Influence of Lake Erie on a Lake Ontario Lake-Effect Snowstorm

被引:14
|
作者
Kristovich, David A. R. [1 ]
Bard, Luke [1 ]
Stoecker, Leslie [1 ]
Geerts, Bart [2 ]
机构
[1] Univ Illinois, Climate & Atmospher Sci Sect, Div State Water Survey, Prairie Res Inst, Urbana, IL 61801 USA
[2] Univ Wyoming, Dept Atmospher Sci, Laramie, WY 82071 USA
基金
美国国家科学基金会;
关键词
AGGREGATE MESOSCALE DISTURBANCES; BOUNDARY-LAYER; EFFECT SNOW; EFFECT SNOWBANDS; GREAT-LAKES; CLOUD BANDS; ICE COVER; MICHIGAN; SENSITIVITY; CONVECTION;
D O I
10.1175/JAMC-D-17-0349.1
中图分类号
P4 [大气科学(气象学)];
学科分类号
0706 ; 070601 ;
摘要
Annual lake-effect snowstorms, which develop through surface buoyant instability and upward moisture transport from the Laurentian Great Lakes, lead to important local increases in snowfall to the south and east. Surface wind patterns during cold-air outbreaks often result in areas where the air is modified by more than one Great Lake. While it is known that boundary layer air that has crossed multiple lakes can produce particularly intense snow, few observations are available on the process by which this occurs. This study examines unique observations taken during the Ontario Winter Lake-effect Systems (OWLeS) field project to document the process by which Lake Erie influenced snowfall that was produced over Lake Ontario on 28 January 2014. During the event, lake-effect clouds and snow that developed over Lake Erie extended northeastward toward Lake Ontario. OWLeS and operational observations showed that the clouds from Lake Erie disappeared (and snow greatly decreased) as they approached the Lake Ontario shoreline. This clear-air zone was due to mesoscale subsidence, apparently due to the divergence of winds moving from land to the smoother lake surface. However, the influence of Lake Erie in producing a deeper lake-effect boundary layer, thicker clouds, increased turbulence magnitudes, and heavier snow was identified farther downwind over Lake Ontario. It is hypothesized that the combination of a low-stability, high-moisture boundary layer as well as convective eddies and limited snow particles crossing the mesoscale subsidence region locally enhanced the lake-effect system over Lake Ontario within the plume of air originating over Lake Erie.
引用
收藏
页码:2019 / 2033
页数:15
相关论文
共 50 条
  • [41] LLAP Band Structure and Intense Lake-Effect Snowfall Downwind of Lake Ontario: Insights from the OWLeS 7-9 January 2014 Event
    Bergmaier, Philip T.
    Geerts, Bart
    JOURNAL OF APPLIED METEOROLOGY AND CLIMATOLOGY, 2020, 59 (10) : 1691 - 1715
  • [42] How Could Future Climate Conditions Reshape a Devastating Lake-Effect Snow Storm?
    Kayastha, Miraj B.
    Huang, Chenfu
    Wang, Jiali
    Qian, Yun
    Yang, Zhao
    Chakraborty, T. C.
    Pringle, William J.
    Hetland, Robert D.
    Xue, Pengfei
    EARTHS FUTURE, 2024, 12 (06)
  • [43] Evaluation of Offshore Stocking of Lake Trout in Lake Ontario
    Lantry, B. F.
    O'Gorman, R.
    Strang, T. G.
    Lantry, J. R.
    Connerton, M. J.
    Schaner, T.
    NORTH AMERICAN JOURNAL OF FISHERIES MANAGEMENT, 2011, 31 (04) : 671 - 682
  • [44] Evidence of lake trout (Salvelinus namaycush) natural reproduction in Lake Erie
    Markham, James L.
    Robinson, Jason M.
    Wilson, Chris C.
    Vandergoot, Christopher S.
    Wilkins, Pascal D.
    Zimar, Richard C.
    Cochrane, Michael N.
    JOURNAL OF GREAT LAKES RESEARCH, 2022, 48 (06) : 1728 - 1734
  • [45] Classification of Lake Michigan snow days for estimation of the lake-effect contribution to the downward trend in November snowfall
    Clark, Craig A.
    Goebbert, Kevin H.
    Ganesh-Babu, Bharath
    Young, Allison M.
    Heinlein, Kaitlyn N.
    Casas, Eleanor G.
    VanDe Guchte, Andrew P.
    Krull, Alexander J.
    Sefcovic, Zachary P.
    Connelly, Ryan J.
    Caruthers, Alexandra L.
    Haynes, Matthew
    Zigner, Katelyn M.
    Fingerle, Sarah L.
    Cade, Evan P.
    DeRolf, Timothy M.
    Schletz, Samantha M.
    INTERNATIONAL JOURNAL OF CLIMATOLOGY, 2020, 40 (13) : 5656 - 5670
  • [46] Occurrence and predictive correlations of Escherichia coli and Enterococci at Sandpoint beach (Lake St Clair), Windsor, Ontario and Holiday beach (Lake Erie), Amherstburg, Ontario
    McPhedran, Kerry
    Seth, Rajesh
    Bejankiwar, Rajesh
    WATER QUALITY RESEARCH JOURNAL OF CANADA, 2013, 48 (01): : 99 - 110
  • [47] Long-term dynamics of dissolved oxygen and isotopic composition in Lake Erie and Lake Ontario: Implications for eutrophication and ecosystem health
    Dordoni, Marlene
    Barth, Johannes A. C.
    Wassenaar, Leonard I.
    JOURNAL OF GREAT LAKES RESEARCH, 2024, 50 (06)
  • [48] Downstream Evolution and Coastal-to-Inland Transition of Landfalling Lake-Effect Systems
    Gowan, Thomas M.
    Steenburgh, W. James
    Minder, Justin R.
    MONTHLY WEATHER REVIEW, 2021, 149 (04) : 1023 - 1040
  • [49] Historical distribution and abundance of Phragmites australis at Long Point, Lake Erie, Ontario
    Wilcox, KL
    Petrie, SA
    Maynard, LA
    Meyer, SW
    JOURNAL OF GREAT LAKES RESEARCH, 2003, 29 (04) : 664 - 680
  • [50] A new moisture tagging capability in the Weather Research and Forecasting model: formulation, validation and application to the 2014 Great Lake-effect snowstorm
    Insua-Costa, Damian
    Miguez-Macho, Gonzalo
    EARTH SYSTEM DYNAMICS, 2018, 9 (01) : 167 - 185