Stratospheric Trailing Gravity Waves from New Zealand

Gravity waves are frequently observed in the stratosphere, trailing long distances from mid- to high-latitude topography. Two such trailing-wave events documented over New Zealand are examined using observations, numerical simulations, and ray-tracing analysis to explore and document stratospheric t...

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Published inJournal of the atmospheric sciences Vol. 76; no. 6; pp. 1565 - 1586
Main Authors Jiang, Qingfang, Doyle, James D., Eckermann, Stephen D., Williams, Bifford P.
Format Journal Article
LanguageEnglish
Published Boston American Meteorological Society 01.06.2019
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Abstract Gravity waves are frequently observed in the stratosphere, trailing long distances from mid- to high-latitude topography. Two such trailing-wave events documented over New Zealand are examined using observations, numerical simulations, and ray-tracing analysis to explore and document stratospheric trailing-wave characteristics and formation mechanisms. We find that the trailing waves over New Zealand are orographically generated and regulated by several processes, including interaction between terrain and mountaintop winds, critical-level absorption, and lateral wave refraction. Among these, the interaction between topography and low-level winds determines the perturbation energy distribution over horizontal scales and directions near the wave source, and accordingly, trailing waves are sensitive to terrain features and low-level winds. Terrain-forced wave modes are filtered by absorption associated with directional wind shear and Jones critical levels. The former plays a role in defining wave-beam orientation, and the latter sets an upper limit for the permissible horizontal wavelength of trailing waves. On propagating into the stratosphere, these orographic gravity waves are subject to horizontal refraction associated with the meridional shear in the stratospheric westerlies, which tends to elongate the wave beams pointing toward stronger westerlies and shorten the wave beams on the opposite side.
AbstractList Gravity waves are frequently observed in the stratosphere, trailing long distances from mid- to high-latitude topography. Two such trailing-wave events documented over New Zealand are examined using observations, numerical simulations, and ray-tracing analysis to explore and document stratospheric trailing-wave characteristics and formation mechanisms. We find that the trailing waves over New Zealand are orographically generated and regulated by several processes, including interaction between terrain and mountaintop winds, critical-level absorption, and lateral wave refraction. Among these, the interaction between topography and low-level winds determines the perturbation energy distribution over horizontal scales and directions near the wave source, and accordingly, trailing waves are sensitive to terrain features and low-level winds. Terrain-forced wave modes are filtered by absorption associated with directional wind shear and Jones critical levels. The former plays a role in defining wave-beam orientation, and the latter sets an upper limit for the permissible horizontal wavelength of trailing waves. On propagating into the stratosphere, these orographic gravity waves are subject to horizontal refraction associated with the meridional shear in the stratospheric westerlies, which tends to elongate the wave beams pointing toward stronger westerlies and shorten the wave beams on the opposite side.
Author Williams, Bifford P.
Jiang, Qingfang
Eckermann, Stephen D.
Doyle, James D.
Author_xml – sequence: 1
  givenname: Qingfang
  surname: Jiang
  fullname: Jiang, Qingfang
  organization: Marine Meteorology Division, U.S. Naval Research Laboratory, Monterey, California
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  givenname: James D.
  surname: Doyle
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  givenname: Bifford P.
  surname: Williams
  fullname: Williams, Bifford P.
  organization: Boulder Division, GATS, Boulder, Colorado
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Snippet Gravity waves are frequently observed in the stratosphere, trailing long distances from mid- to high-latitude topography. Two such trailing-wave events...
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StartPage 1565
SubjectTerms Absorption
Computer simulation
Data assimilation
Energy distribution
Gravitational waves
Gravity
Gravity waves
Horizontal distribution
Numerical simulations
Orientation
Orographic gravity waves
Perturbation
Refraction
Simulation
Stratosphere
Terrain
Topography
Wave propagation
Wave refraction
Wavelength
Weather forecasting
Westerlies
Wind
Wind shear
Winds
Title Stratospheric Trailing Gravity Waves from New Zealand
URI https://www.proquest.com/docview/2399215944
Volume 76
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