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Original Articles

Origin and structure of a numerically simulated polar low over Hudson Bay

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Pages 834-848 | Received 29 Aug 1994, Accepted 14 Feb 1995, Published online: 15 Dec 2016

Keep up to date with the latest research on this topic with citation updates for this article.

Read on this site (3)

Marta Moreno-Ibáñez, René Laprise & Philippe Gachon. (2021) Recent advances in polar low research: current knowledge, challenges and future perspectives. Tellus A: Dynamic Meteorology and Oceanography 73:1, pages 1-31.
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JØRn Kristiansen, Silje Lund SØRland, Trond Iversen, Dag BjØRge & Morten ØDegaard KØLtzow. (2011) High-resolution ensemble prediction of a polar low development. Tellus A: Dynamic Meteorology and Oceanography 63:3, pages 585-604.
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Phillipe Gachon, René Laprise, Peter Zwack & François J. Saucier. (2003) The effects of interactions between surface forcings in the development of a model-simulated polar low in Hudson Bay. Tellus A: Dynamic Meteorology and Oceanography 55:1, pages 61-87.
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Articles from other publishers (16)

Marta Moreno-Ibáñez, René Laprise & Philippe Gachon. (2023) Analysis of the Development Mechanisms of a Polar Low over the Norwegian Sea Simulated with the Canadian Regional Climate Model. Atmosphere 14:6, pages 998.
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H. F. Wong, Muhammad Sohail, Z. Siri & N. F. M. Noor. (2021) Numerical Solutions for Heat Transfer of An Unsteady Cavity with Viscous Heating. Computers, Materials & Continua 68:1, pages 319-336.
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Denis Sergeev, Ian A. Renfrew & Thomas Spengler. (2018) Modification of Polar Low Development by Orography and Sea Ice. Monthly Weather Review 146:10, pages 3325-3341.
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Jae Gyoo Lee & Yu Jin Kim. (2018) WRF Sensitivity Experiments of the Polar Low Development Accompanied by Heavy Snowfall on 11 February 2011 to Orography Specification. Journal of the Korean Society of Hazard Mitigation 18:4, pages 27-40.
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E. W. Kolstad & T. J. Bracegirdle. (2017) Sensitivity of an apparently hurricane‐like polar low to sea‐surface temperature. Quarterly Journal of the Royal Meteorological Society 143:703, pages 966-973.
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Erik W. Kolstad, Thomas J. Bracegirdle & Matthias Zahn. (2016) Re‐examining the roles of surface heat flux and latent heat release in a “hurricane‐like” polar low over the Barents Sea. Journal of Geophysical Research: Atmospheres 121:13, pages 7853-7867.
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Mathieu Plante, Seok-Woo Son, Eyad Atallah, John Gyakum & Kevin Grise. (2015) Extratropical cyclone climatology across eastern Canada. International Journal of Climatology 35:10, pages 2759-2776.
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John Lawson. (2010) Snow and gales in eastern England from a North Sea polar low: 6/7 January 2010. Weather 66:1, pages 10-13.
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T. Linders, Ø. Saetra & T. J. Bracegirdle. (2011) Limited polar low sensitivity to sea-surface temperature. Quarterly Journal of the Royal Meteorological Society 137:654, pages 58-69.
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Steven M. Cavallo & Gregory J. Hakim. (2009) Potential Vorticity Diagnosis of a Tropopause Polar Cyclone. Monthly Weather Review 137:4, pages 1358-1371.
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Wataru Yanase & Hiroshi Niino. (2007) Dependence of Polar Low Development on Baroclinicity and Physical Processes: An Idealized High-Resolution Numerical Experiment. Journal of the Atmospheric Sciences 64:9, pages 3044-3067.
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W. Yanase. (2005) Effects of baroclinicity on the cloud pattern and structure of polar lows: A high-resolution numerical experiment. Geophysical Research Letters 32:2.
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Wataru Yanase, Gang Fu, Hiroshi Niino & Teruyuki Kato. (2004) A Polar Low over the Japan Sea on 21 January 1997. Part II: A Numerical Study. Monthly Weather Review 132:7, pages 1552-1574.
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. 2009. Polar Lows. Polar Lows.
PHILIPPE GACHON, RENE LAPRISE, PETER ZWACK & FRANCOIS J. SAUCIER. (2003) The effects of interactions between surface forcings in the development of a model-simulated polar low in Hudson Bay. Tellus A 55:1, pages 61-87.
Crossref
Steven Businger & Joost A. Businger. (2001) Viscous Dissipation of Turbulence Kinetic Energy in Storms*. Journal of the Atmospheric Sciences 58:24, pages 3793-3796.
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