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NARROW
GeoRef Subject
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all geography including DSDP/ODP Sites and Legs
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North America
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United States
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Wyoming
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Sweetwater County Wyoming
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Rock Springs Wyoming (5)
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soils (1)
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Rock Springs Wyoming
The southern Wyoming Laramide basin: implications for long-term tectonic control on uplift and subsidence
Anomaly May Not Reflect Hydrocarbon Seepage: Patrick Draw Field, Wyoming, Revisited
Shallow-Water and Sub-Storm-Base Deposition of Lewis Shale in Cretaceous Western Interior Seaway, South-Central Wyoming
Predicting wind velocities from sand dune and draa spacings determined by Fourier analysis
Eolian landforms are the natural result of the action of strong winds on an exposed land surface. Certain characteristics of the wind can be interpreted from these landforms. The spacing of sand dunes and draas (dune groups) is one parameter that can be used to estimate wind velocity and available wind power. LANDSAT imagery or aerial photography may be used to identify the eolian landforms, and measurements of spacings can be made directly from these datum. Fourier analysis of these measurements reveals the predominant spacings. Assuming that shear velocity is the dominant factor determining the wave length of bedforms, the spacing (λ) can be used to compute the threshold shear velocity (V *T ) using mathematical relationships derived by Wilson (1972): V ′ * T = 2.06 λ 1 / 3 cm / sec ( dunes ) V ′ * T = 0.59 λ 1 / 3 cm / sec ( draas ) These values may then be used to estimate wind velocity at any other height above the surface or to estimate available wind power. The Killpecker and Seminoe Dune Fields in south-central Wyoming were used as test areas in which to demonstrate this technique.