Rocky Mountain National Park reduced nitrogen source apportionment

被引:28
|
作者
Thompson, Tammy M. [1 ]
Rodriguez, Marco A. [2 ]
Barna, Michael G. [3 ]
Gebhart, Kristi A. [3 ]
Hand, Jennifer L. [1 ]
Day, Derek E. [1 ]
Malm, William C. [1 ]
Benedict, Katherine B. [4 ]
Collett, Jeffrey L., Jr. [4 ]
Schichtel, Bret A. [3 ]
机构
[1] Colorado State Univ, Cooperat Inst Res Atmosphere, Ft Collins, CO 80523 USA
[2] AECOM, Ft Collins, CO USA
[3] Natl Pk Serv, Air Resources Div, Lakewood, CO USA
[4] Colorado State Univ, Dept Atmospher Sci, Ft Collins, CO 80523 USA
关键词
reduced nitrogen; source apportionment; CAMx; deposition; regional modeling; DRY DEPOSITION; UNITED-STATES; ATMOSPHERIC NITROGEN; REACTIVE NITROGEN; CRITICAL LOADS; AMMONIA; MODEL; PARAMETERIZATION; VEGETATION; EMISSIONS;
D O I
10.1002/2014JD022675
中图分类号
P4 [大气科学(气象学)];
学科分类号
0706 ; 070601 ;
摘要
Excess wet and dry deposition of nitrogen-containing compounds are a concern at a number of national parks. The Rocky Mountain Atmospheric Nitrogen and Sulfur Study Part II (RoMANS II) campaign was conducted from November 2008 to November 2009 to characterize the composition of reactive nitrogen and sulfur deposited in Rocky Mountain National Park (RMNP). RoMANS II identified reduced nitrogen as the major contributor to reactive nitrogen deposition in RMNP, making up over 50% of the total. Motivated by this finding, the particulate source apportionment technology within the Comprehensive Air Quality Model with extensions was used here to estimate source apportionment of reduced nitrogen concentrations at RMNP. Source apportionment results suggest that approximately 40% of reduced nitrogen deposition to RMNP comes from ammonia sources within Colorado. However, the model evaluation also suggests that this number could be underrepresenting ammonia sources in eastern Colorado due to the difficulty of capturing upslope airflow on the eastern side of the Continental Divide with meteorological models. Emissions from California, the western model boundary, and the Snake River Valley in Idaho, the next three most influential sources, contribute approximately 15%, 8%, and 7%, respectively, to total reduced nitrogen measured in RMNP. Within Colorado, about 61%, 26%, and 13% of the total Colorado contribution comes from sources to the east of the Continental Divide, sources to the west of the Continental Divide, and from the park itself.
引用
收藏
页码:4370 / 4384
页数:15
相关论文
共 50 条
  • [21] Meteorological and Back Trajectory Modeling for the Rocky Mountain Atmospheric Nitrogen and Sulfur Study II
    Gebhart, Kristi A.
    Malm, William C.
    Rodriguez, Marco A.
    Barna, Michael G.
    Schichtel, Bret A.
    Benedict, Katherine B.
    Collett, Jeffrey L., Jr.
    Carrico, Christian M.
    ADVANCES IN METEOROLOGY, 2014, 2014
  • [22] Investigating types and sources of organic aerosol in Rocky Mountain National Park using aerosol mass spectrometry
    Schurman, M. I.
    Lee, T.
    Sun, Y.
    Schichtel, B. A.
    Kreidenweis, S. M.
    Collett, J. L., Jr.
    ATMOSPHERIC CHEMISTRY AND PHYSICS, 2015, 15 (02) : 737 - 752
  • [23] Visitor Perceptions of Bark Beetle Impacted Forests in Rocky Mountain National Park, Colorado
    Sumner, Christa Cooper
    Lockwood, Jeffrey A.
    CONSERVATION & SOCIETY, 2020, 18 (01): : 50 - 62
  • [24] Source apportionment of fine particulate matter over a National Park in Central India
    Kumar, Samresh
    Raman, Ramya Sunder
    SCIENCE OF THE TOTAL ENVIRONMENT, 2020, 720
  • [25] Reducing Wet Ammonium Deposition in Rocky Mountain National Park: the Development and Evaluation of A Pilot Early Warning System for Agricultural Operations in Eastern Colorado
    Pina, Aaron J.
    Schumacher, Russ S.
    Denning, A. Scott
    Faulkner, William B.
    Baron, Jill S.
    Ham, Jay
    Ojima, Dennis S.
    Collett, Jeffrey L.
    ENVIRONMENTAL MANAGEMENT, 2019, 64 (05) : 626 - 639
  • [26] Understory plant species and community changes following a mountain pine beetle outbreak in Rocky Mountain National Park, USA
    Pappas, Gregory S.
    Tinker, Daniel B.
    Rocca, Monique E.
    JOURNAL OF VEGETATION SCIENCE, 2022, 33 (02)
  • [27] Distributional Changes and Range Predictions of Downy Brome (Bromus tectorum) in Rocky Mountain National Park
    Bromberg, James E.
    Kumar, Sunil
    Brown, Cynthia S.
    Stohlgren, Thomas J.
    INVASIVE PLANT SCIENCE AND MANAGEMENT, 2011, 4 (02) : 173 - 182
  • [28] Assessing nitrogen deposition and chemistry in mountainous regions of Olympic National Park and North Cascades National Park Service Complex, Pacific Northwest, USA
    Petix, Meaghan I.
    Bell, Michael D.
    Evans, R. Dave
    OECOLOGIA, 2025, 207 (04)
  • [29] Source Identification and Estimation of Source Apportionment of Ambient PM2.5 at Western National Park Site in USA
    Hwang, InJo
    JOURNAL OF KOREAN SOCIETY FOR ATMOSPHERIC ENVIRONMENT, 2010, 26 (01) : 21 - 33
  • [30] A 7000-YEAR RECORD OF ENVIRONMENTAL CHANGE, BEAR LAKE, ROCKY MOUNTAIN NATIONAL PARK, USA
    Caffrey, Maria A.
    Doerner, James P.
    PHYSICAL GEOGRAPHY, 2012, 33 (05) : 438 - 456