Tobias Fischer is the CONVERSE Catalyst Center PI and a volcano scientist in the Department of Earth and Planetary Sciences at the University of New Mexico. His expertise is in the geochemistry of volcanic and hydrothermal gas emissions. He directs a lab at UNM for the chemical analyses of gases. His group also develops new techniques for measuring and sampling volcanic gases during eruption utilizing ground-based remote sensing and drone-based approaches. Most recently he has worked on sampling and measuring plume gases during the eruption of Tajongaite, La Palma Island.
Bruce Houghton is the CONVERSE Co-PI and the Gordon A. Macdonald Professor of Volcanology, Hawaiian State Volcanologist and Science Director for the National Disaster Preparedness Training Center at UH-Manoa. In 2017, he won the highest accolade from the International Association of Volcanology and Chemistry of the Earth’s Interior, the Thorarinsson Medal. His research specialty is the dynamics of explosive eruptions, particularly at Kīlauea and Stromboli volcanoes. He also works across the interface between volcanoes and society, in collaboration with leading disaster psychologists, sociologists and planners.
Karl Kim is Professor of Urban and Regional Planning at the University of Hawaii, where he directs the Disaster Management and Humanitarian Assistance certificate program. He is Executive Director of the National Disaster Preparedness Training Center (ndptc.hawaii.edu), a congressionally-authorized member of the National Domestic Preparedness Consortium which develops and delivers FEMA-certified training for first responders and emergency managers across the nation. Kim is Editor-in-chief of Transportation Research Interdisciplinary Perspectives (Elsevier) and is editing a 10-volume series on disaster risk reduction and resilience (Routledge). He has led research and training programs throughout the world on hazards, risk management, transportation and urban planning.
Kari M. Cooper
Kari Cooper is a geochemist and Professor in the Department of Earth and Planetary Sciences at University of California Davis. Her research focuses on understanding the time scales and nature of processes operating within magma reservoirs beneath volcanoes. Over the course of her career she has worked on volcanic systems ranging from Hawaii and Icleand to volcanoes of the Cascades and South American arc, to silicic systems such as Yellowstone and the Taupō Volcanic zone, New Zealand. Her recent work has focused on the on using trace-element and isotopic signatures of volcanic crystals to reconstruct the time scales and thermal conditions of storage in shallow crustal reservoirs, and the diversity and number of magma bodies present within a reservoir at any given time. She has contributed to community efforts in volcano science, including serving on the National Academies committee that produced the ERUPT report, and serving in different roles within CONVERSE including disciplinary leader for petrology/geochemistry, Chair of the Hawaii Scientific Advisory Committee (SAC), and currently the CONVERSE lead for develoing and coordinating SACs with interested USGS observatories.
Dr. Einat Lev is an Associate Research Professor at Lamont-Doherty Earth Observatory, part of Columbia University. She holds a Ph.D. in geophysics from MIT. Her research focuses on fluid mechanics involved in volcanic eruptions and their products, particularly lava flows. Dr. Lev utilizes a wide range of techniques to study these processes, from numerical models to scaled laboratory experiments using a variety of materials. She deployed instruments and collected field data at many active volcanoes worldwide, including during eruptions in Hawai’i, Iceland, and Spain. Her research is funded by the National Science Foundation, NASA, and the Gordon and Betty Moore Foundation. Active projects include studies of geyser dynamics, the behavior of multi-phase suspensions such as magmas and lavas, 3D imaging of analog experiments using MRI, and benchmarking of volcanic flow codes. She is also leading the development of a new cloud-based cyber-infrastructure for volcanology.
Michael K. Lindell
Dr. Michael K. Lindell is an Emeritus Professor at Texas A&M University and an Affiliate Professor at the University of Washington Department of Urban Design and Planning, Boise State University Department of Geosciences, and Oregon State University School of Civil and Construction Engineering. With over 50 years of experience in emergency management, he has conducted extensive research on various hazards, including nuclear and chemical threats, floods, volcanic eruptions, earthquakes, hurricanes, tsunamis, tornadoes, and wildfires. Dr. Lindell has conducted volcano research at several locations such as Mt. St. Helens, Mt. Shasta, Mt. Rainier, Kilauea, Long Valley Caldera, and Mt. Merapi. He has worked with numerous public and private organizations, providing research and technical services, and has been involved in over 60 contracts or grants, a significant portion of which were funded by the National Science Foundation. His expertise extends to evaluating emergency plans, exercises, and response facility design for the US Nuclear Regulatory Commission and providing assistance to the Texas Governor’s Division of Emergency Management in hurricane-related projects. He has also served as a consultant to the International Atomic Energy Agency, the federal Advisory Committee on Earthquake Hazards Reduction, and various other advisory groups and panels. Dr. Lindell has made numerous presentations at scientific meetings, conducted short courses for emergency planners, and participated in workshops on risk communication and emergency management worldwide. He is a prolific author, having written 11 books, 85 technical reports, 200 journal articles, and book chapters on the subject of emergency management.
Dr. Christelle Wauthier is an Associate Professor of Geosciences at Pennsylvania State University in University Park, PA, USA. She holds a Ph.D. in Engineering Sciences from the University of Liege, Belgium, and has master’s degrees in Geological Engineering from the University of Liege, Belgium, and Volcanology from the University of Blaise-Pascal, France. Her research focuses on using radar satellite data and numerical modeling to understand the subsurface dynamics of volcanic systems, particularly the magma plumbing system. By analyzing surface displacements and stress changes, Dr. Wauthier investigates magma transport, volcanic eruptions, and magma-tectonic processes such as volcanic landslides. Her work has significant societal implications as it helps assess and mitigate volcanic and tectonic hazards. She is involved in several active projects funded by the National Science Foundation (NSF) and NASA, including the study of flank motion and failure at ocean island volcanoes, crater floor deformation and rifting processes at Nyiragongo Volcano in the Democratic Republic of Congo, and characterization and forecasting of flank failure at Pacaya Volcano in Guatemala. Dr. Wauthier employs a combination of numerical modeling, machine learning, and deep neural networks to enhance her research.
Michael Manga is a physical earth scientist, and his current research interests include human-induced earthquakes, the behavior of geysers, water on Mars, and volcano science.
Michael received his B.S. in geophysics from McGill University in 1990, his M.S. in engineering sciences from Harvard University in 1992, and his Ph.D in Earth and Planetary Science also from Harvard University in 1994.
Yolanda Lin develops computational tools and methods in disaster risk analysis for identifying, analyzing, and communicating extreme events. In particular, Yolanda is interested in low-probability, high-impact, data-sparse events at the intersection of natural hazards, the built environment, and society. She focus on the nonlinear impacts in disasters that can have significant implications for our understanding of past, current, and future risk at the city and regional scales. Yolanda uses both probabilistic and event-based approaches to study risk through multiple lenses, including engineering, hazard science, and social science. This work contributes towards disaster preparedness and mitigation, ultimately as a way to build more resilient communities.
Matthew Fricke studies distributed complex systems including supercomputing, machine learning, swarm robotics, and biological systems. His computational biology research focuses on the efficiency of search processes such as ant foraging and immune system activation. Swarm robotics work is on search strategies for resource collection in support of solar system exploration and volcano surveys. Recently he has applied machine learning to modeling climate change and to biosignature detection.Matthew received holds a BA in Anthropology from Appalachian State University and BS in Math from the University of New Mexico, and and MS and a Ph.D. in Computer Science from the University of New Mexico.