Dr. Marc van der Sluys van der Sluijs is a researcher at Utrecht University's Department of Gravitational and Subatomic Physics (GRASP) and the Dutch National Institute for Nuclear and High Energy Physics (Nikhef) in Amsterdam. His academic focus spans gravitational-wave detection, binary evolution, and computational astrophysics, with active roles in the Virgo, LIGO, and Einstein Telescope collaborations. Research Interests: His work centers on gravitational-wave data analysis, neutron star and black hole coalescences, common-envelope evolution, and multi-messenger astronomy. He employs heavy computing and Bayesian statistics for empirical modeling of astrophysical phenomena. Teaching: He teaches Introduction to Astrophysics and Stellar Evolution in Utrecht University's physics bachelor program. Publications: His recent articles (2019–2025) predominantly explore gravitational-wave detection methodologies, dark matter searches, and solar position algorithms. Key themes include machine learning applications in astrophysics, multi-instrument data analysis, and open-source software development for scientific computation. Ancillary Activities: He founded hemel.waarnemen.com , a popular Dutch astronomy website with 1–2 million annual visits, providing observational guides for celestial phenomena in Belgium and the Netherlands.
Miloš Ivanović serves as an Assistant Professor at the Institute of Mathematics and Informatics within the Faculty of Natural Sciences and Mathematics at the University of Kragujevac. His academic career is deeply rooted in computer science and computational mathematics, with research spanning multiple interdisciplinary domains that bridge theoretical computer science with practical applications in engineering, physics, and biology. Dr. Ivanović earned his Doctorate in Computer Science from the Faculty of Natural Sciences and Mathematics (PMF) at the University of Kragujevac, establishing a foundation for his subsequent research career focused on computational methods and high-performance computing. His research interests represent a sophisticated convergence of computational theory and practical applications. Ivanović specializes in advanced computing paradigms including grid computing, GPGPU computing, and cloud-based high-performance computing systems. His work in fluid modeling employs meshless methods and particle dynamics approaches, particularly SPH and DPD techniques applied to microfluidic systems. The breadth of his research extends from theoretical mathematics (graph theory and chemical indices) to practical applications in hydrology, biomedical engineering, and nuclear physics. His interdisciplinary approach enables innovative solutions across diverse scientific domains that require intensive computational resources. The collection of his publications reveals a consistent trajectory of research focused on computational methods with applications spanning multiple scientific disciplines. His work demonstrates strong expertise in parallel computing architectures and their application to complex scientific problems. The publications show a progression from fundamental computational mathematics toward increasingly complex multi-domain applications, particularly in biomedical and environmental systems. His research consistently addresses the challenge of implementing computationally intensive methods on distributed and parallel architectures to solve real-world scientific problems. Throughout his career, Ivanović has participated in numerous national and European research and infrastructure projects, including FP6, FP7, and Tempus initiatives. His collaborative approach is evident in the diverse range of co-authors spanning multiple institutions and disciplines, reflecting his ability to bridge computational science with domain-specific applications. Dr. Ivanović is affiliated with the Group for Mathematical Modeling and Computer Simulations, which develops computational solutions across various domains including fluid dynamics, biomedical applications, and environmental modeling. The group's work encompasses software development for simulation purposes, as evidenced by projects like the SPH07 software package and various specialized simulation tools for engineering and biomedical applications.
Dr. Tomas Čeponis (Institute of Photonics and Nanotechnology, Vilnius University) serves as a Senior Researcher and Associate Professor in Technological Sciences . His research focuses on semiconductor defect analysis, carrier transport in crystalline/amorphous materials, and radiation sensor development. Key Interests: Radiation defect evolution in semiconductors, contactless characterization techniques, dosimetry systems for high-energy physics and medical applications Scientific Contributions span radiation sensor performance during proton/electron irradiation, defect profiling in GaN and SiGe materials, and development of characterization methodologies. Notable projects include: Research Council of Lithuania project S-LB-19-1 (2019–2020) Collaboration in CERN RD50 Awards include the National Science Prize of the Lithuanian Academy of Sciences (2022) and multiple young scientist recognitions. He supervises bachelor and master students' theses and teaches Basic Electronics , Radiation Detectors for CERN Experiments , and Introduction to Semiconductor Physics .
Dinesh Shetty serves as an Assistant Professor of Physics and Astronomy within the Department of Physical Sciences at Ferris State University's College of Arts, Sciences and Education. His academic appointments and research activities position him at the intersection of observational astronomy and nuclear physics. His educational background includes: PhD in Physics, University of Mumbai MS in Physics, University of Bombay Graduate Training in Artificial Intelligence and Machine Learning, CALTECH, CA, USA Graduate Training in Data Analytics, The Ohio State University, OH, USA Dr. Shetty's research spans astrophysics and nuclear physics with equal rigor. His nuclear physics work investigates the symmetry energy and equation of state of asymmetric nuclear matter through heavy-ion collision experiments, while his recent astrophysics research focuses on precision astrometry of binary star systems using speckle interferometry techniques. Key contributions include establishing connections between nuclear matter properties and neutron star behavior, and developing observational methodologies for double star systems. Publication analysis reveals a strategic evolution from nuclear physics (2005-2017) to astrophysics (2025), with his nuclear work emphasizing density-dependent symmetry energy measurements through fragment yield distributions and isoscaling phenomena, while his current research pioneers astrometric techniques for binary star characterization at Rawlinson Observatory. No scientific awards are documented in available records. Dr. Shetty actively contributes to academic infrastructure through the development of Ferris State University's astronomy program, including telescope instrumentation projects at Rawlinson Observatory as presented in his 2025 faculty orientation. His presentation history demonstrates sustained engagement with major professional societies including the American Astronomical Society and American Physical Society across multiple decades.
Joshua Smith is a Professor of Physics and Director of the Nicholas and Lee Begovich Center for Gravitational-Wave Physics and Astronomy at California State University Fullerton. As Deputy Director of the Cosmic Explorer next-generation GW detector project, he bridges cutting-edge optics research with large-scale astrophysical discovery. Current roles: Professor of Physics Dan Black Director, Begovich Center Deputy Director, Cosmic Explorer Research focus: Gravitational wave detector optics LIGO interferometry Detector network characterization Dark matter searches via GW data His publications span gravitational wave detection methods, optical coating materials, and astrophysical implications of GW observations. Recent work includes next-generation observatory siting criteria and advanced data analysis techniques for transient GW events. Joshua Smith contributes to open-source detector characterization software and collaborates across the LIGO-Virgo-KAGRA network. He leads efforts to improve detector sensitivity through materials science and interferometry innovations, while exploring multi-messenger astrophysics connections. The Begovich Center under his leadership supports gravitational wave research, education, and public outreach. His team actively participates in Cosmic Explorer R&D initiatives and maintains key detector diagnostics tools used across the global GW community.
Associate Professor Petar Žugec is affiliated with the Department of Experimental Physics at the Faculty of Natural Sciences and Mathematics , University of Zagreb. He actively contributes to both undergraduate and graduate teaching , covering core topics in Physics 1, Physics 2, Symbolic Programming , and specialized courses in Nuclear Physics and Particle Physics . As a member of the CERN n_TOF collaboration , he focuses on neutron cross-section measurements critical for astrophysics and nuclear reactor applications . His research involves experimental nuclear physics using advanced detector systems , including Segmented Total Energy Detectors (sTED) and Compton gamma cameras . He participates in projects like PRECIOUS and SAT-PHENO , aiming to improve neutron capture data for stellar nucleosynthesis modeling . Recent publications emphasize machine learning applications in resolution function parametrization and event classification for high-precision experiments. His work at the CERN n_TOF facility addresses challenges in high count rate scintillation detectors and neutron-induced fission studies , particularly for 235U and 239Pu . He contributes to gamma-ray polarization research in positron emission tomography and has co-authored technical guidelines for detector setup characterization . No scientific awards or student advisement details were explicitly mentioned in the provided texts.
Vito Foderà is Professor of Biophysics at the Department of Pharmacy, Faculty of Health and Medical Sciences, University of Copenhagen, Denmark. He leads a highly interdisciplinary research team working at the interface between physics, biology and pharmaceutical sciences. His laboratory, the Drug Delivery and Biophysics of Biopharmaceuticals group, focuses on understanding protein and peptide behavior to develop novel drug delivery systems and improve protein therapeutics. Professor Foderà received his PhD in Physics from the University of Palermo in 2009, followed by postdoctoral work at the Cavendish Laboratory, University of Cambridge. He joined the University of Copenhagen in 2009 and progressed from Research Associate to Assistant Professor (2014), Associate Professor (2016), and was promoted to Professor in June 2023. His research spans four main interconnected areas: Protein and Peptide Self-Assembly (since 2006), Biophysics of Protein-Membrane Interaction (since 2014), Biomaterials for Drug Delivery (since 2017), and Protein Particles in Drug Formulations (since 2018). He combines theoretical frameworks with experimental techniques including UV-Vis spectroscopy, X-ray and neutron scattering, and optical and electron microscopies. His work bridges fundamental biophysics with pharmaceutical applications, particularly in developing advanced materials for nanomedicine and understanding protein-related neurodegenerative diseases. Analysis of his recent publications reveals a strong trend toward understanding protein aggregation mechanisms, particularly insulin and α-lactalbumin systems, with increasing focus on pharmaceutical applications. His research integrates computational modeling with advanced experimental techniques to connect molecular-level interactions to macroscopic material properties. Key disciplines represented in his work include biophysics, structural biology, pharmaceutical sciences, and materials science, with growing emphasis on translational applications in drug delivery and protein formulation. Villum Young Investigator Award (2018-2025, 8.6 M DKK) Villum Young Investigator Plus Award (2023-2026, ~4 M DKK) Professor Foderà actively mentors a large research group including postdocs (Samuel Lenton, Mai Bay Stie, Marco Polimeni), PhD students (Kleopatra Kalouta, Xuedan Sun, Inna Brakti, Giorgia Puleo, Filippo Vitale, Xuezhi Zhou, Gabriele Lo Buglio), and numerous master's students. His research is supported by multiple significant grants including Villum Foundation awards, Novo Nordisk Foundation projects, China Scholarship Council funding, and industrial collaborations with Novo Nordisk A/S. His laboratory maintains strong connections with international collaborators in academia, large-scale facilities, and industry. The group is affiliated with CPHSAXS (Small Angle X-ray scattering facility), LINXS (Lund Institute of Advanced Neutron and X-ray Science), and ISBUC (Integrative Structural Biology at University of Copenhagen), providing access to advanced instrumentation and expertise.
Manfred Kriechbaum is a Senior Scientist at the Institute of Inorganic Chemistry within Graz University of Technology , Austria. He holds a Ph.D. (Dr.rer.nat.) and M.Sc. (Mag.rer.nat.) in Physical Chemistry from Karl-Franzens University of Graz, obtained in 1986 and 1983 respectively. His career includes senior research roles at the Austrian Academy of Sciences (1993-2012) and postdoctoral work at Princeton University (1991-1993). Manfred specializes in Small-Angle X-ray and Neutron Scattering (SAXS/SANS) , with a focus on simulation software, data evaluation, and nanostructure analysis. He has developed interactive tools for calculating scattering curves (I(q)), distance-distribution functions (p(r)), radius of gyration (Rg), and electron density profiles, as documented on his personal webpage . His work addresses instrumental effects like slit-height/detector-width smearing and Porod exponent deviations. He has contributed to synchrotron facilities (ELETTRA, Diamond Light Source) and collaborated with institutions such as EMBL Hamburg and BioTechMed Graz . The Max-Kade Fellowship (1991, 1992) recognizes his research excellence. His software tools are widely used in structural biology and materials science.
Jean-Noël Chotard serves as a Lecturer and Coordinator of the 'Crystallochemistry and research into new inorganic materials for energy' theme at the Laboratory of Reactivity and Chemistry of Solids (LRCS) within Université de Picardie Jules Verne in Amiens, France. His academic position involves leading research in materials characterization for energy applications while contributing to the institution's scientific mission in sustainable energy solutions. His educational background includes: Post-Doctorate (Laboratory of Reactivity and Chemistry of Solids-UPJV, Raphaël Janot, 2009) on Metal Complex Hydrides Doctorate in Crystallography (University of Geneva, Klaus Yvon, 2008) on 'Study of metal-hydrogen bonds in the Ln-Mg-TH system' Master's Degree in Materials / DEA in Solid and Inorganic Molecular Chemistry (University of Rennes 1, 2003) Dr. Chotard's research expertise centers on crystallography applied to energy storage materials, with dual focus on hydrogen storage systems and electrode materials for lithium/sodium-ion batteries. His work integrates advanced characterization techniques including X-ray diffraction , synchrotron radiation , and neutron scattering to investigate crystal structures and reaction mechanisms. He has pioneered in-situ and in-operando crystallographic study techniques to observe real-time structural changes during battery operation, particularly examining insertion/deinsertion processes in positive electrodes. His methodological approach combines laboratory-based analysis with large-scale instrumentation facilities. Analysis of his recent publications reveals strong focus on solid electrolyte development for next-generation batteries, particularly sodium-based systems, with significant attention to structural characterization and ionic transport properties. His work bridges fundamental crystallography with practical battery applications, showing consistent emphasis on operando characterization techniques to understand dynamic processes in energy storage materials. Dr. Chotard actively contributes to major research initiatives including: ANR HIPOLITE project H2020 NAIADES program Alistrore Thesis research RS2E-CRP thesis on solid electrolyte synthesis Within the LRCS framework, he collaborates extensively with researchers including Raphaël Janot (hydrogen storage) and Christian Masquelier (battery materials), working within a multidisciplinary environment that combines electrochemistry, 3D printing of battery systems, materials synthesis, and advanced imaging techniques. His technical proficiency spans powder and single-crystal crystallography, large instrument utilization (synchrotron/neutrons), and inorganic synthesis methodologies.
Rosario Iaria serves as an Associate Professor in the Department of Physics and Chemistry at the University of Palermo, Italy, where he maintains active teaching and research responsibilities. His academic profile demonstrates continuous engagement with the university since at least 2011, teaching specialized courses including High Energies Astrophysics with Laboratory and Planetary Volcanism across Physics and Georisks programs. His research expertise spans several critical domains in modern astrophysics: High energy phenomena in X-ray binary systems Neutron star physics and accretion processes Cyclotron line formation and variability in pulsars Time-domain analysis of transient cosmic events Development of machine learning techniques for X-ray spectral analysis Multi-messenger approaches to gamma-ray burst studies Analysis of his recent publications (2024-2025) reveals a strong methodological focus on spectral and timing techniques applied to extreme astrophysical environments. His work frequently utilizes data from major observatories including NICER, NuSTAR, XMM-Newton, and Fermi, with particular emphasis on orbital dynamics in X-ray binaries, cyclotron line physics, and reflection spectroscopy in compact object systems. Dr. Iaria's contributions extend to instrumental development projects such as HERMES (Gamma-ray burst and gravitational wave counterpart hunter) and theoretical investigations into quantum gravity phenomena. His research bridges observational data analysis with theoretical modeling, advancing our understanding of matter under extreme gravitational and magnetic fields.
Dr. David Champion is a Researcher at the Max Planck Institute for Radio Astronomy (MPIfR) in Bonn, Germany, affiliated with the Research Department of Radio Astronomical Fundamental Physics. He is a core member of the COMPACT Research Group, focusing on radio astronomical fundamental physics. His research utilizes major radio telescopes including Effelsberg, Arecibo, Green Bank, and Parkes for pulsar timing and gravitational wave detection. Education History: B.Sc. in Physics with Astrophysics from University of Bristol M.Sc. in Opto-electronics and Optical Information Processing from Queen's University Belfast Ph.D. in Pulsar Searching and Timing from University of Manchester (Jodrell Bank Observatory) Research Focus: Champion specializes in pulsar timing arrays, gravitational wave detection, and neutron star physics. His work includes the European Pulsar Timing Array project, pulsar surveys, analysis of relativistic binaries, and studies of the interstellar medium. Recent research explores dark matter signatures via pulsar polarimetry and developing methodologies for the Square Kilometre Array. Publication Trends: Over 15 recent publications (2024-2025) demonstrate consistent focus on pulsar timing arrays, gravitational wave detection, and neutron star systems. Key themes include MeerKAT data analysis, binary pulsar characterization, survey discoveries, and instrumentation for next-generation telescopes. Research emphasizes statistical methods for noise reduction and gravitational wave background mapping. Scientific Recognition: Natural Sciences and Engineering Research Council of Canada (NSERC) Postdoctoral Fellowship, supplemented by Canadian Space Agency Research Projects & Collaborations: Leads efforts in the European Pulsar Timing Array and Parkes Pulsar Timing Array projects. Manages observational programs using Effelsberg Radio Telescope and contributes to TRAPUM (Transients and Pulsars with MeerKAT). Collaborates internationally on gravitational wave detection and pulsar surveys. Laboratories & Teams: Heads the COMPACT Research Group at MPIfR. Previously worked with pulsar research groups at McGill University and Australia Telescope National Facility (CSIRO). Contributes to instrumentation development for neutron spectroscopy and radio astronomy.
Dr. Bernd Klein is a researcher at the University of Cologne , Department of Physics, specializing in terahertz heterodyne spectroscopy and heterodyne receiver systems . He collaborates extensively with institutions like SOFIA Observatory and APEX Telescope . Affiliated with University of Cologne (Department of Physics) Research focus on planetary atmospheric science, interstellar medium, and high-mass star formation Key instruments: upGREAT, GREAT, CHAI, U-Board Research Interests span submillimeter astronomy , planetary spectroscopy , and instrument development . His work includes detecting atomic oxygen isotopes in Earth's atmosphere (2023) and HeH+ in interstellar space (2019). Klein contributes to instrumentation projects like the CCAT-prime Heterodyne Array (2023) and upGREAT (2016), advancing THz technology for astronomical applications.
Luna Pellegri serves as an Associate Professor in the School of Physics at the University of the Witwatersrand. Holding a PhD from Milan University, she maintains an active research program in experimental nuclear physics with particular expertise in gamma-ray spectroscopy and nuclear structure studies. Her work is supported by international collaborations including the AGATA (Advanced Gamma Tracking Array) project and CLYC scintillator development initiatives. Professor Pellegri's research focuses on nuclear resonance phenomena, with significant contributions to understanding giant dipole resonances, pygmy dipole resonances, and alpha clustering in atomic nuclei. Her experimental approach frequently employs inelastic scattering techniques using oxygen-17 beams to probe nuclear structure in isotopes ranging from light nuclei like oxygen-16 to heavier systems such as tin-124 and cerium-140. She has made important contributions to characterizing nuclear deformation effects across isotopic chains and investigating isospin mixing phenomena. Analysis of her 15 most recent publications (2016-2018) reveals consistent research activity across three main domains: nuclear resonance studies (accounting for approximately 60% of output), detector development (25%), and nuclear structure investigations (15%). Her work demonstrates strong international collaboration patterns with researchers across Europe and South Africa, frequently published in Physical Review C and Nuclear Instruments and Methods journals. Professor Pellegri's instrumentation expertise is particularly notable in gamma-ray detection systems. She has contributed significantly to the development and characterization of advanced scintillator technologies including LaBr3:Ce detectors, CLYC scintillators for neutron-gamma discrimination, and the CAKE coincidence array for the K600 spectrometer. Her technical publications address critical challenges in radiation detection including signal saturation correction, alpha-gamma pulse shape discrimination, and high-energy gamma-ray measurement techniques. Within the AGATA collaboration, Professor Pellegri has focused on high-spin structure studies, isomer investigations, and gamma decay properties of excited nuclear states. Her group has made important contributions to understanding the order-to-chaos transition in tungsten-174 and high-lying states in lead-208, leveraging the advanced tracking capabilities of the AGATA demonstrator system.
Markus Appel is a Researcher at ILL – Institut Laue-Langevin , specifically within the Spectroscopy division. He serves as the Instrument Responsible for the IN16B instrument, supporting users in neutron scattering experiments. His research interests include neutron spectroscopy , instrument development , and applications in materials science and radiation detection . He holds expertise in condensed matter physics and advanced instrumentation for scientific measurements. For communication, he uses the email address appel@ill.fr and can be reached at the institution’s phone number +33 (0)4 76 20 70 38 or the instrument-specific line +33 (0)4 76 20 74 49 . Markus Appel is affiliated with ILL’s scientific infrastructure, including access to resources like the D16B instrument and support labs for sample preparation. His work involves collaboration with external researchers and maintaining technical standards for neutron scattering experiments. No scientific awards, formal student advisement, or specific grant details are mentioned in the provided text.
Dr. Quentin Berrod is an instrument responsible for the SHARP spectrometer at the Institut Laue-Langevin (ILL), a leading research facility in neutron science. His work focuses on advanced spectroscopy techniques for studying condensed matter and soft materials. Contact details include office location at ILL 4, 3rd Floor, Office 317, and phone number +33 (0)4 76 20 77 52. Key research areas: Neutron Spectroscopy Materials Science Condensed Matter Physics Biophysics Soft Matter Instrumentation Development Email: berrod@ill.fr
