Intra-annual variations of spectrally resolved gravity wave activity in the upper mesosphere/lower thermosphere (UMLT) region

The period range between 6 and 480 min is known to represent the major part of the gravity wave spectrum driving mesospheric dynamics. We present a method using wavelet analysis to calculate gravity wave activity with a high period resolution and apply it to temperature data acquired with the OH* ai...

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Published inAtmospheric measurement techniques Vol. 13; no. 9; pp. 5117 - 5128
Main Authors Sedlak, René, Zuhr, Alexandra, Schmidt, Carsten, Wüst, Sabine, Bittner, Michael, Didebulidze, Goderdzi G, Price, Colin
Format Journal Article
LanguageEnglish
Published Katlenburg-Lindau Copernicus GmbH 29.09.2020
Copernicus Publications
Subjects
Airglow
Algorithms
Analysis
Annual variations
Atmospheric research
Data acquisition
Environmental research
Gravity waves
Infrared spectrometers
Instruments
Lidar
Lower mantle
Lower thermosphere
Measurement techniques
Mesosphere
Mesospheric dynamics
Mesospheric gravity waves
Middle atmosphere
Mountains
Observatories
Optical radar
Polar environments
Remote sensing
Seasonal variability
Seasonal variation
Seasonal variations
Spectrometers
Stratospheric winds
Temperature
Temperature data
Thermosphere
Time series
Wave period
Wave spectra
Wavelet analysis
Winter
Germany
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Abstract The period range between 6 and 480 min is known to represent the major part of the gravity wave spectrum driving mesospheric dynamics. We present a method using wavelet analysis to calculate gravity wave activity with a high period resolution and apply it to temperature data acquired with the OH* airglow spectrometers called GRIPS (GRound-based Infrared P-branch Spectrometer) within the framework of the NDMC (Network for the Detection of Mesospheric Change; https://ndmc.dlr.de, last access: 22 September 2020). We analyse data measured at the NDMC sites Abastumani in Georgia (ABA; 41.75.sup." N, 42.82.sup." E), ALOMAR (Arctic Lidar Observatory for Middle Atmosphere Research) in Norway (ALR; 69.28.sup." N, 16.01.sup." E), Neumayer Station III in the Antarctic (NEU; 70.67.sup." S, 8.27.sup." W), Observatoire de Haute-Provence in France (OHP; 43.93.sup." N, 5.71.sup." E), Oberpfaffenhofen in Germany (OPN; 48.09.sup." N, 11.28.sup." E), Sonnblick in Austria (SBO; 47.05.sup." N, 12.95.sup." E), Tel Aviv in Israel (TAV; 32.11.sup." N, 34.80.sup." E), and the Environmental Research Station Schneefernerhaus on top of Zugspitze mountain in Germany (UFS; 47.42.sup." N, 10.98.sup." E). All eight instruments are identical in construction and deliver consistent and comparable data sets.
AbstractList The period range between 6 and 480 min is known to represent the major part of the gravity wave spectrum driving mesospheric dynamics. We present a method using wavelet analysis to calculate gravity wave activity with a high period resolution and apply it to temperature data acquired with the OH* airglow spectrometers called GRIPS (GRound-based Infrared P-branch Spectrometer) within the framework of the NDMC (Network for the Detection of Mesospheric Change; https://ndmc.dlr.de , last access: 22 September 2020). We analyse data measured at the NDMC sites Abastumani in Georgia (ABA; 41.75 ∘  N, 42.82 ∘  E), ALOMAR (Arctic Lidar Observatory for Middle Atmosphere Research) in Norway (ALR; 69.28 ∘  N, 16.01 ∘  E), Neumayer Station III in the Antarctic (NEU; 70.67 ∘  S, 8.27 ∘  W), Observatoire de Haute-Provence in France (OHP; 43.93 ∘  N, 5.71 ∘  E), Oberpfaffenhofen in Germany (OPN; 48.09 ∘  N, 11.28 ∘  E), Sonnblick in Austria (SBO; 47.05 ∘  N, 12.95 ∘  E), Tel Aviv in Israel (TAV; 32.11 ∘  N, 34.80 ∘  E), and the Environmental Research Station Schneefernerhaus on top of Zugspitze mountain in Germany (UFS; 47.42 ∘  N, 10.98 ∘  E). All eight instruments are identical in construction and deliver consistent and comparable data sets. For periods shorter than 60 min, gravity wave activity is found to be relatively low and hardly shows any seasonal variability on the timescale of months. We find a semi-annual cycle with maxima during winter and summer for gravity waves with periods longer than 60 min, which gradually develops into an annual cycle with a winter maximum for longer periods. The transition from a semi-annual pattern to a primarily annual pattern starts around a gravity wave period of 200 min. Although there are indications of enhanced gravity wave sources above mountainous terrain, the overall pattern of gravity wave activity does not differ significantly for the abovementioned observation sites. Thus, large-scale mechanisms such as stratospheric wind filtering seem to dominate the evolution of mesospheric gravity wave activity.
The period range between 6 and 480 min is known to represent the major part of the gravity wave spectrum driving mesospheric dynamics. We present a method using wavelet analysis to calculate gravity wave activity with a high period resolution and apply it to temperature data acquired with the OH* airglow spectrometers called GRIPS (GRound-based Infrared P-branch Spectrometer) within the framework of the NDMC (Network for the Detection of Mesospheric Change; https://ndmc.dlr.de, last access: 22 September 2020). We analyse data measured at the NDMC sites Abastumani in Georgia (ABA; 41.75.sup." N, 42.82.sup." E), ALOMAR (Arctic Lidar Observatory for Middle Atmosphere Research) in Norway (ALR; 69.28.sup." N, 16.01.sup." E), Neumayer Station III in the Antarctic (NEU; 70.67.sup." S, 8.27.sup." W), Observatoire de Haute-Provence in France (OHP; 43.93.sup." N, 5.71.sup." E), Oberpfaffenhofen in Germany (OPN; 48.09.sup." N, 11.28.sup." E), Sonnblick in Austria (SBO; 47.05.sup." N, 12.95.sup." E), Tel Aviv in Israel (TAV; 32.11.sup." N, 34.80.sup." E), and the Environmental Research Station Schneefernerhaus on top of Zugspitze mountain in Germany (UFS; 47.42.sup." N, 10.98.sup." E). All eight instruments are identical in construction and deliver consistent and comparable data sets.
The period range between 6 and 480 min is known to represent the major part of the gravity wave spectrum driving mesospheric dynamics. We present a method using wavelet analysis to calculate gravity wave activity with a high period resolution and apply it to temperature data acquired with the OH* airglow spectrometers called GRIPS (GRound-based Infrared P-branch Spectrometer) within the framework of the NDMC (Network for the Detection of Mesospheric Change; For periods shorter than 60 min, gravity wave activity is found to be relatively low and hardly shows any seasonal variability on the timescale of months. We find a semi-annual cycle with maxima during winter and summer for gravity waves with periods longer than 60 min, which gradually develops into an annual cycle with a winter maximum for longer periods. The transition from a semi-annual pattern to a primarily annual pattern starts around a gravity wave period of 200 min. Although there are indications of enhanced gravity wave sources above mountainous terrain, the overall pattern of gravity wave activity does not differ significantly for the abovementioned observation sites. Thus, large-scale mechanisms such as stratospheric wind filtering seem to dominate the evolution of mesospheric gravity wave activity.
The period range between 6 and 480 min is known to represent the major part of the gravity wave spectrum driving mesospheric dynamics. We present a method using wavelet analysis to calculate gravity wave activity with a high period resolution and apply it to temperature data acquired with the OH* airglow spectrometers called GRIPS (GRound-based Infrared P-branch Spectrometer) within the framework of the NDMC (Network for the Detection of Mesospheric Change; https://ndmc.dlr.de, last access: 22 September 2020). We analyse data measured at the NDMC sites Abastumani in Georgia (ABA; 41.75∘ N, 42.82∘ E), ALOMAR (Arctic Lidar Observatory for Middle Atmosphere Research) in Norway (ALR; 69.28∘ N, 16.01∘ E), Neumayer Station III in the Antarctic (NEU; 70.67∘ S, 8.27∘ W), Observatoire de Haute-Provence in France (OHP; 43.93∘ N, 5.71∘ E), Oberpfaffenhofen in Germany (OPN; 48.09∘ N, 11.28∘ E), Sonnblick in Austria (SBO; 47.05∘ N, 12.95∘ E), Tel Aviv in Israel (TAV; 32.11∘ N, 34.80∘ E), and the Environmental Research Station Schneefernerhaus on top of Zugspitze mountain in Germany (UFS; 47.42∘ N, 10.98∘ E). All eight instruments are identical in construction and deliver consistent and comparable data sets. For periods shorter than 60 min, gravity wave activity is found to be relatively low and hardly shows any seasonal variability on the timescale of months. We find a semi-annual cycle with maxima during winter and summer for gravity waves with periods longer than 60 min, which gradually develops into an annual cycle with a winter maximum for longer periods. The transition from a semi-annual pattern to a primarily annual pattern starts around a gravity wave period of 200 min. Although there are indications of enhanced gravity wave sources above mountainous terrain, the overall pattern of gravity wave activity does not differ significantly for the abovementioned observation sites. Thus, large-scale mechanisms such as stratospheric wind filtering seem to dominate the evolution of mesospheric gravity wave activity.
The period range between 6 and 480 min is known to represent the major part of the gravity wave spectrum driving mesospheric dynamics. We present a method using wavelet analysis to calculate gravity wave activity with a high period resolution and apply it to temperature data acquired with the OH* airglow spectrometers called GRIPS (GRound-based Infrared P-branch Spectrometer) within the framework of the NDMC (Network for the Detection of Mesospheric Change; https://ndmc.dlr.de, last access: 22 September 2020). We analyse data measured at the NDMC sites Abastumani in Georgia (ABA; 41.75∘ N, 42.82∘ E), ALOMAR (Arctic Lidar Observatory for Middle Atmosphere Research) in Norway (ALR; 69.28∘ N, 16.01∘ E), Neumayer Station III in the Antarctic (NEU; 70.67∘ S, 8.27∘ W), Observatoire de Haute-Provence in France (OHP; 43.93∘ N, 5.71∘ E), Oberpfaffenhofen in Germany (OPN; 48.09∘ N, 11.28∘ E), Sonnblick in Austria (SBO; 47.05∘ N, 12.95∘ E), Tel Aviv in Israel (TAV; 32.11∘ N, 34.80∘ E), and the Environmental Research Station Schneefernerhaus on top of Zugspitze mountain in Germany (UFS; 47.42∘ N, 10.98∘ E). All eight instruments are identical in construction and deliver consistent and comparable data sets.For periods shorter than 60 min, gravity wave activity is found to be relatively low and hardly shows any seasonal variability on the timescale of months. We find a semi-annual cycle with maxima during winter and summer for gravity waves with periods longer than 60 min, which gradually develops into an annual cycle with a winter maximum for longer periods. The transition from a semi-annual pattern to a primarily annual pattern starts around a gravity wave period of 200 min. Although there are indications of enhanced gravity wave sources above mountainous terrain, the overall pattern of gravity wave activity does not differ significantly for the abovementioned observation sites. Thus, large-scale mechanisms such as stratospheric wind filtering seem to dominate the evolution of mesospheric gravity wave activity.
Audience Academic
Author Price, Colin
Zuhr, Alexandra
Wüst, Sabine
Schmidt, Carsten
Bittner, Michael
Sedlak, René
Didebulidze, Goderdzi G
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Snippet The period range between 6 and 480 min is known to represent the major part of the gravity wave spectrum driving mesospheric dynamics. We present a method...
The period range between 6 and 480 min is known to represent the major part of the gravity wave spectrum driving mesospheric dynamics. We present a method...
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SubjectTerms Airglow
Algorithms
Analysis
Annual variations
Atmospheric research
Data acquisition
Environmental research
Gravity waves
Infrared spectrometers
Instruments
Lidar
Lower mantle
Lower thermosphere
Measurement techniques
Mesosphere
Mesospheric dynamics
Mesospheric gravity waves
Middle atmosphere
Mountains
Observatories
Optical radar
Polar environments
Remote sensing
Seasonal variability
Seasonal variation
Seasonal variations
Spectrometers
Stratospheric winds
Temperature
Temperature data
Thermosphere
Time series
Wave period
Wave spectra
Wavelet analysis
Winter
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Title Intra-annual variations of spectrally resolved gravity wave activity in the upper mesosphere/lower thermosphere (UMLT) region
URI https://www.proquest.com/docview/2446983613/abstract/
https://doaj.org/article/1490de6dbccc4df8a917e5a4c63e6c29
Volume 13
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