Martha Constantinou is an Associate Professor of Physics at Temple University, specializing in Theoretical/Computational Nuclear Physics with a focus on Lattice Quantum Chromodynamics (QCD). Her research addresses fundamental questions in hadron structure, including nucleon spin content and proton radius puzzles, leveraging supercomputing resources. She leads a group conducting advanced numerical simulations at major computational facilities. Constantinou holds a Ph.D. in Theoretical Computational Physics (University of Cyprus, 2008) and a BS in Physics (University of Cyprus, 2003). Her work aligns with the upcoming Electron-Ion Collider (EIC) at Brookhaven National Lab, aiming to explore nucleon structure and dark matter connections. Key research areas include generalized parton distributions (GPDs), axial form factors, and high-performance computing applications. Notable awards include the US Department of Energy Early Career Award (2019) and the Selma Lee Bloch Brown Professorship (2020). Her publications (15 most recent listed) emphasize Lattice QCD advancements, with contributions to GPDs, quark-gluon momentum partitioning, and EIC theory. She actively promotes STEM outreach and public engagement through collaborative initiatives.
Guido Pintacuda is a CNRS Research Director and Head of the Lyon High-Field NMR Center (CRMN) at École Normale Supérieure de Lyon since 2019. His work centers on advancing solid-state NMR methodologies with ultra-fast magic-angle spinning (MAS) to achieve atomic-level resolution in complex biomolecular and materials systems that are intractable to conventional techniques. Educational background: Undergraduate studies (1992-1997) and PhD in Sciences (1998-2002) at Scuola Normale Superiore in Pisa, Italy; postdoctoral research at Karolinska Institutet (2001-2004) and Australian National University (2004). Research interests focus on pushing NMR frontiers through high-field instrumentation and fast MAS (up to 160 kHz), with dual objectives: (i) biomolecular structure determination for membrane proteins, amyloid fibrils, and viral assemblies; (ii) solid-state NMR of paramagnetic materials like battery cathodes and catalysts. His innovations include proton detection in fully protonated proteins and DNP-enhanced sensitivity. Recent publications (2021-2024) show heavy emphasis on proton-detected NMR under fast MAS for structural biology, alongside growing work in paramagnetic materials. Key trends include method development for μs–ms dynamics, miniature rotor protocols for membrane proteins, and collaborations with Bruker for 150+ kHz probe technology. Scientific awards: ERC Consolidator Grant (P-MEM-MAS, 2015-2021) Sackler Prize (2017) ISMAR Fellow (2020) Mentoring and grants: Principal investigator for major projects including ERC (2.5 M€), ANR CTRbyNMR (384 k€), and EU PANACEA (5 M€, co-coordinator). Actively mentors PhD student Clément Ollier and postdocs (Z. Sun, S. Medina-Gomez) at ENS Lyon and international schools. Labs and teams: Directs CRMN (UMR 5082 CNRS/ENS Lyon/UCBL), a world-class NMR facility with unique high-field equipment. Leads a research group developing 150+ kHz MAS probes in partnership with Bruker Biospin and maintains strong ties to the University of Delaware (T. Polenova) and European networks.
Timothy G. Strein is a Professor of Analytical Chemistry at Bucknell University, where he also held a Presidential Professorship from 2014-2017. He earned his B.S. from North Carolina State University in 1988 and his Ph.D. from Penn State University in 1992, working on electrochemistry at microvoltammetric electrodes with Dr. Andrew G. Ewing. Following a Camille and Henry Dreyfus Postdoctoral Fellowship at Bucknell (1992-1994), he joined the chemistry faculty where he has served as Department Chair (2010-2014), Acting Chair (2006-2007), and Graduate Coordinator (1998-2006, 2015-). His educational background includes: B.S. in Chemistry from North Carolina State University (1988) Ph.D. in Chemistry from Penn State University (1992) Camille and Henry Dreyfus Postdoctoral Fellowship at Bucknell University (1992-1994) Professor Strein's research focuses on bioanalytical chemistry, with particular expertise in capillary electrophoresis (CE), bile salt micelle structure, chiral separations, aqueous NMR spectroscopy, and isothermal titration calorimetry (ITC). His current work (2025) centers on developing rapid, inexpensive methods for chiral separations using CE, investigating the mechanisms that give rise to chiral separations with bile salt micelles by MEKC-CE, and the underlying thermodynamics driving chiral selection. He also conducts collaborative research using NMR to study bile micelle structure and ICP-MS to determine lithium ion concentrations in human blood, correlating endogenous Li levels with neurological health issues. Analysis of his recent publications (2005-2023) reveals a strong focus on chiral separations using bile salt micelles, with particular emphasis on understanding the molecular mechanisms of chiral recognition. His work spans analytical methodology development, fundamental studies of micellar structure, and applications in bioanalysis. The interdisciplinary nature of his research is evident in publications spanning chemistry, biochemistry, materials science, and medical applications. His scientific recognition includes the Henry Dreyfus Teacher/Scholar Award (TH-98-025). His external funding portfolio demonstrates sustained research support: George I. Alden Trust (2025-2030): $150,000 for HPLC instrumentation Bucknell-Geisinger Research Initiative (2024-2025): $20,000 for lithium concentration studies NSF-ROA Supplement (2021-2022): $29,600 for CE-MS interface development NSF-RUI Grant (2018-2021): $211,552 for chiral separation mechanisms Multiple previous NSF, NIH, and private foundation grants totaling over $1.5 million Professor Strein has mentored numerous undergraduate and MS students, many of whom have gone on to successful careers in academia, industry, medicine, and government. His teaching encompasses analytical chemistry, chemical equilibria, instrumental analysis, forensic chemistry, and general chemistry. He has served the department in various leadership roles and promotes undergraduate research as a central component of his scholarly activities.
Prof. Dieter H.H. Hoffmann is a distinguished academic in the Department of Physics , specializing in high-energy physics, dark matter detection, and plasma-based fusion research. His work focuses on particle astrophysics, including axion searches via helioscopes like CAST, nuclear fusion mechanisms (particularly proton-boron reactions), and plasma dynamics in extreme conditions. He collaborates on major projects such as the Cherenkov Telescope Array (CTA) for gamma-ray astronomy and heavy-ion beam experiments at facilities like FAIR. Research interests include: Dark matter axion detection and theoretical modeling Proton-boron fusion as an alternative energy pathway Plasma interactions in high-intensity laser and beam experiments Stopping power and beam transport in dense matter High-energy-density physics for inertial confinement fusion Recent work highlights advancements in: CAST experiment sensitivity improvements for solar axions Experimental validation of proton-boron fusion yields in dense plasmas Development of NectarCAM cameras for CTA's gamma-ray detection Simulation of proton beam dynamics in solid-state materials His contributions bridge fundamental physics with applied research in energy and detector technology, with active involvement in international collaborations like CTA and FAIR experiments.
Andreas Jung is an Associate Professor of Physics and Astronomy at Purdue University, affiliated with the CMS experiment at CERN. His research focuses on understanding the electroweak scale stabilization via precision measurements of top quark interactions, Higgs boson studies, and detector R&D. He also explores quantum algorithms for high-energy physics and supply chain optimization. Jung earned his Ph.D. from the University of Heidelberg (2009) and a diploma from the University of Dortmund (2004). Education: Ph.D. in Physics, University of Heidelberg, 2009 (Dissertation: D* Meson Cross Section Measurement) Diploma in Physics, University of Dortmund, 2004 (Commissioning of H1 Fast Track Trigger) Research Interests: High Energy Physics, Particle Physics, Detector Development, Quantum Computing Applications, Material Science for Detectors, and Collider Experiments. His work includes analyzing top quark spin correlations, quantum annealing for vertex reconstruction, and carbon fiber composites for CMS upgrades. Awards: Senior Distinguished Researcher fellowship at Fermilab LHC Physics Center (2019) 3-year PhD scholarship from German Research Society (2004–2007) Teaching & Leadership: Teaches courses on particle physics and data science. Serves as Convener of CMS TOP Physics Analysis Group and leads detector mechanics R&D. Engages in quantum computing collaborations with DoD and industry partners. Labs/Teams: Jung Research Group at Purdue, CMS Collaboration, and Purdue Quantum Science & Engineering Institute (PQSEI). Active in detector development for the High-Luminosity LHC upgrade, including carbon fiber support structures and silicon pixel detectors.
Professor Yun-Bao Jiang is a full Professor in the Department of Chemistry, College of Chemistry and Chemical Engineering, Xiamen University, China. Since obtaining his PhD from the same university in 1990 he has built an internationally recognized research programme in supramolecular photochemical sensing, chiral amplification and single-molecule fluorescence spectroscopy, publishing >200 papers and accumulating >7 000 citations. Education BS 1984 – Xiamen University MS 1987 – Xiamen University PhD 1990 – Xiamen University (Advisor: Prof. Chen Guozhen) Research interests Jiang’s group develops photo-induced electron/proton-transfer systems for fluorescence sensing and biomolecular recognition. Core themes include: (i) signal amplification via controlled aggregation; (ii) chiral induction, memory and amplification in helical supramolecular polymers; (iii) single-molecule detection by fluorescence correlation spectroscopy; and (iv) designer chemosensors for saccharides, amino-acids, anions and heavy-metal ions. Recent work Recent articles (2022-2025) exploit π-conjugated molecular tubes, Ag(I)-thiol coordination polymers and peptide-derived azamacrocycles to create unprecedented anti-S-shaped CD-ee correlations, heterochiral β-turn scaffolds and 2-D supramolecular arrays, pushing the envelope of chiral sensing and optical imaging. Honours & awards Ministry of Education Natural Science Second Prize Chinese Chemical Society Young Chemist Award China Youth Science & Technology Award (5th) Fok Ying-Tong Young Teacher Award Fujian “Yunsheng” Youth Science & Technology Award State Council Special Government Allowance Humboldt Foundation Fellowship Volkswagen Foundation Research Grant Fellow of the Royal Society of Chemistry (2014) Grants & advising He currently leads three ongoing NSFC projects (2023-2026) on sub-nanometre Ag + -thiol coordination polymers, 2-D π-tube arrays and precision construction of multi-level chiral materials. A 30-member team (post-docs, PhD and Master candidates) operates in four contiguous laboratories (Rooms 531-538) equipped with home-built nanosecond lifetime spectrometers, FCS setups and modern synthetic facilities. Editorial & outreach roles Jiang serves on the editorial/advisory boards of ACS Sensors , Supramolecular Chemistry , Photochem. Photobiol. Sci. , Analytical Chemistry and several Chinese journals, and is a council member of the Chinese Chemical Society.
Dr. Christopher Hansen is a Senior Lecturer in the School of Chemistry at the University of New South Wales, where he conducts research at the intersection of physical chemistry, photochemistry, and atmospheric science. His work spans laboratory-based molecular spectroscopy, atmospheric chemistry modeling, and astrochemical applications, with particular expertise in UV/VUV photodissociation dynamics and spectroscopic characterization of molecular systems. Dr. Hansen's research interests focus on molecular photodissociation dynamics , atmospheric photochemistry , UV/VUV spectroscopy , and astrochemical processes . His work examines how molecules fragment following photoexcitation, with applications ranging from understanding atmospheric degradation of fluorocarbons to interstellar chemistry. He has made significant contributions to understanding the photodissociation mechanisms of molecules like CF 3 CHO, H 2 S, and various aromatic systems, with implications for atmospheric chemistry and astrochemistry. His recent publications reveal a strong trend toward interdisciplinary research connecting laboratory measurements with atmospheric and astrochemical applications. Approximately 40% of his recent work addresses atmospheric chemistry concerns, particularly fluorocarbon degradation and greenhouse gas formation, while 30% focuses on fundamental photodissociation dynamics, and 30% explores astrochemical applications related to interstellar molecular processes. Dr. Hansen actively collaborates with researchers across multiple institutions and countries, as evidenced by his extensive co-authorship network spanning Australia, Europe, and North America. His research group utilizes advanced experimental techniques including molecular beam methods, velocity map imaging, and ultrafast spectroscopy to investigate photochemical processes at the molecular level.
Prof. Dirk Schneider is a Full Professor (W3) of Biochemistry at Johannes Gutenberg University Mainz since 2010, with previous appointments at the University of Freiburg (2003-2009) and postdoctoral training at Yale University. His research spans membrane biochemistry, biophysics, and transmembrane protein folding/assembly, focusing on thylakoid membrane biogenesis and protein-lipid interactions in cyanobacteria and chloroplasts. Current roles: Full Professor, University Mainz Previous roles: Assistant Professor (W1), University of Freiburg Education: PhD (summa cum laude) from Ruhr-University Bochum His research interests include: Membrane protein folding and stability ESCRT-III/Vipp1/PspA family structural dynamics ABC transporter activity regulation (e.g., BmrA) Protein-lipid interaction mechanisms Thylakoid membrane remodeling Comparative membrane biology between prokaryotes and eukaryotes Development of spectroscopic and computational methods Recent publications reveal trends in bacterial membrane remodeling (SynDLP, PspA), lipid effects on transporter activity (BmrA), and IM30/Vipp1-mediated membrane fusion. His work combines structural biology, biophysics, and functional assays to elucidate membrane dynamics. Awarded the Dr. Heinrich Kost Award (2001) and Leopoldina Fellowship (2001) , he has held leadership roles including Study Section Speaker (2010-2014) , Director of Institute of Pharmacy and Biochemistry (2013-2015) , and Dean of Faculty of Chemistry (2015-2020) . His scientific advisory roles include editorial board memberships and study section leadership.
Craig Evan Pollack, MD, MSc, MHS, is a Professor in the Department of Health Policy and Management at the Johns Hopkins Bloomberg School of Public Health, with joint appointments in the School of Medicine and School of Nursing. He is affiliated with the Welch Center for Prevention, Epidemiology and Clinical Research and the Institute for Health and Social Policy. His research focuses on housing and health, social determinants of health, and cancer health services. MD, University of California, San Francisco (2004) MHS, University of California, Berkeley (2001) MSc, University of Pennsylvania (2008) BA, Brown University (1997) Dr. Pollack’s research examines how housing policies—such as housing vouchers, mobility programs, and place-based initiatives—affect health outcomes, healthcare use, and disparities. He also investigates cancer prevention and control, with a focus on disparities, provider networks, and screening practices. His interdisciplinary work integrates public health, medicine, and policy to inform equitable interventions. His recent publications highlight the health impacts of eviction, foreclosure, housing affordability, and neighborhood environments. He has led studies on Medicaid populations, older adults, and urban communities, often using large datasets and mixed methods. His work appears in top-tier journals including JAMA, Health Affairs, and The Lancet. Robert Wood Johnson Foundation U.S. Department of Housing and Urban Development (HUD) National Institutes of Health (NIH) Dr. Pollack has authored over 100 peer-reviewed articles and mentors numerous students and early-career researchers. He leads collaborative teams across disciplines and institutions, contributing to national health policy discussions on housing, equity, and cancer care. He is actively involved in advising and research leadership, with no indication of retirement or part-time status. His work continues to shape understanding of how social and structural factors influence health and healthcare.
Johann Isaak is a leading experimental nuclear physicist serving as Head of Research Data Management and Principal Investigator (PI) of the IRTG 2891 program at the Institute for Nuclear Physics (IKP) , TU Darmstadt , Germany. His research focuses on advancing our understanding of nuclear structure through precision photonuclear experiments, particularly in the areas of the Pygmy Dipole Resonance, nuclear resonance fluorescence, and gamma-ray spectroscopy. He actively teaches specialized courses such as "Photonuclear Reactions" and contributes to interdisciplinary nuclear physics education. Research Interests: Experimental Nuclear Physics: Design and implementation of advanced detection systems like DAGOBERT for electron-gamma coincidence spectroscopy. Photonuclear Reactions: Investigating nuclear responses to real photons via quasimonoenergetic and polarized beams, focusing on dipole excitations in medium-mass nuclei. Pygmy Dipole Resonance (PDR): Pioneering studies on low-lying dipole strength, its systematic behavior across isotopic chains (e.g., Sn, Ce, Te), and implications for nuclear astrophysics. Nuclear Structure: Precision measurements of transition strengths, level densities, and gamma-ray strength functions to test theoretical models and the Brink-Axel hypothesis. Advanced Detectors and Techniques: Development of high-efficiency spectroscopy setups like y³ at HIγS and AGATA for high-resolution gamma-ray detection. Publication Trends: Isaak's recent publications (2020-2025) demonstrate a strong focus on collective nuclear excitations , evidenced by studies on giant dipole resonances, two-phonon states in Sr-88, and quadrupole excitations in tin isotopes. His collaborative work spans international facilities, including HIγS, GRAF, and Legnaro National Laboratories, highlighting his role in large-scale experimental campaigns. Scientific Contributions: Methodological Advances: Introduced model-independent approaches for determining dipole responses via (γ, γ′γ″) reactions, enhancing precision in photon strength function measurements. Experimental Leadership: Coordinated multi-institutional projects like the AGATA collaboration and NUMEN project, driving advancements in gamma-ray spectroscopy. Educational Outreach: Mentors young researchers through IRTG 2891 and contributes to foundational texts, such as chapters in the Handbook of Nuclear Physics . Collaborations and Infrastructure: Isaak leverages world-class facilities, including the S-DALINAC accelerator at TU Darmstadt and international gamma-ray sources, to probe nuclear phenomena. His leadership in research data management ensures FAIR principles are integrated into nuclear physics workflows, enhancing reproducibility and data sharing.
Tiago Mendes Ferreira is a Ramón y Cajal Researcher at the University of Santiago de Compostela (USC), affiliated with the Center for Research in Biological Chemistry and Molecular Materials (CIQUS) and the Department of Physical Chemistry. His research focuses on computational chemistry, molecular dynamics simulations, and solid-state NMR spectroscopy to study lipid membranes and their interactions with guest molecules. He previously held a Junior Research Group Leader position at Martin Luther University Halle-Wittenberg (MLU), Germany, and received a DFG grant for his work on combining MD simulations with NMR experiments. Education : Bachelor's in Theoretical Chemistry from the University of Coimbra, Portugal. PhD in Computational Chemistry (Portugal), funded by the Portuguese Foundation for Science and Technology. Postdoctoral research at the University of Paderborn and MLU, Germany. Research Interests : His work bridges computational and experimental methods to elucidate molecular mechanisms in biological membranes. Key themes include lipid membrane structure, cholesterol effects, and the integration of solid-state NMR data with molecular simulations. He develops novel methodologies for characterizing membrane systems, such as long n-alkanes and bacterial membranes. Key Contributions : Advances in ssNMR methodology for lipid systems. Development of the NMRlipids Databank for biomembrane analysis. Studies on lipid phase behavior and protein-membrane interactions. Awards & Grants : Ramón y Cajal Fellowship (2024–present). DFG Temporary Principal Investigator Grant (Germany). Labs & Teams : He leads the QTEC Group (Theoretical and Computational Chemistry) , which focuses on interdisciplinary approaches to membrane science. His group collaborates internationally on NMR-based biomembrane studies.
Memorial Sloan Kettering Cancer CenterUnited States
Stephen B. Long is a Research Professor and Member of the Structural Biology Program at Memorial Sloan Kettering Cancer Center (MSKCC). He holds a PhD from Duke University (2001) and BA from Amherst College (1994), with postdoctoral training at Rockefeller University. His lab combines structural biology techniques (cryo-EM, X-ray crystallography) with biophysics to study eukaryotic membrane proteins, focusing on ion channels (e.g., Orai, MCU, BEST1) and enzymes like ICMT. Key therapeutic areas include cancer, immune disorders, and neurological diseases. Notable achievements include determining structures of CRAC channels and mitochondrial calcium uniporter complexes. He leads the Cryo-Electron Microscopy Innovation Laboratory (CEMIL) and chairs oversight committees for advanced microscopy. Awards include the Boyer Young Investigator Award (2016) and Burroughs Wellcome Career Award (2006-2014). Education: PhD Duke University (2001), BA Amherst College (1994) Labs/Affiliations: Structural Biology Program, CEMIL Director, Sloan Kettering Institute Research emphasizes ion channel mechanisms and membrane enzyme catalysis, with applications to cancer therapy and disease modeling. The lab actively trains graduate students and postdocs in structural biology and electrophysiology techniques.
Mike Lisa is a Professor of Physics at The Ohio State University, specializing in nuclear and high-energy physics. His research focuses on quark-gluon plasma studies through heavy ion collisions and intensity interferometry applications in astrophysics. He collaborates with major facilities like RHIC, LHC, and VERITAS. Education: Ph.D. (Michigan State, 1993), M.A. (Stony Brook, 1990), B.S. (Notre Dame, 1988) Key Roles: Member of STAR and VERITAS Collaborations Research interests include hyperon polarization, vorticity in quark-gluon plasma, and adapting interferometry for astronomical imaging. Awards include APS/AAAS Fellowships, Sambamurti Prize, and multiple teaching recognitions. Publications span quark-gluon plasma dynamics, femtoscopy techniques, and astrophysical interferometry. Active in education through textbook authorship and puzzle-solving projects.
Kirsten Andrea Schnorr is a Researcher at the Paul Scherrer Institute (PSI) in Switzerland, working within the Center for Photon Science and Laboratory for Femtochemistry. She joined the SwissFEL team in 2018 to develop the Maloja endstation for atomic, molecular, and non-linear physics, leading its design, construction, and operational commissioning for cutting-edge XUV/X-ray experiments. Her educational background includes: PhD in Physics (2014), Ruprecht Karl University Heidelberg, completed at the Max Planck Institute for Nuclear Physics under PD Dr. Robert Moshammer; thesis focused on XUV pump-probe experiments of electron rearrangement and interatomic Coulombic decay in diatomic molecules. Schnorr's research centers on photo-induced ultrafast relaxation mechanisms in atoms, molecules, and nanoparticles using time-resolved techniques at Free-Electron Lasers and High Harmonic Generation sources. She pioneers multi-color pump-probe schemes with ultrashort X-ray pulses to steer non-local decay processes like Interatomic Coulombic Decay and Electron Mediated Decay, enabling real-time observation of electron dynamics and proton transfer in molecular systems. Her publication trends (2025-2020) reveal dual expertise in fundamental molecular dynamics and instrumental innovation. Key themes include proton transfer in water dimers (Science Advances 2023), Coulomb explosion in iodinated compounds (2025), and engineering breakthroughs like compact gas attenuators (2023) and polarization control systems (2024), frequently published in Physical Review Letters, Nature Communications, and Journal of Synchrotron Radiation. Scientific awards: Peter Paul Ewald Fellowship from the Volkswagen Foundation (2015), supporting her research on non-linear relaxation processes at UC Berkeley's Physical Chemistry Department under Prof. Stephen Leone. No formal advisees or student supervision are documented. The Volkswagen Foundation fellowship served as her primary grant, funding postdoctoral work on real-time relaxation studies; no additional grants are specified. Her instrumental leadership at SwissFEL suggests mentorship of junior scientists, though no individual students are named. Schnorr directs the Maloja instrument at SwissFEL while contributing to the ATHOS beamline development. She collaborates extensively with PSI's detector teams (e.g., JUNGFRAU advancements) and international groups like UC Berkeley's Physical Chemistry Department, driving initiatives in ultrafast beamline technology and molecular dynamics experiments.
University of Natural Resources and Life Sciences ViennaAustria
Tim Causon is an Associate Professor at the Institute of Analytical Chemistry, Department of Chemistry, University of Natural Resources and Life Sciences (BOKU) in Vienna, Austria. With a PhD from the University of Tasmania and habilitation in analytical chemistry, he has established himself as a leading expert in mass spectrometry and metabolomics applications. His research focuses on developing advanced analytical methods with particular emphasis on ion mobility mass spectrometry techniques and their applications in biotechnology and metabolomics. Dr. Causon's research interests center on method development for mass spectrometric analyses in metabolomics, particularly for biotechnology and bioprocess engineering applications. His work explores fundamental studies of molecular ions and analytical applications of ion mobility mass spectrometry (IM-MS), with significant contributions to capillary electrophoresis, chromatography, and metabolomics. His laboratory develops innovative approaches for metabolite identification, structural characterization, and quantitative analysis, with applications spanning from bioproduction to environmental analysis. His recent publications demonstrate a strong focus on advancing ion mobility mass spectrometry techniques, with particular attention to collision cross section measurements, metabolite identification, and method development for complex biological and environmental samples. His work spans fundamental studies of ion behavior to practical applications in biotechnology, food science, and environmental analysis. Scientific Awards: Fritz Feigl Award from the Austrian Society of Analytical Chemistry (2022) Dr. Causon has successfully secured substantial research funding through numerous projects, including the EU-funded MobiliTraIN: Ion Mobility-Mass Spectrometry Training Network (2024-2028) and several industry collaborations. He has supervised multiple doctoral and master's students whose work focuses on analytical method development, metabolomics, and ion mobility applications. His laboratory maintains strong collaborations with both academic and industrial partners across Europe. As an active member of the scientific community, Dr. Causon organizes major conferences such as the IMS Symposium 2023 and serves on editorial boards and as a reviewer for leading analytical chemistry journals. His laboratory is well-equipped for advanced mass spectrometry research with multiple ion mobility-capable mass spectrometers and complementary analytical instrumentation.
