Access the full text.
Sign up today, get DeepDyve free for 14 days.
D. Kingsmill (1995)
Convection Initiation Associated with a Sea-Breeze Front, a Gust Front, and Their CollisionMonthly Weather Review, 123
K. Haghi, D. Parsons, A. Shapiro (2017)
Bores Observed during IHOP_2002: The Relationship of Bores to the Nocturnal EnvironmentMonthly Weather Review, 145
R. Rotunno, J. Klemp, M. Weisman (1988)
A Theory for Strong, Long-Lived Squall LinesJournal of the Atmospheric Sciences, 45
(2016)
——, and Coauthors
AERI temperature and (b) WVMR at MP1 between 0200 and 0500 UTC. (c) The temperature and WVMR measured at the surface. Black contours are virtual potential temperature
B. Geerts, R. Damiani, S. Haimov (2006)
Finescale Vertical Structure of a Cold Front as Revealed by an Airborne Doppler RadarMonthly Weather Review, 134
T. Weckwerth, D. Parsons (2006)
A Review of Convection Initiation and Motivation for IHOP_2002Monthly Weather Review, 134
J. Klemp, R. Rotunno, W. Skamarock (1997)
On the propagation of internal boresJournal of Fluid Mechanics, 331
Bo Liu, Zhien Wang, Yong Cai, P. Wechsler, William Kuestner, M. Burkhart, Wayne Welch (2014)
Compact airborne Raman lidar for profiling aerosol, water vapor and clouds.Optics express, 22 17
T. Crum, R. Alberty, D. Burgess (1993)
Recording, Archiving, and Using WSR-88D DataBulletin of the American Meteorological Society, 74
S. Koch, P. Dorian, R. Ferrare, S. Melfi, W. Skillman, D. Whiteman (1991)
Structure of an Internal Bore and Dissipating Gravity Current as Revealed by Raman LidarMonthly Weather Review, 119
K. Knupp (2006)
Observational Analysis of a Gust Front to Bore to Solitary Wave Transition within an Evolving Nocturnal Boundary LayerJournal of the Atmospheric Sciences, 63
Aaron Johnson, Xuguang Wang (2019)
Multicase Assessment of the Impacts of Horizontal and Vertical Grid Spacing, and Turbulence Closure Model, on Subkilometer-Scale Simulations of Atmospheric Bores during PECANMonthly Weather Review
(1982)
Subjective interpretation of geostationary satel
R. Russell, James Wilson (1997)
RADAR-OBSERVED ’’FINE LINES‘‘ IN THE OPTICALLY CLEAR BOUNDARY LAYER: REFLECTIVITY CONTRIBUTIONS FROM AERIAL PLANKTON AND ITS PREDATORSBoundary-Layer Meteorology, 82
D. Parsons, K. Haghi, Kelton Halbert, Blake Elmer, Junhong Wang (2018)
The Potential Role of Atmospheric Bores and Gravity Waves in the Initiation and Maintenance of Nocturnal Convection over the Southern Great PlainsJournal of the Atmospheric Sciences
K. Haghi, B. Geerts, H. Chipilski, Aaron Johnson, Samuel Degelia, David Imy, D. Parsons, R. Adams-Selin, D. Turner, Xuguang Wang (2019)
Bore-ing into Nocturnal ConvectionBulletin of the American Meteorological Society
J. Intrieri, A. Bedard, R. Hardesty (1990)
Details of Colliding Thunderstorm Outflows as Observed by Doppler LidarJournal of the Atmospheric Sciences, 47
W. Geyer (1989)
Gravity currents: In the environment and the laboratoryLimnology and Oceanography, 34
Decheng Wu, Zhien Wang, P. Wechsler, N. Mahon, M. Deng, Brent Glover, M. Burkhart, William Kuestner, Ben Heesen (2016)
Airborne compact rotational Raman lidar for temperature measurement.Optics express, 24 18
R. Clarke (1972)
The Morning Glory: An Atmospheric Hydraulic JumpJournal of Applied Meteorology, 11
Coltin Grasmick, B. Geerts, D. Turner, Zhien Wang, T. Weckwerth (2018)
The Relation between Nocturnal MCS Evolution and Its Outflow Boundaries in the Stable Boundary Layer: An Observational Study of the 15 July 2015 MCS in PECANMonthly Weather Review
Job Description (2013)
UNIVERSITY OF WYOMING
N. Crook (1988)
Trapping of Low-Level Internal Gravity WavesJournal of the Atmospheric Sciences, 45
D. Loveless, T. Wagner, D. Turner, S. Ackerman, W. Feltz (2019)
A Composite Perspective on Bore Passages during the PECAN CampaignMonthly Weather Review
NSSL mobile mesonet data, version 1.1. UCAR/NCAR-Earth Observing Laboratory, accessed
(2016)
MP1 OU/NSSL CLAMPS MWR and surface me-teorology data, version 1.0
(2003)
Radar characteristics of convection along colliding outflow boundaries observed during CRYSTAL-FACE. Preprints , 31st Int
(2011)
NOAA/ESRL/ GSD MADIS data including MesoWest (netCDF format), version 1.0
R. Roberts, F. Fabry, P. Kennedy, Eric Nelson, James Wilson, N. Rehak, J. Fritz, V. Chandrasekar, J. Braun, Juanzhen Sun, S. Ellis, S. Reising, T. Crum, Larry Mooney, R. Palmer, T. Weckwerth, S. Padmanabhan (2008)
REFRACTT 2006 : Real-Time Retrieval of High-Resolution, Low-Level Moisture Fields from Operational NEXRAD and Research RadarsBulletin of the American Meteorological Society, 89
Q. Miao, B. Geerts (2007)
Finescale Vertical Structure and Dynamics of Some Dryline Boundaries Observed in IHOPMonthly Weather Review, 135
D. Turner, U. Löhnert (2014)
Information Content and Uncertainties in Thermodynamic Profiles and Liquid Cloud Properties Retrieved from the Ground-Based Atmospheric Emitted Radiance Interferometer (AERI)Journal of Applied Meteorology and Climatology, 53
Guo Lin, B. Geerts, Zhien Wang, Coltin Grasmick, Xiaoqin Jing, Jing Yang (2019)
Interactions between a Nocturnal MCS and the Stable Boundary Layer as Observed by an Airborne Compact Raman Lidar during PECANMonthly Weather Review
B. Geerts, Q. Miao (2005)
Airborne Radar Observations of the Flight Behavior of Small Insects in the Atmospheric Convective Boundary Layer, 34
J. Peters, C. Nowotarski, H. Morrison (2019)
The Role of Vertical Wind Shear in Modulating Maximum Supercell Updraft VelocitiesJournal of the Atmospheric Sciences
R. Knuteson, H. Revercomb, F. Best, N. Ciganovich, R. Dedecker, T. Dirkx, S. Ellington, W. Feltz, R. Garcia, H. Howell, W. Smith, J. Short, D. Tobin (2004)
Atmospheric Emitted Radiance Interferometer. Part I: Instrument DesignJournal of Atmospheric and Oceanic Technology, 21
B. Geerts, D. Parsons, C. Ziegler, T. Weckwerth, M. Biggerstaff, R. Clark, M. Coniglio, B. Demoz, R. Ferrare, W. Gallus, K. Haghi, J. Hanesiak, P. Klein, K. Knupp, K. Kosiba, G. McFarquhar, J. Moore, A. Nehrir, M. Parker, J. Pinto, R. Rauber, R. Schumacher, D. Turner, Qing Wang, Xuguang Wang, Zhien Wang, J. Wurman (2017)
The 2015 Plains Elevated Convection at Night Field ProjectBulletin of the American Meteorological Society, 98
J. Rottman, J. Simpson (1989)
The formation of internal bores in the atmosphere: A laboratory modelQuarterly Journal of the Royal Meteorological Society, 115
H. Karan, K. Knupp (2009)
Radar and Profiler Analysis of Colliding Boundaries: A Case StudyMonthly Weather Review, 137
P. Miller (2005)
The Meteorological Assimilation Data Ingest System (MADIS) - Providing Value-Added Observations to the Meteorological Community
Zhien Wang, P. Wechsler, William Kuestner, J. French, A. Rodi, Brent Glover, M. Burkhart, D. Lukens (2009)
Wyoming Cloud Lidar: instrument description and applications.Optics express, 17 16
Dana Mueller, B. Geerts, Zhien Wang, M. Deng, Coltin Grasmick (2017)
Evolution and Vertical Structure of an Undular Bore Observed on 20 June 2015 during PECANMonthly Weather Review, 145
R. Wakimoto (1982)
The life cycle of thunderstorm gust fronts as viewed with Doppler radar and rawinsonde dataMonthly Weather Review, 110
R. Wakimoto, D. Kingsmill (1995)
Structure of an Atmospheric Undular Bore Generated from Colliding Boundaries during CaPEMonthly Weather Review, 123
R. Knuteson, H. Revercomb, F. Best, N. Ciganovich, R. Dedecker, T. Dirkx, S. Ellington, W. Feltz, R. Garcia, H. Howell, W. Smith, J. Short, D. Tobin (2004)
Atmospheric Emitted Radiance Interferometer. Part II: Instrument PerformanceJournal of Atmospheric and Oceanic Technology, 21
D. Kingsmill, N. Crook (2003)
An Observational Study of Atmospheric Bore Formation from Colliding Density CurrentsMonthly Weather Review, 131
S. Harrison, J. Mecikalski, K. Knupp (2009)
Analysis of Outflow Boundary Collisions in North-Central AlabamaWeather and Forecasting, 24
James Wilson, W. Schreiber (1986)
Initiation of Convective Storms at Radar-Observed Boundary-Layer Convergence LinesMonthly Weather Review, 114
(2016)
Mobile PISA 1 OU/NSSL CLAMPS radiosonde data, version 1.0
R. Wakimoto, Hanne Murphey, E. Browell, S. Ismail (2006)
The “Triple Point” on 24 May 2002 during IHOP. Part I: Airborne Doppler and LASE Analyses of the Frontal Boundaries and Convection InitiationMonthly Weather Review, 134
AbstractThis observational study documents the consequences of a collision between two converging shallow atmospheric boundaries over the central Great Plains on the evening of 7 June 2015. This study uses data from a profiling airborne Raman lidar [the compact Raman lidar (CRL)] and other airborne and ground-based data collected during the Plains Elevated Convection at Night (PECAN) field campaign to investigate the collision between a weak cold front and the outflow from an MCS. The collision between these boundaries led to the lofting of high-CAPE, low-CIN air, resulting in deep convection, as well as an undular bore. Both boundaries behaved as density currents prior to collision. Because the MCS outflow boundary was denser and less deep than the cold-frontal air mass, the bore propagated over the latter. This bore was tracked by the CRL for about 3 h as it traveled north over the shallow cold-frontal surface and evolved into a soliton. This case study is unique by using the high temporal and spatial resolution of airborne Raman lidar measurements to describe the thermodynamic structure of interacting boundaries and a resulting bore.
Monthly Weather Review – American Meteorological Society
Published: Jul 28, 2021
Read and print from thousands of top scholarly journals.
Already have an account? Log in
Bookmark this article. You can see your Bookmarks on your DeepDyve Library.
To save an article, log in first, or sign up for a DeepDyve account if you don’t already have one.
Copy and paste the desired citation format or use the link below to download a file formatted for EndNote
Access the full text.
Sign up today, get DeepDyve free for 14 days.
All DeepDyve websites use cookies to improve your online experience. They were placed on your computer when you launched this website. You can change your cookie settings through your browser.