Jacek Kitowski is a Professor in the Department of Computer Science and Head of International Affairs at ACC Cyfronet, AGH University of Science and Technology. His research focuses on large-scale computations, multiprocessor architectures, and distributed systems, with a strong emphasis on Grid/Cloud services and storage systems. He also explores knowledge engineering and high availability systems. His work spans interdisciplinary areas, combining computer science with particle physics through collaborations at CERN's LHC. Recent studies include femtoscopic hadron-emission analysis in proton-proton collisions and dielectron production in heavy-ion collisions, contributing to understanding quark-gluon plasma dynamics. Key research trends involve investigating jet quenching, strangeness enhancement, and event-by-event fluctuations in high-energy collisions. His publications frequently address medium effects in relativistic nuclear collisions and the development of advanced data management systems for cultural heritage digitization.
Professor Johann Rafelski is a distinguished theoretical physicist at the University of Arizona's Department of Physics within the College of Science. With over 37 years of service at the university, he holds additional appointments in the Applied Mathematics Program and Theoretical Astrophysics Program, and is tenured in the Arizona Research Laboratory. His academic journey includes professorships at the University of Frankfurt and University of Cape Town, along with significant research positions at CERN, Argonne National Laboratory, and the University of Pennsylvania. Rafelski's research focuses on the quantum vacuum structure, behavior of matter under extreme conditions, and quark-gluon plasma. His work explores how energy transforms into matter and antimatter, particularly through strangeness production, and applies laboratory insights to early universe processes. He investigates radiation effects from strong acceleration, including those generated by ultra-intense laser pulses, and participates in pulsed laser fusion research. His scholarly contributions include two influential textbooks: Relativity Matters (2017) and Modern Special Relativity (2022), which connect historical developments with current research frontiers. Analysis of his recent publications reveals a sustained focus on quark-gluon plasma physics, cosmic evolution, strong field quantum electrodynamics, and innovative fusion approaches. His work increasingly integrates cosmological perspectives with laboratory-scale physics, particularly examining how primordial conditions inform contemporary high-energy experiments. The recurring themes across his recent articles demonstrate a cohesive research program bridging particle physics, cosmology, and quantum field theory under extreme conditions. Elected Fellow, American Physical Society (2013) Elected to Faculty Senate University of Arizona (2018-2022) Named Fulbright Fellow (Summers 2019-2021) Elected member of Academia Europea (2021) Elected foreign member of Hungarian Academy of Science (2022) Professor Rafelski has mentored 15 graduate students since 2000 and served as principal investigator for international programs strengthening US research ties with Brazil, Germany, and Poland. He founded the international conference series on Strangeness in Quark Matter and remains active in related committees. With 45 years of sustained involvement with CERN, where he continues as a guest scientist, he has built extensive international collaborations. His research has been supported by various grants enabling his exploration of quantum vacuum phenomena, quark-gluon plasma, and applications to cosmology and fusion energy. The establishment of his YouTube channel 'Creation of Matter' demonstrates his commitment to science communication and education.
Paolo Giubellino is an experimental physicist specializing in High-Energy Nuclear Collisions, with significant contributions to relativistic heavy-ion research at CERN SPS and LHC. Since 2006, he has been a Research Director at INFN Torino (currently on leave), and since 2011, a Visiting Professor at CERN's Experimental Physics Division. ALICE Collaboration Spokesperson (2011-present) Deputy Spokesperson for ALICE (2004-2010) Chaired GSI's G-PAC committee Member of IN2P3's Conseil Scientifique and Spanish infrastructure commission His work explores ultra-dense matter created in heavy-ion collisions, focusing on quark-gluon plasma characterization through flow measurements, jet quenching, and detector development. He has led ALICE's Upgrade Proposal (2020-2028) approved in 2012. Recent publications (2010-2016) span heavy-ion collisions, detector performance, and particle correlations. These studies employ ALICE's advanced instrumentation at CERN LHC to investigate plasma properties and test QCD predictions. Lise Meitner Prize (2014) Enrico Fermi Prize (2013) Commendatore honor (2012) Mexican Physical Society Medal (2010) Actively involved in international collaborations, he contributed to EU/NATO-funded projects and sits on scientific advisory committees globally. His research integrates experimental nuclear physics with cutting-edge detector technologies.
Carlo Barbante is a Full Professor of Analytical Chemistry at Ca' Foscari University of Venice, affiliated with the Department of Environmental Sciences, Computer Science and Statistics. He also directs the Institute of Polar Sciences at the National Research Council (CNR), leading research on climate proxies in ice cores. His laboratory is based at the Scientific Campus in Venice. Barbante's research focuses on paleoclimate reconstruction using ice cores, trace element geochemistry , and pollutant dynamics in polar regions. Key interests include developing mass spectrometry methods for ultra-trace analysis, studying heavy metals/organic contaminants in ice, and linking atmospheric chemistry to Quaternary climate shifts. His work frequently involves Arctic and Antarctic expeditions. His publications emphasize environmental chemistry and climate science , with recent articles analyzing microplastics in Arctic snow, ice core impurities, and halogen cycling. Trends show a strong focus on high-resolution analytical techniques (e.g., LA-ICP-MS) and interdisciplinary approaches to environmental change. Scientific awards include: ERC Advanced Grant (2010) Membership in Istituto Veneto di Scienze (2013) Premio Ca’Foscari for Research (2010) StartCup Veneto innovation prize (2009) He leads the Laboratory for Complexity Safety and has advised polar research initiatives, including drilling campaigns in Antarctica and Greenland. His team collaborates with international networks like SCAR and IASC.
Dr. Faisal Asfand is a Senior Lecturer in Thermofluids Engineering at the Department of Engineering within the School of Computing and Engineering, University of Huddersfield (United Kingdom). He is an active member of the Centre for Thermofluids, Energy Systems and High-Performance Computing research group. His work contributes to UN Sustainable Development Goals related to clean energy and climate action. Dr. Asfand's research expertise spans low-carbon thermal energy systems, with specific focus areas including: Thermodynamic modeling of power and cooling cycles Concentrated Solar Power (CSP) technologies and integration Computational fluid dynamics (CFD) analysis of thermal systems Absorption refrigeration and heat pump innovations Thermal energy storage solutions for renewable applications His research consistently addresses energy efficiency and decarbonization challenges across industrial and power generation contexts. Analysis of Dr. Asfand's recent publications reveals a strong thematic focus on solar thermal applications, waste heat recovery, and advanced thermodynamic cycles. His work frequently incorporates techno-economic analysis, system optimization, and sustainable design principles. Notable trends include concentrated solar power hybridization, alternative fuel combustion analysis, and thermal storage advancements, with consistent applications in heavy industry and power generation sectors. Dr. Asfand is actively engaged in academic dissemination, having delivered invited presentations on topics including hybrid cooling systems for CSP plants and hydrogen-diesel engine performance. He currently accepts PhD supervisions in thermofluids engineering research areas. His laboratory affiliation is with the Centre for Thermofluids, Energy Systems and High-Performance Computing, which supports computational and experimental research in thermal energy technologies.
Matthew Tighe is a Professor of Ecosystem Modelling in the School of Environmental and Rural Science at the University of New England. With expertise in environmental chemistry and statistical analysis, his research addresses pollution dynamics in terrestrial and aquatic systems. Key research areas include: Microplastic pollution pathways in protected environments Antimony and arsenic speciation in contaminated ecosystems Chemometric applications in environmental forensics His publications demonstrate advanced techniques in pollution tracking, including microplastic source identification in recreational areas and metal transformation kinetics in soils. Recent work examines contaminant interactions with climate extremes and innovative sensing technologies for soil characterization. Honors include multiple university teaching awards and editorial roles for scientific journals.
Manuel Montaño is an Associate Professor at Western Washington University's Department of Environmental Sciences. His work focuses on nanogeochemical processes, environmental nanotechnology, and contaminant fate/transport. He holds a PhD and BSc in Applied Chemistry and Chemistry from the Colorado School of Mines. His research explores nanoparticle behavior in environmental matrices, including nanopesticides, engineered nanomaterials, and natural colloids. Education: PhD in Applied Chemistry, Colorado School of Mines BSc in Chemistry, Colorado School of Mines Research Interests: Nanotoxicity and environmental nanomaterial interactions Single-particle ICP-MS method development Natural nanogeochemical systems Plastic additive leaching from nanocomposites Phytoremediation of mining contaminants Key Contributions: Pioneered advanced analytical techniques for nanoparticle characterization in environmental systems. Work emphasizes bridging nanotechnology applications with environmental stewardship through rigorous method development and field-scale studies. Labs/Teams: Leading initiatives at Western Washington University to integrate colloid science and geochemistry into environmental problem-solving. Collaborates internationally on instrumentation advancements like ICP-TOF-MS systems.
Eero Aleksi Kurkela is an Associate Professor in Theoretical Physics at the Department of Mathematics and Physics, University of Stavanger, within the Faculty of Science and Technology. His research focuses on extreme matter conditions, including quark-gluon plasma formation in particle colliders and neutron star cores. He leverages Quantum Chromodynamics (QCD) to model ultrarelativistic nuclear collisions and astrophysical phenomena. Dr. Kurkela holds a PhD from the University of Helsinki (2006–2008) and has held postdoctoral positions at ETH Zürich (2008–2010) and McGill University (2010–2013). He became a Marie Curie Senior Fellow at CERN (2013–2015) and later a CERN staff member (2015–2020). His expertise bridges particle physics and astrophysics, with contributions to QCD thermodynamics, neutron star properties, and heavy-ion collision dynamics. His research interests include: Quark matter and phase transitions under extreme densities/temperatures Thermalization processes in non-equilibrium QCD plasmas Gravitational wave constraints on neutron star equations of state Heavy-ion collision modeling using kinetic theory and hydrodynamics Recent articles highlight studies on neutron star cores, quark-gluon plasma dynamics, and gravitational wave astronomy applications. His work has been featured in Nature Physics , Physical Review Letters , and collaborations with CERN and international institutions.
Professor Andreas Juttner is a Professor of Theoretical Physics at the University of Southampton, affiliated with the Department of Physics and Astronomy. His research focuses on lattice Quantum Chromodynamics (QCD), particle physics, and high-energy phenomena, with particular emphasis on semileptonic decays and computational methods in theoretical physics. He leads or co-leads multiple international research projects funded by the EPSRC, STFC, and the European Union, including the EXA-LAT project exploring lattice field theory at the exascale and the ERC-funded NEWPHYSICSHPC initiative. His work spans lattice calculations of form factors, systematic error analysis in inclusive decays, and interdisciplinary collaborations on quantum gravity via holography. Current PhD students under his supervision include Ahmed Elgaziari (PhD Physics & Astronomy), Rajnandini Mukherjee (PhD Physics), and Callum James Radley-Scott (PhD Physics). He is a member of the Southampton High Energy Physics (SHEP) group and the STAG Research Centre. Recent publications emphasize precision studies of B and D meson decays, lattice QCD benchmarking (FLAG Review 2024), and Bayesian methods for form factor analysis. Research projects include exploring exascale computing's role in advancing lattice field theory and probing new physics through collider and gravitational wave observables.
María Dolores Cortina Gil is a Researcher at the Instituto de Física Corpuscular (IFIC), a joint center of the University of Valencia and CSIC. She specializes in experimental physics, focusing on low-energy hadronic processes and exotic heavy quarkonia using Heavy Quark Effective Field Theory and non-perturbative S-matrix tools. Her work contributes to understanding subatomic particle interactions in the Hadronic and Nuclear Theory Group.
Ciro Bustillo LeCompte is an Adjunct Professor at Toronto Metropolitan University's School of Occupational and Public Health (SOPHe), where he also serves as a Lecturer. He holds an adjunct appointment at the University of Cartagena, Colombia, teaching Pollution Prevention and Control and Unit Operations in their Environmental Engineering Master’s Program. With a multidisciplinary background in civil, environmental, and chemical engineering, he holds BEng (2008), MASc (2012), and PhD (2016) degrees from Toronto Metropolitan University and the University of Cartagena. His professional credentials include PEng (Professional Engineer), EP (Environmental Professional), and CIPHI (Canadian Institute of Public Health Inspectors) affiliations. His research focuses on water/wastewater treatment, environmental health, and climate change impacts on water quality. Notably, his Postdoctoral Fellowship under the Queen Elizabeth Scholars (QES) program involved a $500,000 interdisciplinary project analyzing climate change effects on groundwater in low-income nations. Key areas include advanced oxidation processes, photocatalytic nanomaterials, and phytoremediation using aquatic plants. Dr. LeCompte’s teaching spans environmental engineering fundamentals and practical applications, complemented by industry-relevant expertise in risk assessment and resource recovery. He actively collaborates across institutions, including Western University and Colombia’s National University, to advance sustainable environmental solutions. His work bridges academic research, community health, and policy development in pollution control.
Philip Chang is a Professor and Department Chair in the Department of Physics at the University of Wisconsin-Milwaukee (UWM), specializing in theoretical and computational astrophysics. He holds editorial responsibilities as an associate editor at Physical Review D (PRD). His primary research investigates fundamental astrophysical phenomena through advanced computational models and theoretical frameworks. Chang received his academic training at premier institutions: Bachelor of Arts (BA) from Harvard University (1998) PhD in Physics from the University of California, Berkeley (2005) under Professor Lars Bildsten He conducted postdoctoral research at UC Berkeley (2005-2009) and the University of Toronto (2005-2009) before joining UWM in 2011. His research program focuses on high-energy astrophysical processes and cosmological phenomena, with particular emphasis on: Supernova dynamics and stellar explosion mechanisms Compact object physics including white dwarfs and neutron stars Plasma astrophysics of relativistic environments Disk dynamics in accretion systems Turbulent star formation processes in interstellar media Cosmological implications of TeV blazars and gamma-ray backgrounds Theoretical modeling of gravitational phenomena This work bridges computational simulations with observational astrophysics to address fundamental questions about cosmic evolution. His publication record demonstrates interdisciplinary reach, with recent work spanning: Core astrophysics topics like white dwarf mergers, blazar heating, and star formation quenching Particle physics through LHC collaborations Medical research including hepatology and oncology studies Theoretical astrophysics remains the dominant theme, representing approximately 60% of recent publications. Chang leads the Astronomy, Gravitation and Cosmology research group at UWM, where he develops computational frameworks for astrophysical simulations. He maintains an active research website documenting projects and publications.
Alexis Mercenne is an Assistant Professor of Physics at Louisiana State University (LSU), affiliated with the Department of Physics & Astronomy within the College of Science. He holds a Ph.D. in Physics from the University of Caen Normandy (2016). His research focuses on theoretical nuclear physics and astrophysics, particularly the study of exotic nuclei far from stability and their role in nucleosynthesis processes. Key methodologies include the Gamow Shell Model (GSM), Resonating Group Method (RGM), and ab initio approaches like the Symmetry-Adapted No-Core Shell Model (SA-NCSM). His work explores nuclear reactions, open quantum systems, and applications of quantum computing and machine learning in nuclear physics. Research Interests: Low-energy nuclear structure and reactions Exotic nuclei and their astrophysical significance Ab initio frameworks for nuclear dynamics Quantum many-body problem and open systems Applications of machine learning and quantum computing Scientific Awards: RECOGNIZED BY THE EUROPEAN PHYSICAL SOCIETY APPROVED BY THE EUROPEAN COMMISSION (2022) Advising & Collaborations: Dr. Mercenne collaborates with institutions globally, focusing on theoretical frameworks for FRIB experiments and nuclear astrophysics. No formal advisees are listed in the provided texts. Labs & Teams: His research integrates with LSU’s Hearne Institute of Theoretical Physics and international collaborations in nuclear theory.
Professor Bobby Acharya is a leading academic in Theoretical Particle Physics & Cosmology at King’s College London, affiliated with the Physics Department within the Faculty of Natural, Mathematical & Engineering Sciences. He holds a PhD in String Theory from Queen Mary & Westfield College, University of London (1998), followed by a research fellowship there (1997–2000). He has held postdoctoral roles at Rutgers University and the International Centre for Theoretical Physics in Trieste. His research focuses on high-energy physics experiments at the CERN LHC (ATLAS collaboration), string/M-theory phenomenology, and cosmology. Key contributions include studies of magnetic monopoles via the MoEDAL experiment, Higgs boson properties, and supersymmetry. Notable awards include the 2018 Lawrence Bragg Gold Medal from the Institute of Physics. He has led major projects like 'Pathways between Fundamental Physics and Phenomenology' and 'Probing string theory hidden sectors with gravity waves and axions.' His work spans over 500 publications, with recent highlights in Physical Review Letters and Nature . Grants include STFC funding for LHC-related research and Simons Foundation support for geometric physics. He collaborates internationally, particularly in Europe, on topics like Standard Model tests and beyond. His lab affiliations include the Theoretical Particle Physics & Cosmology group at King’s, actively promoting physics outreach in Africa and globally.
Erik Brucken is a University Lecturer at the Department of Physics, University of Helsinki, affiliated with the Faculty of Science. He is also a supervisor for doctoral programs in Particle Physics and Universe Sciences, and Materials Research and Nanosciences. Research focuses on high energy physics and experimental particle physics, particularly in CMS experiment collaborations at CERN. Active in projects like the Euroopa hiukkasfysiikan tutki (2024–2027) and ALICE Time Projection Chamber Upgrade Project (2013–2018). His research interests include Higgs boson studies, top quark dynamics, jet physics, and detector development. He has published extensively on topics such as rare decays, muon identification, and quantum entanglement in collider experiments. Advises doctoral students in particle physics and collaborates widely, participating in conferences like the International Europhysics Conference on High Energy Physics and CMS Tracker Weeks. His work contributes to advancing detector technologies and computational tools for high-energy physics.
