Ozone chemistry in western U.S. wildfire plumes

Abstract

While ozone increases rapidly in wildfire plumes, downwind its production rate slows dramatically as nitrogen oxide levels decline.

Document Details

Document Type
Pub Defense Publication
Publication Date
Dec 10, 2021
Source ID
10.1126/sciadv.abl3648

Entities

People

  • Aaron Lamplugh
  • Alan Fried
  • Amber Soja
  • Andrew W. Rollins
  • Armin Wisthaler
  • Caroline C Womack
  • Carsten Warneke
  • Christopher D. Holmes
  • David A. Peterson
  • David J. Tanner
  • Dirk Richter
  • Emily Gargulinski
  • Felix Piel
  • Georgios I Gkatzelis
  • Glenn Diskin
  • Glenn M Wolfe
  • Hannah M Allen
  • Hannah S Halliday
  • Hongyu Guo
  • Ilann Bourgeois
  • J. Andrew Neuman
  • Jakob Lindaas
  • James H. Crawford
  • James Walega
  • Jason St. Clair
  • Jeff Peischl
  • Jessica B Gilman
  • Jin Liao
  • John B Nowak
  • John D. Crounse
  • Johnathan Hair
  • Jose L. Jimenez
  • Joshua P DiGangi
  • Kanako Sekimoto
  • Kirk Ullmann
  • Krystal Vasquez
  • L. G. Huey
  • Lu Xu
  • Matthew M Coggon
  • Michael Robinson
  • Pamela S. Rickly
  • Patrick R Veres
  • Paul Wennberg
  • Pedro Campuzano-Jost
  • Petter Weibring
  • Rebecca A Washenfelder
  • Reem A. Hannun
  • Robert J Yokelson
  • Samuel R Hall
  • Steven S Brown
  • Taylor Shingler
  • Thomas Hanisco
  • Thomas Ryerson
  • Vanessa Selimovic
  • Young Ro Lee

Organizations

  • California Institute of Technology
  • Colorado State University
  • Florida State University
  • Georgia Tech
  • Goddard Space Flight Center
  • Langley Research Center
  • NOAA Chemical Sciences Laboratory
  • National Center for Atmospheric Research
  • National Institute of Aerospace
  • United States Naval Research Laboratory
  • Universities Space Research Association
  • University of Colorado Boulder
  • University of Innsbruck
  • University of Maryland
  • University of Montana
  • University of Oslo
  • Yokohama City University

Tags

Fields of Study

  • Environmental science