Wildfire experts available to explain fire behavior, potential impacts
Scientists are gaining new insights into wildfires
Jul 6, 2021 - by David Hosansky
Increased activity expected at NCAR Mesa Lab during Super Science Saturday Nov. 2
View more information.Jul 6, 2021 - by David Hosansky
As wildfires threaten the West during another hot and dry summer, scientists at the National Center for Atmospheric Research (NCAR) are researching key aspects of these destructive events. Wildfire experts are available to discuss issues such as:
Rebecca Buchholz, NCAR scientist
buchholz@ucar.edu
Buchholz is an atmospheric chemist who uses a range of measurements and computer modeling to study the impact of fire emissions on air quality, both in the vicinity of the flames and far downwind. She is also interested in the year-to-year variability of wildfires, long-term fire trends, and the connection between climate variability and emissions.
Janice Coen, NCAR scientist
janicec@ucar.edu
An internationally recognized expert on wildland fire behavior and the interaction between fires and local atmospheric conditions, Coen uses advanced weather-fire computer models and remote sensing fire detection and wildland fuel products to gain new insights into wildfires, such as the factors leading to megafires, fire whirls, and pyrocumulus. Her current work involves predicting fire growth and fine-scale wind extrema that cause the electric grid to ignite fires as well as fire dynamics and ember spread in the wildland-urban interface. Highlights of her computer model visualizations of wildfires may be found here.
John Fasullo, NCAR scientist
fasullo@ucar.edu
Fasullo works to advance understanding of the societal impacts of climate variability and change, using both computer models and observations. His research has looked at the influence of fire emissions on regional and global climate, as well as the potential impacts of climate change on wildfires.
Frank Flocke, NCAR senior scientist
ffl@ucar.edu
Flocke is an atmospheric chemist and air quality expert who studies emissions from wildfires and their influence on air quality, both in the vicinity of fires and far downwind. A specialist in scientific instrumentation and atmospheric observations, he was a principal investigator on a major 2018 field campaign, the Western Wildfire Experiment for Cloud Chemistry, Aerosol Absorption, and Nitrogen (WE-CAN), which measured the chemical components of plumes from fires in the northwestern United States.
Rebecca Hornbrook, NCAR scientist
rsh@ucar.edu
Hornbrook is an atmospheric chemist with expertise in the measurement of many of the gases emitted by wildfires. She has been involved in several airborne field campaigns that have studied smoke from wildfires, and she is interested in the air quality and health impacts that fires have on the regions affected by wildfire smoke.
Jason Knievel, NCAR scientist and deputy director, NCAR National Security Applications Program
knievel@ucar.edu
Knievel is a meteorologist who uses computer models and observations to gain new insights into the influence of atmospheric conditions, ground cover, and terrain on the behavior of wildfires. He helps lead an NCAR team that is working to better predict the ignition and spread of wildfires, and to improve our understanding of how weather and wildfires influence each other.
Branko Kosovic, NCAR scientist and director, NCAR Weather Systems and Assessment Program
branko@ucar.edu
An expert on wildfire prediction, Kosovic leads the NCAR team that is developing an advanced weather–wildland fire behavior model for the Colorado Wildfire Prediction System. He also oversaw the development of a data product of daily dead and live fuel moisture across the contiguous United States, which combines satellite and surface observations using a machine learning model. Kosovic is the Chair of the Ad Hoc Committee on Wildfire Weather, Technology and Risk of the American Meteorological Society.
David Lawrence, NCAR senior scientist and section head, NCAR Terrestrial Sciences
dlawren@ucar.edu
Lawrence specializes in using computer models to better understand interactions between land surfaces and climate change. He applies his modeling expertise to better understand the long-term response of fires, both regionally and globally, to changes in climate and human development.
Brett Palm, NCAR scientist
bbpalm@ucar.edu
An atmospheric chemist, Palm studies wildfire emissions, focusing on how organic compounds and other particles and gases in a smoke plume evolve as they drift downwind in the atmosphere. He gains new insights into emissions by using mass spectrometers on research aircraft to measure the components of smoke plumes.
Jacquelyn Shuman, NCAR scientist
jkshuman@ucar.edu
Shuman studies the influence of climate change on wildfires with a particular focus on the role of vegetation, examining how changes in climate and fire frequency may affect land cover and, in term, how the altered land cover may fuel future fires. She uses advanced computer modeling to simulate the interactions of climate, fire, and vegetation on local, regional, and global scales, as well as researching the long-term outlook for fires in a warmer world.
Daniel Swain, NCAR research fellow and climate scientist with the University of California, Los Angeles
dlswain@ucla.edu
Swain is a climate scientist who is especially interested in how climate change is affecting regional climate extremes, including droughts, floods, and wildfires. He is engaged in multiple research projects that focus on understanding the climate-related factors driving the recent surge in wildfire severity in California and across the broader American West. Widely quoted in the media, Swain tweets regularly from @Weather_West and writes the Weather West blog, which provides real-time perspectives on California weather and climate.
Jeff Weber, University Corporation for Atmospheric Research (UCAR) meteorologist
jweber@ucar.edu
Weber is a meteorologist who monitors weather conditions across the United States and around the world. His expertise includes local and regional atmospheric conditions that can influence wildfire risk and spread.