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Smith AM. The ability of winter grazing to reduce wildfire size and fire-induced plant mortality was not demonstrated: a comment on Davies et al. (2015) Talhelm AF, ed. International Journal of Wildland Fire. 2016;25.
Liu X. Airborne measurements of western U.S. wildfire emissions: Comparison with prescribed burning and air quality implications Huey G, ed. Journal of Geophysical Research Atmospheres. 2017;Online early.
Li C, Handwerger AL, Wang J, et al. Augmentation of WRF-Hydro to simulate overland-flow- and streamflow-generated debris flow susceptibility in burn scars. Natural Hazards and Earth System Sciences. 2022;22:2317–2345.PDF icon Li et al_2022_NatHazards_Augmentation of WRF Hydro to simulate debris flow susceptibility in burn scars.pdf (1.36 MB)
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Lueck D. Clearning the smoke from wildfire policy: An economic perspective. (Yoder J, ed.). Bozeman, MT: PERC; 2016:48 p.PDF icon PS-56-WEB final-1.pdf (3.71 MB)
Iniguez JM, Evans AM, Dadashi S, et al. Comparing Geography and Severity of Managed Wildfires in California and the Southwest USA before and after the Implementation of the 2009 Policy Guidance. Forests. 2022;13(793).PDF icon Iniguez et al_2022_Comparing geography and severity of managed wildfires in CA and SW USA before and after 2009 policy guidance.pdf (1.64 MB)
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Vaidyanathan A. Developing an online tool for identifying at-risk populations to wildfire smoke hazards Yip F, ed. Science of The Total Environment. 2018;619-620.
Iverson LR, Matthews SN, Prasad AM, Peters MP, Yohe G. Development of Risk Matrices for Evaluating Climatic Change Responses of Forested Habitats. Climatic Change. 2012;114(2):13. Available at: http://www.nrs.fs.fed.us/pubs/jrnl/2012/nrs_2012_iverson_001.pdf.
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Young MK. The Effect of Wildland Fire on Aquatic Ecosystems in the Western USA Gresswell RE, ed. Forest Ecology and Management. 2003;178(1-2). Available at: http://www.sciencedirect.com/science/journal/03781127/178/1-2.
Leduc C, Giga SI, Fletcher IJ, Young M, Dorman SC. Effectiveness of fitness training and psychosocial education intervention programs in wildland firefighting: a cluster randomised control trial. International Journal of Wildland Fire. 2022;31:799-815.PDF icon Leduc et al_2022_IJWF_Effectiveness of fitness traning and phychosocial education intervention in wildland firefighters.pdf (1.14 MB)
Loudermilk LE. Effectiveness of fuel treatments for mitigating wildfire risk and sequestering forest carbon: A case study in the Lake Tahoe Basin Stanton A, ed. Forest Ecology and Management. 2014;323.
Turner DP. Effects of harvest, fire, and pest/pathogen disturbances on the West Cascades ecoregion carbon balance Ritts WD, ed. Carbon Balance and Management. 2015;10(12).
Yedinak KM. Embracing Complexity to Advance the Science of Wildland Fire Behavior Strand EK, ed. Fire. 2018;1(2).
Aurell J. Emissions from prescribed burning of timber slash piles in Oregon Gullett BK, ed. Atmospheric Environment. 2017;150.
Hagmann RK, Hessburg PF, Prichard SJ, et al. Evidence for widespread changes in the structure, composition, and fire regimes of western North American forests. Ecological Applications. 2021.PDF icon eap.2431.pdf (9.22 MB)
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Cohen WB. Forest disturbance across the conterminous United States from 1985-2012: The emerging dominance of forest decline Yang Z, ed. Forest Ecology and Management. 2016;360.
Stephens SL, Boerner REJ, Youngblood A. Fuel treatment impacts on estimated wildfire carbon loss from forests in Montana, Oregon, California, and Arizona. Ecosphere. 2012;3(5):17.PDF icon Stephens et al.pdf (5.39 MB)
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Colavito MM. Making the Transition from Science Delivery to Knowledge Coproduction in Boundary Spanning: A Case Study of the Alaska Fire Science Consortium .F.Trainor S, ed. AMS. 2019;Online.
Vogeler JC. Mapping post-fire habitat characteristics through the fusion of remote sensing tools Yang Z, ed. Remote Sensing of Environment. 2016;173.
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Davis R. The normal fire environment—Modeling environmental suitability for large forest wildfires using past, present, and future climate normals Yang Z, ed. Forest Ecology and Management. 2017;390.
Davis R. The normal fire environment—Modeling environmental suitability for large forest wildfires using past, present, and future climate normals Yang Z, ed. Forest Ecology and Management. 2017;390.
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Manzello SL, Shields JR, yang JC. On the use of a firebrand generator to investigate the ignition of structures in WUI fires.; 2013.PDF icon f07081.pdf (5.12 MB)
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Liu JCoco. Particulate air pollution from wildfires in the Western US under climate change Mickley LJ, ed. Climate Change. 2016;138(3).
Gleim ER. The Phenology of Ticks and the Effects of Long-Term Prescribed Burning on Tick Population Dynamics in Southwestern Georgia and Northwestern Florida L Conner M, ed. PLOS ONE. 2015;9(11).
Rao K, Williams PA, Diffenbaugh NS, Yebra M, Konings AG. Plant-water sensitivity regulates wildfire vulnerability. Nature Ecology & Evolution. 2022;Online.PDF icon Rao et al_2022_Plant-water_sensitivity_regulates_wildfire_vulnerability.pdf (2.41 MB)
McIver J, Erickson K, Youngblood A. Principal short-term findings of the National Fire and Fire Surrogate study. USDA Forest Service, Pacific Northwest Research Station; 2012:210.PDF icon pnw_gtr860.pdf (1.61 MB)

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