CERN Instrument Center (2017–2019) Labs/Teams: Active in CP³ - Center for Particle Physics Phenomenology and DIAS, collaborating globally on projects like gravitational wave detection and pandemic modeling.
Anna Stasto is a Professor of Physics at the Department of Physics, Eberly College of Science, The Pennsylvania State University. Her research focuses on particle physics, particularly theoretical studies in quantum chromodynamics (QCD), high-energy scattering processes, and collider phenomenology. She has contributed to understanding diffraction mechanisms, parton distribution functions, and small-x QCD dynamics. Education includes a Master's from Jagiellonian University (1996), a joint PhD in Theoretical Physics from the Polish Academy of Science and University of Durham (1999), and habilitation from the Polish Academy of Science (2005). She has held prestigious awards such as the Sloan Research Fellowship (2009–2013) and the H. Niewodniczański Prize (1999). Her recent publications explore gluodynamics, electron-ion collider physics, and forward neutrino production at the LHC. Research trends emphasize precision calculations of partonic structures, renormalization group techniques, and high-energy scattering dynamics. Stasto collaborates extensively on experimental programs including the Electron-Ion Collider and LHC. Her work bridges theoretical frameworks with experimental data to advance QCD understanding.
Professor Runming Yao is a leading academic in building and urban sustainability at the University of Reading's School of Construction Management and Engineering. He holds roles as Director of Design and Management of Sustainable Built Environments and Module Convenor for Sustainable Design and Management Principles. His research focuses on energy efficiency, urban microclimates, indoor environmental quality, and thermal comfort, with particular emphasis on UK and China contexts. Yao is an EPSRC College member and serves on editorial boards for journals like the Journal of Building Engineering and Renewable Energy . He has led numerous high-impact projects funded by bodies like the European Commission, EPSRC, and the Chinese government, addressing topics such as low-carbon cities, green building technologies, and climate-resilient urban design. His professional memberships include Fellowships of CIBSE, the Chartered Institute of Building, and FHEA. Yao’s work bridges engineering, policy, and environmental science, with contributions to international standards and guidelines for sustainable construction. Education and Qualifications: BSc, MSc, PhD Research Interests: Yao’s research integrates technical innovation with societal needs, exploring: - Energy-efficient building systems and urban-scale simulations, - Impact of climate change on building design, - Sensor technology for smart building management, - Health implications of indoor/outdoor environmental quality. His work emphasizes cross-disciplinary solutions for sustainable urban development and climate resilience. Projects and Grants: Recent initiatives include: - LoHCool (EPSRC-funded low-carbon heating/cooling of cities), - REELCOOP (EU-funded renewable energy cooperation), - Halton Foundation-funded studies on school ventilation. He has secured over £10M in research funding, spanning academic and industry partnerships. Awards and Recognition: While no formal awards are listed, Yao’s leadership in global sustainability networks and his role in shaping policy frameworks reflect his significant influence in the field. Labs and Collaborations: He leads the Energy and Environmental Research Group and collaborates internationally with institutions like Chongqing University, Cambridge University, and the China Green Building Council. His work frequently involves cross-border initiatives to address climate challenges in rapidly urbanizing regions.
Professor Phyllis Lam is a faculty member at the University of Southampton within the School of Ocean and Earth Science , where she serves as the Professor of Microbial Biogeochemistry (2024–present). She leads the Marine Biogeochemistry Research Group and the Environmental Genomics Sequencing Facility . Her research focuses on microbial roles in biogeochemical cycles, particularly nitrogen and carbon dynamics in marine systems. Education: PhD in Oceanography (University of Hawai'i at Manoa, 2004); BSc in Oceanography with Marine Biology (University of Southampton, 1998) Her work integrates molecular ecology, isotopic analyses, and modeling to study microbial interactions in global change contexts. Key projects include Nitrogen cycling in ocean twilight zones , carbon remineralization in mesopelagic environments , and greenhouse gas pathways . She supervises PhD students and collaborates internationally on interdisciplinary initiatives. Teaching & Supervision: Engaged in marine microbiology education and advises PhD students in the INSPIRE and Biological Sciences programs.
Ville Jantunen is a Researcher and Supervisor in the Doctoral Programme in Materials Research and Nanosciences. His research focuses on atomistic simulations of materials under extreme conditions, including ion irradiation effects, defect evolution in fusion materials, and nanoparticle dynamics. He is actively involved in the SPATEC project (2022–2026), funded by the Academy of Finland, which explores time and spatial dependence of cascade damage in materials under pulsed ion beams. Key research areas include computational materials science, radiation effects in nanomaterials, and predictive modeling of electronic/atomic phenomena. His work spans both fundamental and applied aspects, with contributions to quantum technology through spin-qubit array studies and fusion energy via tungsten defect analysis. Collaborations include international teams on nanoparticle shape transformation mechanisms and kinetic Monte Carlo simulations. He has organized educational outreach activities like the LEGO lab workshop at Helsinki Natural Science Lyceum (2018), demonstrating engagement in science communication. Publications emphasize interdisciplinary approaches, combining computational methods with experimental insights to address challenges in nanotechnology, fusion materials, and radiation physics.
S. R. Srinivasa Varadhan is the Frank Jay Gould Professor of Science and Professor of Mathematics at the Courant Institute of Mathematical Sciences, New York University. His primary affiliation is with the Mathematics Department, where he has held prominent academic roles since joining NYU. Varadhan's research focuses on probability theory and its interplay with analysis, particularly stochastic processes and their connections to partial differential equations. He earned his Ph.D. in Mathematics from the Indian Statistical Institute (1963), following earlier degrees from Presidency College, Madras (M.A. 1960, B.A. 1959). His teaching spans advanced topics in probability, real variables, harmonic analysis, stochastic calculus, and mathematical finance, as evidenced by course materials from 2000 onward. Varadhan’s work emphasizes large deviations theory, limit theorems, and applications to statistical mechanics. His publications address foundational questions in probability and its analytical underpinnings. He has contributed extensively to educational materials, including lecture notes on stochastic processes and advanced probability.
Professor Markku Kulmala (University of Helsinki) is a leading expert in atmospheric and environmental physics. As Academician of Finland and double ERC Advanced Grant holder, he leads the Institute for Atmospheric and Earth System Research (INAR) and ACCC Flagship. With ~1200 publications and a WoS H-index of 124, his work focuses on atmospheric aerosols, climate interactions, and air quality. Academy of Finland grants (2004-2009, 2011-2015) ERC Advanced Grant (2×) ISI Highly Cited Researcher His research team has published 4 groundbreaking studies in Nature and Science , including: Aerosol formation mechanisms Aerosol-cloud-climate interactions Atmosphere-land surface relationships Climate-air quality feedbacks With over 20 PhD/Master's students supervised, recent work includes Arctic aerosol studies ( Elementa 2025), Beijing air quality analysis ( Nature Communications 2025), and climate modeling applications. He has received multiple international awards including the Fuchs Memorial Award and honors from Stockholm and Tartu universities.
Masaru K. Kuno is a Professor in the Department of Chemistry and Biochemistry and a Concurrent Professor in the Department of Physics at the University of Notre Dame. He has been a faculty member since 2003, progressing from Assistant to Associate and full Professor by 2016. His interdisciplinary research spans physical chemistry, materials science, and nanotechnology. Education: Ph.D. in Physical Chemistry, Massachusetts Institute of Technology (1998) B.A. in Chemistry, Washington University in St. Louis (1993) His research focuses on the fundamental optical and photophysical properties of low-dimensional semiconductor nanostructures. Using advanced microscopic techniques, his group conducts single nanostructure extinction and absorption studies, particularly in the mid-infrared region, enabling ultrasensitive chemical imaging. A major theme involves understanding halide photosegregation in mixed-halide perovskites for solar energy applications. Another long-term goal is achieving optical refrigeration in semiconductors through photoluminescence up-conversion. His work combines synthesis, measurement, and theory to address material instabilities and develop new spectroscopic methods. The recent publications highlight a strong focus on perovskite materials, optical cooling mechanisms, and advanced spectroscopy. The articles span topics from halide segregation dynamics to anti-Stokes photoluminescence and proton irradiation stability, reflecting a cohesive research program centered on energy materials and nanoscale phenomena. Scientific Awards: Rev. Edmund P. Joyce, C.S.C., Award for Excellence in Undergraduate Teaching (2022) Cottrell Teacher Scholar Fellowhip (2006) NSF CAREER Award (2005) National Research Council Postdoctoral Fellowship (1998) Kuno has mentored numerous graduate students and postdoctoral researchers through his active research group. His work has been supported by major grants from the NSF and other agencies, though specific grant details are not listed. He plays a significant role in training the next generation of scientists through both research supervision and undergraduate teaching excellence. The Kuno Group develops and applies cutting-edge microscopic methods for probing individual nanostructures. They specialize in single-particle infrared absorption spectroscopy and super-resolution infrared imaging. The team synthesizes low-dimensional semiconductor systems including nanowires, nanoplatelets, and quantum dots, enabling fundamental studies of material behavior at the nanoscale.
