Professor Ed Daw is affiliated with the University of Sheffield as a Professor of Gravitational Waves and Dark Matter Physics. His research focuses on experimental searches for dark matter, gravitational wave detection, axion physics, and advanced signal processing techniques. University: University of Sheffield School: School of Mathematical and Physical Sciences Research Interests: Dark matter, gravitational waves, axions, signal processing, dynamic wave tracking Recent Publications (2023–2025) span gravitational wave detection (e.g., eccentric black hole mergers, magnetar bursts), dark matter research (axion searches in ADMX and LIGO data), and signal processing innovations. Collaborative work includes LIGO, Virgo, and KAGRA detector networks. He is involved in multi-messenger astronomy initiatives, calibrating gravitational wave detectors, and developing noise-reduction strategies for advanced physics experiments.
Federico Ribalta is an Adjunct Research Fellow at The University of Western Australia's School of Agriculture and Environment, with extensive expertise in plant breeding and biotechnology. He is actively involved in pulse crop improvement research, focusing on accelerated breeding techniques and physiological trait development. His educational background includes a Master's degree in Agriculture with research focused on "Molecular characterisation of Medicago truncatula regenerants" awarded on July 20, 2023. Ribalta's research interests center on plant breeding, germplasm evaluation, genetics, tissue culture for plant breeding, and biotechnology applications in agriculture. His work particularly emphasizes pulse crops including pea, lentil, chickpea, and lupin, with focus areas in flowering time control, disease resistance, waterlogging tolerance, and accelerated generation turnover techniques. His publication record shows a strong focus on developing and implementing accelerated breeding technologies, with recent work (2021-2025) emphasizing molecular approaches to flowering time control, disease resistance mechanisms, and innovative generation cycling methods. His research spans both fundamental plant physiology and applied crop improvement, with a consistent emphasis on translating discoveries into practical breeding applications. Ribalta has secured significant research funding, including projects with the Grains Research & Development Corporation (GRDC), NSW Department of Trade & Investment, and Department of Jobs, Precincts and Regions (Victoria). His collaborative work involves multiple research institutions and industry partners focused on pulse crop improvement. He maintains an active external position as Plant Growth Facilities Manager at InterGrain Pty Ltd since September 27, 2020, demonstrating strong industry-academia connections in the agricultural research sector.
Michael Coughlin is an Assistant Professor of Physics at the University of Minnesota , affiliated with the School of Physics and Astronomy . He specializes in multi-messenger astronomy , combining gravitational wave and electromagnetic observations to study cosmic events like neutron star and black hole mergers. His work involves collaborations with major projects including LIGO , Zwicky Transient Facility (ZTF) , and LSST . Education PhD in Physics, Harvard University (2016) AM in Physics, Harvard University (2015) MPhil in Astronomy, Cambridge University (2013) BA in Physics, Astronomy & Math, Carleton College (2012) His research focuses on gravitational wave detection , seismic noise mitigation , and machine learning applications in astronomy . He has developed novel algorithms for LIGO data analysis and contributed to global telescope networks like GRANDMA and GROWTH to optimize transient event follow-up. His work also explores the stochastic gravitational-wave background and kilonova detection limits using optical telescopes. Michael actively participates in public outreach , including the Galtier Elementary Outreach Program through the Accelerated AI Algorithms Institute (a3ai3). He has presented at international conferences on topics ranging from seismic noise effects to LISA mission planning . His recent publications analyze gravitational wave detection challenges and calibration strategies for next-generation observatories.
Lucia Gordon is a PhD Candidate in Computer Science at Harvard University’s School for Engineering and Applied Sciences, where she is affiliated with Andrew Davies’ lab and the Pioneer Centre for Artificial Intelligence in Denmark. She is associated with Christian Igel’s and Serge Belongie’s groups at the University of Copenhagen, focusing on machine learning applications for Earth observation data and remotely sensed imagery. Education : A.B. in Physics and Mathematics from Harvard College (2018–2022); currently pursuing a PhD in Computer Science at Harvard (2022–present). Her research bridges Computer Vision , Active Learning , Multimodal Data Analysis , and Dataset Imbalance in ecological contexts. She is an NSF Graduate Research Fellow and has received academic distinctions including Magna Cum Laude, Highest Honors in Physics & Mathematics, Phi Beta Kappa, John Harvard Scholar, National Merit Scholar, and Scholastic Art & Writing Awards. Recent publications highlight her work on machine learning for Earth observation , with emphasis on ecological modeling , multimodal fusion , and active learning techniques. Her contributions span venues like ECAI, ECCV workshops, IJCAI, Monthly Notices of the Royal Astronomical Society, and Physical Review D. Scientific Awards : NSF Graduate Research Fellow Magna Cum Laude Highest Honors in Physics & Mathematics Phi Beta Kappa John Harvard Scholar National Merit Scholar Scholastic Art & Writing Awards Gold Key Scholastic Art & Writing Awards Gold Medal Lucia develops machine learning tools for ecological sustainability, leveraging statistical and algorithmic methods to address challenges in biodiversity monitoring and environmental data analysis. She actively participates in AI for Social Impact and BIOSPACE communities, presenting at conferences like AAAI, ECCV, ECAI, and BIOSPACE.
Peter L. Galison is the Joseph Pellegrino University Professor at Harvard University in the Department of the History of Science within the Faculty of Arts and Sciences. He currently directs the Black Hole Initiative at Harvard, a leading center for interdisciplinary research on black holes that brings together physicists, philosophers, and historians. Galison's scholarly work bridges multiple disciplines with particular focus on: Material culture of scientific practice and instrumentation History and philosophy of physics, especially experimental traditions Visual representation and imaging in scientific discovery Gender dynamics in scientific labor and knowledge production Black hole research and astrophysics Nuclear weapons history and technological legacy His research trajectory shows an evolution from historical studies of 20th century physics practices to contemporary engagement with cutting-edge astrophysics research. Galison uniquely combines traditional academic scholarship with documentary filmmaking to explore how scientific knowledge is constructed through material practices and visual representations. His most recent work demonstrates increasing focus on interdisciplinary approaches to black hole research, using both historical analysis and contemporary scientific collaboration to examine how visual representations shape scientific understanding of these extreme cosmic phenomena. As a University Professor at Harvard—one of the institution's highest academic honors—Galison has established himself as a leading figure in the history and philosophy of science through his influential publications and innovative multimedia projects. His leadership of the Black Hole Initiative exemplifies his commitment to breaking down disciplinary boundaries, fostering dialogue between historians, philosophers, and practicing scientists working at the frontiers of astrophysics.
Andrew J Olnas serves as an Assistant Research Scientist specializing in Wetland Plant Ecology at the Illinois Natural History Survey, University of Illinois Urbana-Champaign. His research focuses on comparative analysis of plant communities across natural, degraded, and mitigation bank wetlands to advance ecological restoration practices. His core research domains include Wetland Ecology, Plant Community Dynamics, and Ecological Engineering, with specific expertise in mitigation banking efficacy and wetland quality assessment. Olnas investigates how restored wetlands develop functional plant communities relative to both degraded natural systems and high-integrity reference wetlands, addressing critical gaps in conservation science. His 2022 Ecological Engineering publication established that mitigation banks consistently outperform degraded natural wetlands in plant community quality but remain inferior to high-quality natural wetlands, revealing both the potential and limitations of current restoration frameworks. This work has generated significant scholarly engagement with 8 citations and 24 reader captures. Dr. Olnas operates within the Wetland Plant Ecology research group at the Illinois Natural History Survey, contributing to evidence-based wetland management policies through empirical field studies. No information regarding student mentorship or grant funding was documented in the available materials.
Benjamin Feldman is a prominent researcher affiliated with SLAC National Accelerator Laboratory and Stanford University. Holding a Ph.D. in Physics from Harvard University (2013) and an M.S. from Haverford College (2007), his research focuses on quantum computing, quantum networks, and quantum memory systems. Education: M.S., Haverford College, Physics (2007) Ph.D., Harvard University, Physics (2013) His work explores modular quantum architectures, stoichiometric crystals for memory applications, and hybrid systems for quantum technologies. Recent research trends indicate strong emphasis on practical implementations of quantum communication and fault-tolerant computing frameworks. Notable scientific awards include Dicke Postdoctoral Fellow, Princeton University (2013-2016) Kavli Frontiers of Science Fellow (2018) Terman Faculty Fellow, Stanford University (2018-2020) Sloan Research Fellow (2019-2021)
Lydia Patton is a Professor of Philosophy at the Virginia Tech and an affiliate in the Department of Science, Technology, and Society . Her work bridges the philosophy of science and the history of the philosophy of science , with a focus on the evolution of experimental and formal methods , hypotheses , and scientific communities . She investigates the interplay between differential equations and their application in physical theories , particularly in fluid dynamics and gravitational wave astronomy . Patton is a founding member of the VT Gravity Lab and serves as the Editor-in-Chief of the journal HOPOS . She is also the Series Editor of the Palgrave-Springer series New Directions in the Philosophy of Science . Her editorial contributions include Philosophy, Science, and History (Routledge, 2014) and the co-edited collection Laws of Nature (Oxford University Press, 2018). Key Research Themes : Epistemological questions in gravitational wave astronomy and fluid dynamics. Heuristic structural reasoning in solving complex equations like Navier-Stokes. Historical analysis of methodological transformations in physics and mathematics. Intersections of theory testing and empirical validation in general relativity and astrophysics. Recent publications in Studies in History and Philosophy of Modern Physics (2020), Journal for General Philosophy of Science (2019), and Synthese (2015) highlight her expertise in scientific realism , methodological analysis , and historical epistemology . Her upcoming role as the Findlay Visiting Professor at Boston University (2022) underscores her national and international influence. Awards and Leadership : Editor-in-Chief, HOPOS (2020–). Series Editor, New Directions in the Philosophy of Science (Springer). Co-editor, Laws of Nature (Oxford University Press, 2018). Her lab, the VT Gravity Lab , fosters interdisciplinary collaboration between philosophy, physics, and engineering, particularly in the context of LIGO and gravitational wave detection. This work explores the philosophical implications of scientific modeling and measurement in astrophysics .
David Gordon serves as Professor and Chair of BBA programs in Accounting, Entrepreneurship, Finance, and Healthcare Management at the University of St. Francis since 2008. Holding a D.B.A. from Argosy University, he has established significant scholarly contributions in economics and finance, recognized by the University of St. Francis Achievement in Scholarship Award (2015). His educational background includes: B.A., University of South Florida M.A., University of South Florida D.B.A., Argosy University Gordon's research critically examines intersections between economic theory and practical applications, with particular focus on behavioral economics deficiencies, Federal Reserve policy mechanisms, and financial education methodologies. His work challenges lexicographic preference models while analyzing thick indifference curves in consumer behavior. He has extensively documented the global ramifications of monetary policy tools and developed pedagogical frameworks for capital asset pricing applications in economic contexts. His publication trajectory reveals consistent emphasis on real-world economic problem-solving, evolving from foundational work on production functions (2010-2011) toward contemporary analyses of healthcare surcharges (2021) and Fed policy tools (2019-2020). Behavioral economics critique remains a throughline, complemented by growing attention to student financial literacy and real estate economics. Key recognitions include: Acton Institute Good Society Grant (2019) University of St. Francis Achievement in Scholarship Award (2015) Multiple 'Best Paper' selections at American Society of Business and Behavioral Sciences conferences across General Economics, Applied Economics, and National/International Issues tracks While specific student mentorship details aren't provided, his research demonstrates sustained grant support through awards like the Acton Institute grant. His scholarly output shows consistent conference participation and journal publications addressing both theoretical economic questions and practical financial education needs. The 2014 'Best Manuscript' selection for work on long-term financial theories highlights the applied relevance of his research.
Michael D.C. Evans is an Assistant Professor in the Department of Oncology at McGill University and a Clinical Physicist at the Department of Medical Physics, McGill University Health Centre . His work bridges clinical practice and academic research in medical physics. Education : BA in Life Sciences from Queen's University (1981), MSc in Medical Physics from McGill University (1985) Research Interests include: HDR brachytherapy for cancer treatment Radiation safety protocols and Class II nuclear facility management Total body irradiation (TBI) technique development Dosimetry for eye plaque treatments in choroidal melanoma Innovation in Linac calibration using novel detectors Publications highlight his focus on Monte Carlo simulations for dosimetry, biological effectiveness of radiation modalities, and laser-induced ionizing radiation sources. His work spans clinical applications, computational modeling, and translational research. Scientific Awards : Fellow, Canadian College of Physicists in Medicine (FCCPM) since 1989 NY State License in Therapeutic Radiology (2002) Canadian Nuclear Safety Commission Certified Radiation Safety Officer (RSO) since 2010
Tajron Jurić is a researcher at the Ruđer Bošković Institute, leading the Quantum Gravity Group within the Division of Theoretical Physics. His work focuses on quantum gravity, noncommutative geometry, and black hole thermodynamics, with collaborations across Croatia, India, and France. PhD in Physics (2014), Faculty of Science, University of Zagreb Master’s in Physics (2011), Faculty of Science, University of Zagreb His research explores the intersection of quantum mechanics and gravity, particularly through: Noncommutative spacetime models (κ-Minkowski) Quantum gravity phenomenology via black hole entropy and quasinormal modes Nonlinear electromagnetic fields in curved spacetime Self-adjointness in quantum observables Structural implications of noncommutative geometries The 15 most recent publications reveal a consistent emphasis on quantum gravity effects, entropy quantization, and nonlinear field dynamics, with methodological roots in noncommutative geometry and κ-deformed algebras. He actively contributes to: Developing noncommutative black hole models Investigating quantum spacetime perturbations Elucidating thermodynamic properties of modified black holes Advancing mathematical frameworks for quantum gravity
Dmitry Gourevitch is a Professor in the Faculty of Mathematics and Computer Science at the Weizmann Institute of Science, Israel. His research focuses on Representation Theory and Algebraic Geometry, particularly on reductive groups over local fields and Gelfand pairs. Current PhD students: Shachar Carmeli and Alexander Shamov Past students include Boaz Elazar, Ary Shaviv, and Itay Glazer Postdoctoral fellows: Zhuohui Zhang and Hengfei Lu Research Interests : Representation theory of reductive groups, Gelfand pairs, automorphic forms, and harmonic analysis on p-adic groups. His work often intersects algebraic geometry and invariant theory. Recent Publications : Recent articles explore hypergeometric orthogonal polynomials, symplectic complexity of group actions, and generalized Whittaker models. Key themes include Fourier coefficients of automorphic forms, holonomic distributions, and applications to Gelfand pairs. Teaching : Fall 2025: Generalized Functions Spring 2025: Algebraic Theory of D-Modules Past courses include representation theory, D-modules, and automorphic forms
Patrick C. Cartwright, MD , is a board-certified pediatric urologist and Professor in the Department of Surgery at the University of Utah , with an adjunct appointment in Pediatrics. He practices at Primary Children’s Hospital and Lehi campus, providing specialized care for pediatric urologic conditions. Medical Degree: University of Texas Southwestern Medical School Residency: University of Utah School of Medicine (General Surgery and Urology) Fellowship: Children’s Hospital of Philadelphia (Pediatric Urology) Dr. Cartwright’s research focuses on surgical safety, quality improvement in pediatric urology, and optimizing outcomes for conditions like UPJ obstruction and vesicoureteral reflux. His work includes pioneering surgical techniques and advancing outpatient procedures. He has held national leadership roles, including former president of the Society for Pediatric Urology and the AUA-Western Section, and serves on the Children's Surgery Verification Committee for the American College of Surgeons. Publications and patents highlight his contributions to surgical innovation, particularly in pudendal nerve stimulation and bladder autoaugmentation. He has authored numerous peer-reviewed articles and textbook chapters, emphasizing minimally invasive approaches and clinical excellence.
Professor Baojiu Li is a faculty member in the Department of Physics at Durham University, where he also holds a position at the Institute for Computational Cosmology. His research focuses on theoretical cosmology, particularly on modified gravity theories and their implications for large-scale structure formation in the universe. With a strong background in both theoretical physics and computational methods, Professor Li has made significant contributions to our understanding of cosmic acceleration, gravitational physics, and numerical simulations of cosmological structures. Professor Li received his PhD in Applied Mathematics from Queens' College, University of Cambridge (2006-2009), followed by an MPhil in Physics from The Chinese University of Hong Kong (2004-2006), and a BSc in Physics from Tsinghua University, Beijing, China (2000-2004). His academic career began with research positions at the University of Cambridge (2009-2011) before joining Durham University in 2011 as a Lecturer in Theoretical Astrophysics, progressing to Senior Lecturer (2011-2014), Reader (2016-2019), and ultimately Professor. Professor Li's research interests center around accelerated cosmic expansion and cosmological tests of gravity, large-scale structure formation, weak gravitational lensing, numerical simulations of cosmological structures, cosmic voids, and numerical relativity. He has pioneered advanced computational methods for simulating modified gravity models, particularly focusing on f(R) gravity and other alternative theories to general relativity. His work bridges theoretical predictions with observational cosmology, developing innovative techniques to test gravity on cosmological scales through galaxy clustering, weak lensing, and cosmic void statistics. Professor Li's extensive publication record demonstrates a consistent focus on modified gravity theories and their observational signatures. His recent work (2023-2025) shows increasing sophistication in computational approaches, with significant contributions to the development of emulators for modified gravity simulations, advanced numerical relativity solvers, and machine learning applications in cosmology. His research spans both theoretical developments and practical applications for upcoming cosmological surveys, addressing key tensions in modern cosmology such as the S8 parameter discrepancy. Professor Li has held teaching responsibilities including lecturing for Level 3/4 "Cosmology" courses, mentoring for University College, advising Level 1 Physics & Natural Science students, and supervising Level 4 physics projects. His research group at Durham's Institute for Computational Cosmology focuses on developing cutting-edge computational tools to test fundamental physics through cosmological observations. Professor Li leads several major computational cosmology initiatives, including the development of ECOSMOG (an Efficient COde for Simulating MOdified Gravity), the FLAMINGO project examining baryonic feedback in cosmological simulations, and work on numerical relativity solvers through ExaGRyPE. His research bridges theoretical gravity models with observational cosmology, providing critical tools for testing general relativity on cosmological scales through upcoming surveys like DESI and Euclid.
Dennis Schlippert is a researcher at the Institute of Quantum Optics within the Faculty of Mathematics and Physics at Leibniz University Hannover. He leads the BMBF junior research group QuIS-g focusing on Very Long Baseline Atom Interferometry (VLBAI) for quantum tests of the equivalence principle and sensor fusion research. His work is closely associated with multiple collaborative research centers including SFB 1464 TerraQ and SFB 1227 DQ-mat. Dr. Schlippert completed his doctoral studies in physics at Leibniz University Hannover from 2010-2014, earning his PhD with a dissertation on Quantum Tests of the Universality of Free Fall. Prior to that, he conducted research at the Jet Propulsion Laboratory at Caltech (2008-2009) and completed his diploma thesis on Bose-Einstein condensation in optical dipole traps. His educational background includes general physics studies at Leibniz University Hannover from 2005-2010. His primary research interests focus on quantum tests of fundamental physics principles, particularly using atom interferometry techniques. He specializes in Very Long Baseline Atom Interferometry for gravity sensing, quantum clock interferometry, and macroscopically delocalized quantum states of matter. His work bridges theoretical quantum mechanics with practical applications in precision measurement and gravitational physics. Key areas include Bose-Einstein condensates, quantum metrology, gravitational wave detection, and space-based quantum experiments. Analysis of his recent publications reveals a strong focus on advancing atom interferometry techniques for fundamental physics tests. His work spans quantum tests of the equivalence principle, gravitational time dilation measurements, quantum sensors for gravitational wave detection, and space-based quantum experiments. The research demonstrates increasing sophistication in experimental setups, moving from laboratory demonstrations toward practical applications in geodesy, navigation, and fundamental physics. HALOSTAR Fellow (2009-2012) BMBF Quantum Futur junior research group leadership Dr. Schlippert actively participates in multiple research collaborations and leadership roles. Since 2021, he has served on the board of CRC TerraQ as a representative of students and young academic staff. He is a member of the Young BWG (Braunschweig Scientific Society) since 2020 and serves on the board of Cluster of Excellence QuantumFrontiers. He represents academic staff on the QUEST Leibniz Research School Faculty Council and previously served as Student Representative on CRC geo-Q. His research is conducted within the Guided Matter Wave Interferometry working group at the Institute of Quantum Optics. This team develops advanced atom interferometry techniques for precision measurements of gravitational effects and fundamental physics tests. The group's work spans laboratory experiments, theoretical modeling, and development of instrumentation for future space-based quantum experiments.
