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Clathrate hydrates / Air dispersion modeling / Methane / Methane clathrate / Plume / Blowout / Properties of water / Hydrocarbon / Chemistry / Matter / Oilfield terminology


Near-field dynamics of the Deepwater Horizon accidental blowout: Chemical partitioning, intrusion dynamics, and dispersant effectiveness Scott A. Socolofsky, E. Eric Adams, Steven F. DiMarco, Thorsten Stoesser, and Chris
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Document Date: 2012-02-17 10:26:38


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File Size: 1,13 MB

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City

College Station / Cambridge / /

Company

BP / Ralph M. Parsons Laboratory / Ryerson / Coastal / Socolofsky S. A. / /

Country

United States / /

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Event

Man-Made Disaster / /

Facility

Texas A&M University / Georgia Institute of Technology / Massachusetts Institute of Technology / Stable Hydrate Region Prop / Station B54 / /

IndustryTerm

large oil droplets / methane gas hydrate formation / large gas bubbles / gas bubbles / spilled oil / oil and gas / oil droplets / gas bubble effective diameter / gas dissolution / modest gas stripping / /

NaturalFeature

Gulf of Mexico / Gulf of Mexico Research Initiative / /

Organization

School of Civil and Environmental Engineering / National Science Foundation / Texas A&M University / Department of Oceanography / Massachusetts Institute of Technology / Georgia Institute of Technology / Atlanta / /

Person

Fully Dissolved / Thorsten Stoesser / Scott A. Socolofsky / Christopher R. Sherwood / R. Sherwood Model / E. Eric Adams / Brooks McCall / /

Position

Ranz-Marshall / Well Head / representative / Further Information Author / Model Data Compared / /

ProgrammingLanguage

LaTeX / /

ProvinceOrState

Texas / Georgia / Massachusetts / /

RadioStation

Cro am 0 / /

Region

Gulf of Mexico / /

TVStation

CBET / /

Technology

Environmental Engineering / detrainment Integral Plume Model algorithm / heat transfer / Simulation / animation / /

URL

http /

SocialTag