Dr. Suchitra Narayanan is a Research Fellow at the Center for Astrochemical Studies (CAS), a specialized research group within the Max Planck Institute for Extraterrestrial Physics (MPE) in Garching, Germany. Her role focuses on advancing scientific understanding of molecular processes in space through dedicated research activities at this world-renowned astrophysics institution. Her primary research interests encompass astrochemistry and astrophysics , with particular emphasis on chemical reactions and molecular composition in interstellar and circumstellar environments. This work is fundamental to unraveling star formation mechanisms, planetary system origins, and the chemical evolution of the universe, integrating observational astronomy, theoretical modeling, and laboratory simulations. As an integral member of the Center for Astrochemical Studies, Dr. Narayanan collaborates within a multidisciplinary team utilizing cutting-edge facilities including space telescopes, ground-based observatories, and advanced laboratory instrumentation to investigate the molecular universe.
Jason Nordhaus is an Associate Professor in the Department of Science and Mathematics at the National Technical Institute for the Deaf (NTID), part of the Rochester Institute of Technology (RIT). He joined NTID in 2014 and is a core faculty member of the Center for Computational Relativity and Gravitation (CCRG). Nordhaus holds a Ph.D. from the University of Rochester and previously worked at Princeton University. His research focuses on astrophysical phenomena such as common envelope evolution, binary star interactions, core-collapse supernovae, and planetary nebulae formation. He is also dedicated to expanding STEM opportunities for deaf and hard-of-hearing students through initiatives like AstroDance , a project using dance to communicate astrophysical concepts. Education: BA, BS, MS, Ph.D. from the University of Rochester. Research Interests: Nordhaus investigates magnetic fields in evolved stars, common envelope evolution, gravitational waves, and the dynamics of close binary systems. His work bridges computational astrophysics with observational studies, leveraging high-resolution data from missions like JWST to explore stellar death processes. He collaborates on projects funded by NSF and NASA, including studies of planetary nebulae shaping and relativistic effects in common envelopes. Grants & Outreach: Nordhaus has secured grants to advance multi-messenger astrophysics and improve STEM accessibility for underrepresented groups. Notable projects include the RITTU Partnership and Lost in Translation , addressing barriers for deaf students. His research has been featured in Nature Astronomy , Monthly Notices of the Royal Astronomical Society , and other journals. Affiliations: Core faculty at CCRG, member of the NSF Astronomy and Astrophysics Postdoctoral Fellow program, and contributor to initiatives promoting inclusive science education.
Dr. Samuel Pfyffer serves as a Researcher at the Research Department within the Vice Rectorate for Research at Bern University of Applied Sciences (BFH). His professional focus centers on research infrastructure and Open Science initiatives, specifically managing the Research Information System (RIS) and advancing Open Research Data practices. His research interests span both technical and scientific domains, with primary focus areas in Open Science , Research Data Management , and Digital Infrastructure . Earlier in his career, he conducted research in Planetary System Formation and Statistical Algorithms , as evidenced by his publications in astronomy and computational statistics. Pfyffer's recent work demonstrates a clear transition from theoretical research to research administration and infrastructure development. His 2023 publication on the "Data Stewards" action plan reflects his current role in implementing BFH's Open Science Strategy, moving from his earlier work in planetary formation models and statistical algorithms. His educational background includes a Dr. phil.-nat. from the University of Bern (2009-2013), a Bachelor of Science in Mathematics (2008-2009), and a Dipl. Phys. from the same institution (2002-2007). Dr. Pfyffer is fluent in German, French, and English, with basic Japanese knowledge, reflecting his multilingual capabilities in academic and professional contexts.
Courtney Jean Rundhaug is a Postdoctoral Researcher (Research Fellow) at the Centre for Star and Planet Formation within the Globe Institute at the University of Copenhagen. Her research interests include: Planetary Science Geochemistry Isotope Geochemistry Meteoritics Impact Cratering She investigates isotopic signatures in extraterrestrial materials and impact products to reconstruct planetary formation histories and major events like the Chicxulub impact. Her work integrates high-precision laboratory measurements with thermodynamic modeling of impact plumes and planetary accretion processes. Her recent publications in Earth and Planetary Science Letters (2025) and Science Advances (2022) demonstrate expertise in applying isotope geochemistry to solar system evolution, with particular focus on Earth's impact history and volatile delivery mechanisms to Mars. These studies highlight cross-disciplinary connections between meteoritics, planetary geology, and cosmochemistry.
Andrea Bellini is a Researcher at the Space Telescope Science Institute (STScI), specializing in observational astronomy with Hubble and James Webb Space Telescopes. His work centers on high-precision astrometry of star clusters across the Milky Way and Magellanic Clouds, focusing on internal kinematics, multiple stellar populations, and cluster dynamics. Bellini's research spans globular clusters (e.g., Omega Centauri, 47 Tucanae, NGC 2808), open clusters, and dwarf galaxies. He pioneers proper motion measurements to study stellar rotation, black holes, planetary nebulae membership, and dark matter distributions. His methodology integrates HSTPROMO and oMEGACat survey data with cutting-edge JWST observations. Recent publications reveal three dominant research thrusts: (1) Kinematic analysis of cluster populations using multi-epoch HST data, (2) JWST-enabled studies of low-mass stellar objects and intracluster media, and (3) Development of Roman Space Telescope instrumentation tools. His work consistently demonstrates leadership in large collaborations like CARMA and HST legacy programs. Bellini actively contributes to mission-critical software development, including the Astronomer's Proposal Tool for the Roman Space Telescope and desktop simulators. His research directly enables breakthroughs in galactic archaeology and stellar evolution through precise dynamical modeling of cluster systems.
Dr. Julián Alvarado-Gómez is a Senior Scientist at the Leibniz Institute for Astrophysics Potsdam (AIP), specializing in stellar magnetism, solar-stellar connections, and exoplanetary space weather. He leads research in the Stellar Physics and Exoplanets section at AIP, with a focus on understanding magnetic fields and their influence on stellar activity, winds, and planetary environments. His research interests span several key areas: Magnetic fields and their influence over activity, winds and the environment around the Sun and other late-type stars Magnetic and activity cycles, solar corona, transient events (flares/CMEs), solar wind and space weather Solar-Stellar connection, coronae and winds, exo-space weather Stellar magnetism in young Sun-like stars and M-dwarf systems Dr. Alvarado-Gómez's recent publications demonstrate a strong focus on coronal mass ejections across different stellar types, stellar wind properties, and the space environment around exoplanets. His work combines observational data from major telescopes with sophisticated magnetohydrodynamic (MHD) numerical simulations to model stellar magnetic phenomena and their implications for planetary habitability. The research spans from solar physics to exoplanetary systems, with particular emphasis on understanding how stellar activity affects planetary atmospheres and potential habitability. His notable scientific achievements include: 2019 recipient of the Karl Schwarzschild Fellowship at the Leibniz Institute for Astrophysics Potsdam (AIP) Cover Story of Science News Magazine (Vol. 196, Issue No. 6, 28 Sep. 2019) Dr. Alvarado-Gómez has successfully led multiple major observing campaigns across various facilities including HST, XMM-Newton, ESO 3.6m, and supercomputing resources like NASA's Pleiades. His collaborative work spans institutions worldwide, demonstrating strong leadership in projects such as 'The Far Beyond the Sun Campaign' which received top-ranked status for 6 consecutive observing semesters. He maintains active research groups focused on stellar activity, space weather, and exoplanetary environments, utilizing advanced observational techniques including spectro-polarimetry with NARVAL, ESPaDOnS, and HARPS, combined with 3D MHD numerical simulations.
Dr. Balz S. Kamber is a distinguished professor of geochemistry with over two decades of research experience, evidenced by 243 publications spanning from 2003 to 2025. His scholarly work focuses on the geochemical evolution of Earth, particularly the early history of our planet, mantle processes, and crustal formation. Dr. Kamber has published extensively in top-tier journals including Nature, Nature Communications, and Earth and Planetary Science Letters, demonstrating significant contributions to Earth sciences. Dr. Kamber's research spans multiple interconnected domains of Earth sciences. His primary expertise lies in isotope geochemistry, where he has pioneered methods for analyzing lead, sulfur, and rare earth element systems to unravel Earth's early history. His work on Archean geology has provided crucial insights into the formation of continental crust and mantle processes during Earth's formative years. Notably, his research integrates advanced analytical techniques with theoretical modeling to understand fundamental planetary processes, with particular emphasis on high-precision geochemical measurements and innovative imaging methods. Analysis of Dr. Kamber's publication trends reveals a clear evolution toward more sophisticated analytical approaches. His recent work (2022-2025) increasingly incorporates machine learning algorithms and advanced computational techniques for processing geochemical data. This interdisciplinary approach bridges traditional geoscience with data science, enabling more nuanced interpretations of complex geological systems. His research consistently addresses fundamental questions about planetary formation while developing methodological innovations that advance the entire field of geochemistry. Dr. Kamber's collaborative network spans the global geoscience community, with co-authors from numerous international institutions. His work on analytical methods suggests leadership in laboratory facilities for advanced geochemical analysis, including mass spectrometry and microscopy equipment. The breadth of his research topics indicates involvement in multiple projects addressing different aspects of Earth's geochemical evolution, from early crust formation to modern analytical techniques.
Luciano Iess is a Professor in the Department of Aerospace Engineering at Sapienza University of Rome. He is a leading expert in planetary radio science with significant contributions to major space missions including BepiColombo (Mercury), Juno (Jupiter), Cassini (Saturn), and future missions like VERITAS (Venus). Professor Iess's research focuses on planetary gravity field measurements , spacecraft navigation , testing general relativity , and studying planetary interiors . His work combines theoretical physics with practical space mission applications to advance our understanding of planetary formation and evolution. He has made substantial contributions to the development of radio science techniques for determining planetary gravity fields, rotational states, and testing fundamental physics in the solar system. His recent publications demonstrate a strong emphasis on Venus gravity field mapping with the VERITAS mission, analysis of Jupiter's interior structure using Juno gravity data, and innovative techniques for spacecraft navigation and radio science experiments. His research spans multiple planetary bodies including Mercury, Venus, Earth, Mars, Jupiter, Saturn, and their moons, with particular focus on using precise radio tracking data to extract geophysical information. Professor Iess has been instrumental in the Mercury Orbiter Radio science Experiment (MORE) on BepiColombo, the gravity science investigation on Juno, and previous work on Cassini radio science data. His expertise in radio science and planetary geodesy has provided critical insights into the internal structures of planets and moons throughout the solar system. He collaborates extensively with international space agencies including ESA and NASA, and his work has been published in leading journals such as Nature, Science, The Planetary Science Journal, and Icarus. His research bridges the disciplines of aerospace engineering, planetary science, and fundamental physics.
Alexandre Payez is a Remote Sensing Researcher at the Royal Netherlands Meteorological Institute (KNMI) in De Bilt, Netherlands, working within the R&D Satellite Observations department. His career includes significant positions as a Remote Sensing Researcher at the Royal Meteorological Institute of Belgium (2019-2021) and as an ESA Internal Research Fellow at the European Space Agency's Flight Dynamics section in Darmstadt, Germany (2015-2017). Earlier, he served as a volunteer teaching assistant for Lagrangian Mechanics and Special Relativity at the University of Liège's Department of Astrophysics, Geophysics and Oceanography (2009-2012). Payez's research spans two interconnected domains. His early work (2008-2016) focused on theoretical particle physics, particularly using astronomical observations to constrain axion-like particles through quasar polarization studies and supernova data. His later research (2017-2025) shifted toward applied Earth observation, developing methods to analyze extreme wind speeds, hurricane trends, cloud motions, and Earth's radiation budget using satellite data. This evolution demonstrates his unique ability to apply fundamental physics principles to practical climate monitoring problems. His publication record reveals a sophisticated analytical approach across disciplines. The recent work on extreme value methods for hurricane wind trends and phantom motion in ocean observations showcases innovative statistical techniques applied to climate data. Meanwhile, his earlier research on axion-like particles established important constraints using quasar polarization measurements, contributing to the understanding of potential dark matter candidates. Both research streams demonstrate exceptional mathematical rigor and cross-disciplinary thinking. Payez has published 26 scientific papers accumulating 1,973 reads and 939 citations. His most significant collaborations include work with Jean-René Cudell from the University of Liège, Andreas Ringwald from Deutsches Elektronen-Synchrotron, Ad Stoffelen from KNMI, and Dominique Sluse from the University of Liège. His research continues to evolve with current work focused on climate change detection through analysis of extreme weather events using satellite observations.
Roles and Affiliations: Dustin Schroeder is an Associate Professor of Geophysics and of Electrical Engineering at Stanford University, and a Senior Fellow at the Woods Institute for the Environment. He leads the Stanford Radio Glaciology group, focusing on advancing radar technologies for ice-sheet observation. Research Interests: His work integrates radar engineering and Earth system science to study ice-water interactions in polar regions and icy moons. Key areas include subglacial dynamics, ice-sheet stability, and Europa exploration. He develops innovative radar systems like ORCA and MAPPERR for high-resolution subsurface imaging and environmental monitoring. Labs/Teams: He directs the Stanford Radio Glaciology group, collaborating on projects such as the Europa Clipper mission and BEDMAP3 ice-sheet mapping. His work bridges geophysics, electrical engineering, and planetary science, emphasizing interdisciplinary approaches. Grants and Projects: Involved in NASA missions (e.g., Europa Clipper) and international collaborations like ROSETTA-Ice. His research addresses urgent climate questions, such as Antarctica's contribution to sea-level rise and ice-shell processes on icy moons.
Dr. Gabriel Filippelli is a Chancellor's Professor of Earth Sciences and Executive Director of Indiana University's Environmental Resilience Institute. His research in biogeochemistry examines climate change, pollution dynamics, and environmental health. He leads interdisciplinary projects on urban pollution, lead exposure, and climate impacts, leveraging community science for actionable data. His publications focus on environmental contaminants, biogeochemical cycling, and climate-health interactions. Awards include the Fulbright Distinguished Chair (2022) and Geochemical Society's Ingerson Lectureship (2021). As Editor-in-Chief of GeoHealth, he advances research at the environment-health nexus.
David Evans is a Professor of Earth & Planetary Sciences at Yale University, specializing in continental reconstructions, supercontinents, and paleomagnetism. His research explores the long-term evolution of Earth's geodynamics, tectonics, climate, and life using field and laboratory-based paleomagnetic methods. Current projects span global field locations including Angola, Australia, Brazil, Canada, and more. Education: B.S. Yale University (1992), M.S. and Ph.D. Caltech (1998) Research Focus: Proterozoic geomagnetic field characteristics, supercontinent cycles (Rodinia, Nuna), and the interplay between tectonics and climate. Labs: Director of the Yale Paleomagnetic Laboratory, featuring advanced facilities for directional and rock magnetic analysis. Recent work includes studies on mid-Proterozoic geomagnetic field behavior, Neoproterozoic glacial paleolatitudes, and the assembly of Rodinia. Collaborations involve international researchers and institutions, with emphasis on paleomagnetic data integration for tectonic reconstructions.
Jacques Gauthier is a Professor of Earth & Planetary Sciences and Curator at Yale University. His research focuses on vertebrate paleontology, reptile and bird evolution, and phylogenetic systematics. He holds a B.S. (Zoology, 1973), M.S. (Biology, 1980), and Ph.D. (Paleontology, 1984) from San Diego State University and University of California, Berkeley. His work combines fossil analysis with molecular data to reconstruct evolutionary relationships. Key contributions include studies on turtle origins, snake evolution, and the development of phylogenetic nomenclature (PhyloCode). He teaches courses like Vertebrate Paleontology and Systematics Discussion Group. His research spans reptile phylogeny, dinosaur metabolism, and the impact of mass extinctions on biodiversity. Active in curating the Yale Peabody Museum’s collections, he collaborates on projects involving fossil imaging and genomic analysis to resolve evolutionary debates.
Natalya Gomez is an Associate Professor in the Department of Earth and Planetary Sciences at McGill University, where she holds a Canada Research Chair in Geodynamics of Ice Sheet-Sea Level Interactions. She is affiliated with the Trottier Space Institute and conducts interdisciplinary research at the intersection of geophysics and climate science. Her research examines ice sheet-sea level-solid Earth interactions in response to past, present, and future climate changes. Primary interests include Antarctic ice dynamics, glacial isostatic adjustment, sea level projections, and coupled Earth system modeling. She develops numerical models to understand feedback mechanisms between cryospheric, oceanic, and geodynamic processes. Publications demonstrate consistent focus on polar processes, with recent advances in 3D mantle viscosity modeling, ice-ocean interactions, and coastal vulnerability assessment. Article trends reveal methodological innovations in satellite geodesy, paleoclimate reconstructions, and ensemble modeling approaches. Scientific Awards & Honors: Arthur B. McDonald Fellowship (NSERC, 2024) IUGG Early Career Scientist Award (2023) AGU Cryosphere Early Career Award (2019) Current research involves international collaborations including the ISMIP7 model intercomparison project for IPCC AR7. She leads significant fieldwork programs in Greenland and supervises multiple graduate students on projects ranging from exoplanet ice dynamics to coastal infrastructure vulnerability.
Alessandro Morbidelli is a Professor at the Collège de France, holding the Chair in Planet Formation: from Earth to Exoplanets, and a Researcher at the C.N.R.S. within the Lagrange Laboratory at the Observatoire de la Côte d’Azur. Born in Italy in 1966, he earned his Master’s in Physics from the University of Milan and his Ph.D. in Mathematics from the University of Namur, Belgium. His roles include Director of the French National Programme for Planetary Science (2010–2018) and Deputy Director of the Lagrange Laboratory. His research focuses on Celestial Mechanics, Solar System and extrasolar planet formation, and dynamical systems. Key contributions include studies on planetesimal dynamics, planetary migration, and the origin of water in the Solar System. Morbidelli has advised numerous PhD students and postdoctoral researchers, mentoring over 20 scholars since 1994. His awards include the ERC Advanced Grant (2020), Urey Prize (2000), and Bronze Medal from C.N.R.S. (1995). He has authored over 250 refereed publications and a seminal textbook, Modern Celestial Mechanics . His work bridges theory and observation, influencing planetary science paradigms. Morbidelli leads projects like the HolyEarth ERC initiative and coordinates the C4PO consortium. He actively participates in international conferences, editorial roles, and outreach, including the MOJO Project educational videos on planet formation.
