Studies into the Initial Conditions, Flow Rate, and Containment System of Oil Field Leaks in Deep Water
Oil well blow outs are investigated to determine methods to quickly and accurately respond to an emergency situation. Flow rate is needed to guide containment and dispersal operations. The Stratified Integral Multiphase Plume, SIMP, model was used to investigate the range of initial conditions avail...
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ndltd-tamu.edu-oai-repository.tamu.edu-1969.1-1511192013-12-18T03:55:18ZStudies into the Initial Conditions, Flow Rate, and Containment System of Oil Field Leaks in Deep WaterHolder, Rachelinitial conditionscontainment domeoilleakdeep watersensitivityintegral modelrachel holdersocolofskyblow outdeepwater horizonplumemultiphaseasaedaimbergermortonwuestmcdougallnondimensionalentrainmentzone of flow establishmentzfetrap heightplume widthSIMPOil well blow outs are investigated to determine methods to quickly and accurately respond to an emergency situation. Flow rate is needed to guide containment and dispersal operations. The Stratified Integral Multiphase Plume, SIMP, model was used to investigate the range of initial conditions available to integral modeling. Sensitivity to initial conditions is modest, but without experimental data at the appropriate scale the most accurate condition is unable to be determined. Flow rates are difficult to directly measure in blow out situations, so another method must be determined; therefore, sensitivity of several parameters to flow rate was also evaluated. Methane concentration in the first intrusion can be used in conjunction with velocity and trap height measurements to determine flow rate using an integral model. Plume width and temperature were determined to have little sensitivity. Separately, a containment dome was tested in the laboratory to determine if a full scale dome can be used to contain an oil leak in the field. The dome was found to have satisfactory entrapment in the designed position.Socolofsky, ScottOrsi, AlejandroMercier, Richard2013-12-16T20:03:46Z2013-12-16T20:03:46Z2013-082013-07-22August 20132013-12-16T20:03:47ZThesistextapplication/pdfhttp://hdl.handle.net/1969.1/151119en |
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initial conditions containment dome oil leak deep water sensitivity integral model rachel holder socolofsky blow out deepwater horizon plume multiphase asaeda imberger morton wuest mcdougall nondimensional entrainment zone of flow establishment zfe trap height plume width SIMP |
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initial conditions containment dome oil leak deep water sensitivity integral model rachel holder socolofsky blow out deepwater horizon plume multiphase asaeda imberger morton wuest mcdougall nondimensional entrainment zone of flow establishment zfe trap height plume width SIMP Holder, Rachel Studies into the Initial Conditions, Flow Rate, and Containment System of Oil Field Leaks in Deep Water |
description |
Oil well blow outs are investigated to determine methods to quickly and accurately respond to an emergency situation. Flow rate is needed to guide containment and dispersal operations. The Stratified Integral Multiphase Plume, SIMP, model was used to investigate the range of initial conditions available to integral modeling. Sensitivity to initial conditions is modest, but without experimental data at the appropriate scale the most accurate condition is unable to be determined. Flow rates are difficult to directly measure in blow out situations, so another method must be determined; therefore, sensitivity of several parameters to flow rate was also evaluated. Methane concentration in the first intrusion can be used in conjunction with velocity and trap height measurements to determine flow rate using an integral model. Plume width and temperature were determined to have little sensitivity. Separately, a containment dome was tested in the laboratory to determine if a full scale dome can be used to contain an oil leak in the field. The dome was found to have satisfactory entrapment in the designed position. |
author2 |
Socolofsky, Scott |
author_facet |
Socolofsky, Scott Holder, Rachel |
author |
Holder, Rachel |
author_sort |
Holder, Rachel |
title |
Studies into the Initial Conditions, Flow Rate, and Containment System of Oil Field Leaks in Deep Water |
title_short |
Studies into the Initial Conditions, Flow Rate, and Containment System of Oil Field Leaks in Deep Water |
title_full |
Studies into the Initial Conditions, Flow Rate, and Containment System of Oil Field Leaks in Deep Water |
title_fullStr |
Studies into the Initial Conditions, Flow Rate, and Containment System of Oil Field Leaks in Deep Water |
title_full_unstemmed |
Studies into the Initial Conditions, Flow Rate, and Containment System of Oil Field Leaks in Deep Water |
title_sort |
studies into the initial conditions, flow rate, and containment system of oil field leaks in deep water |
publishDate |
2013 |
url |
http://hdl.handle.net/1969.1/151119 |
work_keys_str_mv |
AT holderrachel studiesintotheinitialconditionsflowrateandcontainmentsystemofoilfieldleaksindeepwater |
_version_ |
1716620485963284480 |