The Impact of Pine Beetle Kill on Monoterpene Emissions and Secondary Organic Aerosol Formation in Western North America Ashley R. Berg (CSU) and Colette.

Slides:



Advertisements
Similar presentations
Dylan Millet Harvard University with
Advertisements

Development of a Secondary Organic Aerosol Formation Mechanism: Comparison with Smog Chamber Experiments and Atmospheric Measurements Luis Olcese, Joyce.
QUESTIONS 1.Is hexane more or less reactive with OH than propane? 2.Is pentene or isoprene more reactive with OH?
12 th AMS Mountain Meteorology Conference August 31, Atmospheric Transport and Dispersion of the Mountain Pine Beetle in British Columbia Peter.
Evaluation of Secondary Organic Aerosols in Atlanta
Secondary Organic Aerosols: What we know and current CAM treatment Chemistry-Climate Working Group Meeting, CCSM March 22, 2006 Colette L. Heald
Predicted change in global secondary organic aerosol concentrations in response to future climate, emissions, and land-use change Colette L. Heald NOAA.
Chemistry of NO x and SOA: VOC Oxidation by Nitrate Radicals Andrew Rollins Cohen research group, department of chemistry University of California, Berkeley,
Update on: 1. Secondary Organic Aerosol 2. Biogenic VOC emissions Colette L. Heald Chemistry Climate Working Group Meeting February.
Air Quality Impacts from Prescribed Burning Karsten Baumann, PhD. Polly Gustafson.
Predicted change in global SOA in response to future climate, emissions, and land-use change Colette L. Heald NOAA Climate and Global Change Postdoctoral.
Climate change, fires, and carbon aerosol over N. America with preliminary detour to discuss GCAP model development (GCAP= Global change and air pollution)
Clouds and Climate: Forced Changes to Clouds SOEE3410 Ken Carslaw Lecture 4 of a series of 5 on clouds and climate Properties and distribution of clouds.
Investigating the Sources of Organic Carbon Aerosol in the Atmosphere Colette L. Heald NOAA Climate and Global Change Postdoctoral Fellow University of.
Organic Carbon Aerosol Colette L. Heald University of California, Berkeley NOAA Summer Institute, Steamboat Springs, CO July 12, 2006.
REFERENCES Maria Val Martin 1 C. L. Heald 1, J.-F. Lamarque 2, S. Tilmes 2 and L. Emmons 2 1 Colorado State University 2 NCAR.
Dylan Millet, Daniel Jacob, and May Fu Harvard University Thomas Kurosu and Kelly Chance Harvard-Smithsonian Astrophysical Observatory Alex Guenther NCAR.
Global BVOC Emission Inventories:
Global Linkages Between Vegetation, Atmospheric Composition and Climate Fall AGU Meeting, San Francisco December 19, 2008 Colette L. Heald Acknowledgements:
Regional Air Quality Modeling: Long Range Global Change Simulations.
SOA vs POA in the Amazon: Current model estimates and predicted change Colette L. Heald Aerosols in the Amazon Workshop February.
1 Mass Flux in a Horizontally Homogeneous Atmosphere A useful tool for emissions and lifetimes. Assume an atmosphere well- mixed in latitude and longitude;
Southeast Nexus (SENEX) Studying the Interactions Between Natural and Anthropogenic Emissions at the Nexus of Air Quality and Climate Change A NOAA Field.
Modeling Elemental Composition of Organic Aerosol: Exploiting Laboratory and Ambient Measurement and the Implications of the Gap Between Them Qi Chen*
Climate and Air Quality: Investigating the Impacts of Changing Landscapes Earth and Atmospheric Sciences Seminar, Cornell University April 10, 2013 Colette.
Estimates of global biogenic isoprene emissions from the terrestrial biosphere with varying levels of CO 2 David J. Wilton 1,2*, Kirsti Ashworth 2, Juliette.
Improvement of extreme climate predictions from dynamical climate downscaling Yang Gao 1, Joshua S. Fu 1, John B. Drake 1, Yang Liu 2, Jean-Francois Lamarque.
Grinnell Glacier Glacier National Park Climate Change Impacts.
Organic Aerosol: Budgets, Beetles and Bewilderment Dalhousie University August 24, 2012 Colette L. Heald with contributions from Bonne Ford, Ashley Berg.
Prediction of Future North American Air Quality Gabriele Pfister, Stacy Walters, Mary Barth, Jean-Francois Lamarque, John Wong Atmospheric Chemistry Division,
Examination of the impact of recent laboratory evidence of photoexcited NO 2 chemistry on simulated summer-time regional air quality Golam Sarwar, Robert.
Contribution from Natural Sources of Aerosol Particles to PM in Canada Sunling Gong Scientific Team: Tianliang Zhao, David Lavoue, Richard Leaitch,
Land Use Change Impacts on Air Quality and Climate* AGU Fall Meeting December 19, 2014 Colette L. Heald Dominick V. Spracklen *review article submitted.
Mapping isoprene emissions from space Dylan Millet with
CHEMICAL CHARACTERISTICS OF NORTH AMERICAN OUTFLOW: INSIGHTS FROM CHEBOGUE POINT, NOVA SCOTIA Allen Goldstein, Dylan Millet, James Allan, Eben Cross, Rupert.
IUFRO 2005 July 12, 2005 Paper 15 - Peter L. Jackson 1 Atmospheric Modelling of Mountain Pine Beetle Transport Peter L. Jackson Brendan Murphy Brenda Moore.
1/30 2-year observation of Organic Aerosol properties In Cape Corsica J. Sciare, and LSCE.
Integrated projections of U.S. air quality benefits from avoided climate change Fernando Garcia Menendez Rebecca K. Saari, Erwan Monier, Noelle E. Selin.
Parameterization of Global Monoterpene SOA formation and Water Uptake, Based on a Near-explicit Mechanism Karl Ceulemans – Jean-François Müller – Steven.
Wildland Fire Impacts on Surface Ozone Concentrations Literature Review of the Science State-of-Art Ned Nikolov, Ph.D. Rocky Mountain Center USDA FS Rocky.
Carbonaceous aerosols – a global modeling view Betty Croft and Ulrike Lohmann * Department of Physics and Atmospheric Science Dalhousie University, Halifax,
Variations in Continental Terrestrial Primary Production, Evapotranspiration and Disturbance Faith Ann Heinsch, Maosheng Zhao, Qiaozhen Mu, David Mildrexler,
Office of Research and Development National Exposure Research Laboratory, Atmospheric Modeling and Analysis Division Using Dynamical Downscaling to Project.
Steve Edburg Assistant Research Professor Laboratory for Atmospheric Research Washington State University
OVERVIEW OF ATMOSPHERIC PROCESSES: Daniel J. Jacob Ozone and particulate matter (PM) with a global change perspective.
Maria Val Martin (CSU) and Colette L. Heald (MIT) J-F Lamarque, S. Tilmes and L. Emmons (NCAR) Thanks to the National Park Service for funding Effects.
Impact of the changes of prescribed fire emissions on regional air quality from 2002 to 2050 in the southeastern United States Tao Zeng 1,3, Yuhang Wang.
The G4-Specified Stratospheric Aerosol Experiment Alan Robock 1, Lili Xia 1 and Simone Tilmes.
Yunseok Im and Myoseon Jang
Peak 8-hr Ozone Model Performance when using Biogenic VOC estimated by MEGAN and BIOME (BEIS) Kirk Baker Lake Michigan Air Directors Consortium October.
MAPPING ISOPRENE EMISSIONS FROM SPACE USING OMI FORMALDEHYDE MEASUREMENTS Dylan B. Millet, Daniel J. Jacob, K. Folkert Boersma, Justin P. Parrella Atmospheric.
The G4-Specified Stratospheric Aerosol Experiment Alan Robock 1, Lili Xia 1, and Simone Tilmes.
Review: Constraining global isoprene emissions with GOME formaldehyde column measurements Shim et al. Luz Teresa Padró Wei-Chun Hsieh Zhijun Zhao.
Organic aerosol composition and aging in the atmosphere: How to fit laboratory experiments, field data, and modeling together American Chemical Society.
Simulating the impacts of Large Scale Insect- and Disease- Driven Tree Mortality on atmospheric chemistry Colette Heald, Sam Silva Department of Civil.
Recent and predicted changes in atmospheric composition over the United States from climate, emissions and bark beetles Fall AGU Meeting December 6, 2012.
Land Use Change Impacts on Aerosols International Aerosol Modeling Algorithms Meeting December 10, 2015 Colette L. Heald Jeff Geddes, Sam Silva, Ashley.
Aerosol 1 st indirect forcing in the coupled CAM-IMPACT model: effects from primary-emitted particulate sulfate and boundary layer nucleation Minghuai.
Global Simulation of Secondary Organic Carbon Aerosols Hong Liao California Institute of Technology GEOS-CHEM meeting, April 2005.
Understanding the impact of isoprene nitrates and OH reformation on regional air quality using recent advances in isoprene photooxidation chemistry Ying.
Yuqiang Zhang1, Owen R, Cooper2,3, J. Jason West1
Department of Atmospheric Sciences
MAGICC/SCENGEN Model for Assessment of Greenhouse-gas Induced Climate Change/A Regional Climate SCENario GENerator.
Mountain Pine Beetle in British Columbia
Interactive C-cycle in Earth System models
Organic Aerosol is Ubiquitous in the Atmosphere
Aerosol Optical Thickness
Bark beetle outbreaks in North America
Global atmospheric changes and future impacts on regional air quality
Contribution from Natural Sources of Aerosol Particles to PM in Canada
Presentation transcript:

The Impact of Pine Beetle Kill on Monoterpene Emissions and Secondary Organic Aerosol Formation in Western North America Ashley R. Berg (CSU) and Colette L. Heald (MIT) J-F Lamarque, S. Tilmes, L. Emmons (NCAR) J. Hicke, A. Meddens, G. Hallar, K.Huff-Hartz (for data) Funded by the National Science Foundation

Beetle Infestation K. F. Raffa et al., Bioscience 58, 501 (2008) Beetle infestation in western North America has lasted more than a decade, aided by climate change Impacts carbon cycling, fuel distributions, sfc-atm exchanges... What about atmospheric composition?

H. Amin et al., Environ. Sci. Technol., 2012 (online) Very few quantitative studies have been done Amin et al. (2012) measure emissions from Lodgepole pine under attack by mountain pine beetle Significant increase in emissions of certain compounds Trees respond to beetle attack with enhanced VOC emissions Beetle Infestation

Objective Sea Ice CouplerLandOcean Atmosphere Land Ice CLM4 CAM5 Vegetation BVOC Emissions Oxidation of BVOCs SOA Formation Use beetle mortality data from and beetle-induced monoterpene data in the Community Earth System Model

Beetle Mortality Data 1-km grid of % mortality from aerial overview surveys, 1997 – Beetles, 17 Host types Figures: Meddens et al., 2012 (submitted)

Apply mortality to Needleleaf PFTs And convert to 1.9x2.5 degrees: PFT 2 BaselinePFT PFT 1PFT 2 Needleleaf Evergreen Temperate Trees Needleleaf Evergreen Boreal Trees

Enhanced Monoterpene Emissions Data MonoterpeneScale-Up Factor β-pinene7.7 3-carene7.3 β-phellandrene33 P-cymene5.4 Scale-up factors calculated from data are applied to monoterpene emissions from fraction of Needleleaf trees under attack. H. Amin et al., Environ. Sci. Technol., 2012 (online)

SOA data In the chemical mechanism: add photochemical (OH) and ozonolysis reactions for SOA formation from single monoterpenes as irreversible yields – SOA yields from Lee et al. (2006) – Reaction rates at 298K from Atkinson (1997) Monoterpene SOA Yield (OH) Lifetime assuming [OH] = 1x10 6 molecules cm -3 SOA Yield (O 3 ) Lifetime assuming [O 3 ] = 40 ppb B-pinene29%3.5 hours16%17 hours 3-carene36%3.2 hours51%7 hours B-phellandrene55%1.7 hours-- P-cymene6%19 hours--

2004 Mountain Pine Beetle Attack Largest impact of MPB in British Columbia Maximum increase above baseline 70% 2008 Mountain Pine Beetle Attack Largest impact of MPB in United States Maximum increase above baseline 104% Impact on Monoterpene Emissions B-pinene, B-phellandrene, 3-carene, P-cymene Mortality Effect – decrease due to beetle kill Attack Effect – increase due to beetle attack Baseline Monoterpene Emissions Mortality EffectMortality Effect + Attack Effect

Impact on SOA Concentrations from B-pinene, B-phellandrene, 3-carene, P-cymene Mortality Effect – decrease due to beetle kill Attack Effect – increase due to beetle attack Baseline Summertime SOA Concentration Mortality EffectMortality Effect + Attack Effect 2004 Mountain Pine Beetle Attack Largest impact of MPB in British Columbia Maximum increase above baseline 43% 2008 Mountain Pine Beetle Attack Largest impact of MPB in United States Maximum increase above baseline 36%

SOA 2002 Other Beetle Attack Largest impact of OB in British Columbia and the United States Maximum increase above baseline 37% Monoterpenes 2002 Other Beetle Attack Largest impact of OB in British Columbia and the United States Maximum increase above baseline 111% Impact due to Other Beetles on monoterpenes and SOA Mortality Effect – decrease due to beetle kill Attack Effect – increase due to beetle attack Mortality EffectMortality Effect + Attack Effect

A second beetle attack scenario: Spruce under attack by mountain pine beetle Monoterpene PineSpruce β-pinene carene7.365 β-phellandrene335.3 P-cymene5.442 Scale-up Factors PineSpruce Large species-variability in response to beetle attack Highlights uncertainties surrounding impact of beetles on atmospheric composition Max 70% Max 43% Max 300% Max 200%

µg m -3 Now let’s provide some context: IMPROVE OM observations Annual/interannual variability in OM observations is much larger than beetle-induced SOA changes – not observable While changes are not large compared to OM observations in Colorado, some other regions may be experiencing higher localized impacts IMPROVE OM (MOZI) Simulated OM Baseline Simulated SOA 2008 Simulated SOA Comparing simulated SOA to observed OM ( ) at a site in northwest Colorado (MOZI)

Summary and future work Photo: Jeffrey A. Hicke, University of Idaho