Wavenumber response of the shear probe - Revision history

Ilker at 16:53, 7 May 2022

2022-05-07T16:53:06Z

← Older revision		Revision as of 16:53, 7 May 2022
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			{{DefineConcept
			\|description=Spatial averaging effect of the tip of a shear probe
			\|article_type=Concepts
			}}

	The probe-response correction depends on the dimensions of the shear probe.		The probe-response correction depends on the dimensions of the shear probe.
	For a commonly used shear probe the spectrum is corrected for the spatial averaging of the shear probe by multiplying it by the factor <math>1+\left( \frac{k}{k_0} \right)^2</math> where <math>k_0</math> = 50 cpm and <math>k</math> is the wavenumber expressed in units of cpm		For a commonly used shear probe the spectrum is corrected for the spatial averaging of the shear probe by multiplying it by the factor <math>1+\left( \frac{k}{k_0} \right)^2</math> where <math>k_0</math> = 50 cpm and <math>k</math> is the wavenumber expressed in units of cpm

CynthiaBluteau: Categorization

2021-11-23T15:24:34Z

Categorization

← Older revision		Revision as of 15:24, 23 November 2021
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	----------------------------		----------------------------
	return to [[Flow chart for shear probes]]		return to [[Flow chart for shear probes]]


			[[Category:Shear probes]]

Rolf at 22:41, 19 November 2021

2021-11-19T22:41:54Z

← Older revision		Revision as of 22:41, 19 November 2021
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	The probe-response correction depends on the dimensions of the shear probe.		The probe-response correction depends on the dimensions of the shear probe.
	For a commonly used shear probe the spectrum is corrected for the spatial averaging of the shear probe by multiplying it by the factor ~~correction~~ <math>1+\left( \frac{k}{k_0} \right)^2</math> where <math>k_0</math> = 50 cpm and <math>k</math> is the wavenumber expressed in units of cpm		For a commonly used shear probe the spectrum is corrected for the spatial averaging of the shear probe by multiplying it by the factor <math>1+\left( \frac{k}{k_0} \right)^2</math> where <math>k_0</math> = 50 cpm and <math>k</math> is the wavenumber expressed in units of cpm
	<ref name="macounlueck2004">{{Cite journal		<ref name="macounlueck2004">{{Cite journal
	\|authors= P. Macoun and R. Lueck		\|authors= P. Macoun and R. Lueck

Rolf at 22:41, 19 November 2021

2021-11-19T22:41:14Z

@@ Line 1: / Line 1: @@
-The probe-response correction depends on the dimensions of the shear probe. For a commonly used shear probe the spectrum is corrected for the spatial averaging of the shear probe by multiplying it by the factor correction <math>1+\left( \frac{k}{k_0} \right)^2</math> where <math>k_0</math> = 50 cpm and <math>k</math> is the wavenumber expressed in units of cpm <ref>Macoun, P., & Lueck, R. (2004). Modeling the spatial response of the airfoil shear probe using different sized probes. Journal of Atmospheric and Oceanic Technology, 21(2), 284-297.</ref>. The correction reaches a factor of 10 at a wavenumber of 150 cpm, and it is not recommended to use spectral data beyond this wavenumber unless your shear probe is small enough to have a cutoff wavenumber <math>k_0</math> that is larger than 50 cpm.
+The probe-response correction depends on the dimensions of the shear probe.
 ==References==
 <references />

Rolf at 22:18, 19 November 2021

2021-11-19T22:18:24Z

← Older revision		Revision as of 22:18, 19 November 2021
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	The probe-response correction depends on the dimensions of the shear probe. For a commonly used shear probe the spectrum is corrected for the spatial averaging of the shear probe by multiplying it by the factor correction <math>1+\left( \frac{k}{k_0} \right)^2</math> where <math>k_0</math> = 50 cpm and <math>k</math> is the wavenumber expressed in units of cpm <ref>Macoun, P., & Lueck, R. (2004). Modeling the spatial response of the airfoil shear probe using different sized probes. Journal of Atmospheric and Oceanic Technology, 21(2), 284-297.</ref>. The correction reaches a factor of 10 at a wavenumber of 150 cpm, and it is not recommended to use spectral data beyond this wavenumber unless ~~the~~ probe is small ~~and~~ <math>k_0</math> is larger than 50 cpm.		The probe-response correction depends on the dimensions of the shear probe. For a commonly used shear probe the spectrum is corrected for the spatial averaging of the shear probe by multiplying it by the factor correction <math>1+\left( \frac{k}{k_0} \right)^2</math> where <math>k_0</math> = 50 cpm and <math>k</math> is the wavenumber expressed in units of cpm <ref>Macoun, P., & Lueck, R. (2004). Modeling the spatial response of the airfoil shear probe using different sized probes. Journal of Atmospheric and Oceanic Technology, 21(2), 284-297.</ref>. The correction reaches a factor of 10 at a wavenumber of 150 cpm, and it is not recommended to use spectral data beyond this wavenumber unless your shear probe is small enough to have a cutoff wavenumber <math>k_0</math> that is larger than 50 cpm.

	==References==		==References==
	<references />		<references />

Aleboyer at 16:08, 5 October 2021

2021-10-05T16:08:26Z

← Older revision		Revision as of 16:08, 5 October 2021
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	The probe-response correction depends on the dimensions of the shear probe. For a commonly used shear probe the spectrum is corrected for the spatial averaging of the shear probe by multiplying it by the factor correction <math>1+\left( \frac{k}{k_0} \right)^2</math> where <math>k_0</math> = 50 cpm and <math>k</math> is the wavenumber expressed in units of cpm (Macoun ~~and~~ Lueck, 2004). The correction reaches a factor of 10 at a wavenumber of 150 cpm, and it is not recommended to use spectral data beyond this wavenumber unless the probe is small and <math>k_0</math> is larger than 50 cpm.		The probe-response correction depends on the dimensions of the shear probe. For a commonly used shear probe the spectrum is corrected for the spatial averaging of the shear probe by multiplying it by the factor correction <math>1+\left( \frac{k}{k_0} \right)^2</math> where <math>k_0</math> = 50 cpm and <math>k</math> is the wavenumber expressed in units of cpm <ref>Macoun, P., & Lueck, R. (2004). Modeling the spatial response of the airfoil shear probe using different sized probes. Journal of Atmospheric and Oceanic Technology, 21(2), 284-297.</ref>. The correction reaches a factor of 10 at a wavenumber of 150 cpm, and it is not recommended to use spectral data beyond this wavenumber unless the probe is small and <math>k_0</math> is larger than 50 cpm.

			==References==
			<references />

Aleboyer: Created page with "The probe-response correction depends on the dimensions of the shear probe. For a commonly used shear probe the spectrum is corrected for the spatial averaging of the shear pr..."

2021-08-20T20:55:23Z

Created page with "The probe-response correction depends on the dimensions of the shear probe. For a commonly used shear probe the spectrum is corrected for the spatial averaging of the shear pr..."

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The probe-response correction depends on the dimensions of the shear probe. For a commonly used shear probe the spectrum is corrected for the spatial averaging of the shear probe by multiplying it by the factor correction <math>1+\left( \frac{k}{k_0} \right)^2</math> where <math>k_0</math> = 50 cpm and <math>k</math> is the wavenumber expressed in units of cpm (Macoun and Lueck, 2004). The correction reaches a factor of 10 at a wavenumber of 150 cpm, and it is not recommended to use spectral data beyond this wavenumber unless the probe is small and <math>k_0</math> is larger than 50 cpm.