Thesis (M.S.)--University of Oklahoma, 2005 / Title from title screen (viewed on Dec. 10, 2007). Title from document title page. Includes bibliographical references. Available in PDF format via the World Wide Web.

In the absence of a continued military presence in Iraq, the United States must use alternative means to achieve its foreign policy goals. Stated goals include maintaining influence, increasing stability in Iraq, Iran, and the Arabian Peninsula, and ensuring Iraq's territorial integrity. This paper suggests leveraging the power of American oil and gas firms operating in Iraqi Kurdistan given the relative ineffectiveness of the embassy in Baghdad and the hostility many Iraqis exhibit toward American diplomats. It first outlines American policy toward Iraqi Kurdistan from the end of the Gulf War to the present. Next it provides a brief overview of the current state of affairs in Iraqi politics and Iraq's oil and gas industry. Then the paper describes four specific ways in which supporting American oil and gas firms in Iraqi Kurdistan can help the United States achieve its foreign policy goals. First, it can check undue Shi'a centralization of power and keep Iraq from drifting too far into the Iranian sphere. Second, it can strengthen the Kurdish bargaining position with Baghdad and push Iraq toward resolving the status of Kirkuk and enacting a comprehensive hydrocarbons law. Third, oil and gas extraction through profit sharing contracts (PSCs) rather than technical services agreements (TSAs) would promote foreign direct investment and spur economic growth. Finally, private sector oil and gas companies could be a critical component in maintaining American influence with the Kurdistan Regional Government (KRG) and the Government of Iraq (GOI) through their strong local ties. The last chapter is devoted to policy prescriptions for achieving the aforementioned goals.

This thesis studies the overall parameters affecting projects’ risks and analyze different methodologies of project risk management in order to narrow down and develop a customized methodology applicable for Engineering, Procurement and Construction (EPC) projects in the oil and gas industry. To approach this goal, Bidboland II Gas Treating Plant project was selected as an appropriate case study. This case project has been analyzed by combining various risk management methodologies, and based on this analysis a new methodology was suggested to the company for risk management. Additionally, necessary changes in the organization have been proposed to handle the project risk issues in different levels with higher performance. The developed methodology can be applicable for other companies involved in EPC projects.

The production of clean fuel faces the challenges of high production cost and complying with stricter environmental regulations. In this research, the ability of using a novel technology of upgrading heavy oil to treat Light Gas Oil (LGO) will be investigated. The target of this project is to produce cleaner transportation fuel with much lower cost of production. Recently, a novel process for upgrading of heavy oil has been developed at University of Waterloo. It is combining the two essential processes in bitumen upgrading; emulsion breaking and hydroprocessing into one process. The water in the emulsion is used to generate in situ hydrogen from the Water Gas Shift Reaction (WGSR). This hydrogen can be used for the hydrogenation and hydrotreating reaction which includes sulfur removal instead of the expensive molecular hydrogen. This process can be carried out for the upgrading of the bitumen emulsion which would improve its quality. In this study, the hydrodesulphurization (HDS) of LGO was conducted using in situ hydrogen produced via the Water Gas Shift Reaction (WGSR). The main objective of this experimental study is to evaluate the possibility of producing clean LGO over dispersed molybdenum sulphide catalyst and to evaluate the effect of different promoters and syn-gas on the activity of the dispersed Mo catalyst. Experiments were carried out in a 300 ml Autoclave batch reactor under 600 psi (initially) at 391oC for 1 to 3 hours and different amounts of water. After the hydrotreating reaction, the gas samples were collected and the conversion of carbon monoxide to hydrogen via WGSR was determined using a refinery gas analyzer. The sulphur content in liquid sample was analyzed via X-Ray Fluorescence. Experimental results showed that using more water will enhance WGSR but at the same time inhibits the HDS reaction. It was also shown that the amount of sulfur removed depends on the reaction time. The plan is to investigate the effect of synthesis gas (syngas) molar ratio by varying CO to H2 ratio. It is also planned to use different catalysts promoters and compare them with the un-promoted Mo based catalysts to achieve the optimum reaction conditions for treating LGO. The results of this study showed that Ni and Co have a promoting effect over un-promoted Mo catalysts for both HDS and WGSR. Ni was found to be the best promoter for both reactions. Fe showed no significant effect for both WGSR and HDS. V and K have a good promoting effect in WGSR but they inhibited the HDS reaction. Potassium was found to be the strongest inhibitor for the HDS reaction since no sulfur was removed during the reaction

The production of clean fuel faces the challenges of high production cost and complying with stricter environmental regulations. In this research, the ability of using a novel technology of upgrading heavy oil to treat Light Gas Oil (LGO) will be investigated. The target of this project is to produce cleaner transportation fuel with much lower cost of production. Recently, a novel process for upgrading of heavy oil has been developed at University of Waterloo. It is combining the two essential processes in bitumen upgrading; emulsion breaking and hydroprocessing into one process. The water in the emulsion is used to generate in situ hydrogen from the Water Gas Shift Reaction (WGSR). This hydrogen can be used for the hydrogenation and hydrotreating reaction which includes sulfur removal instead of the expensive molecular hydrogen. This process can be carried out for the upgrading of the bitumen emulsion which would improve its quality. In this study, the hydrodesulphurization (HDS) of LGO was conducted using in situ hydrogen produced via the Water Gas Shift Reaction (WGSR). The main objective of this experimental study is to evaluate the possibility of producing clean LGO over dispersed molybdenum sulphide catalyst and to evaluate the effect of different promoters and syn-gas on the activity of the dispersed Mo catalyst. Experiments were carried out in a 300 ml Autoclave batch reactor under 600 psi (initially) at 391oC for 1 to 3 hours and different amounts of water. After the hydrotreating reaction, the gas samples were collected and the conversion of carbon monoxide to hydrogen via WGSR was determined using a refinery gas analyzer. The sulphur content in liquid sample was analyzed via X-Ray Fluorescence. Experimental results showed that using more water will enhance WGSR but at the same time inhibits the HDS reaction. It was also shown that the amount of sulfur removed depends on the reaction time. The plan is to investigate the effect of synthesis gas (syngas) molar ratio by varying CO to H2 ratio. It is also planned to use different catalysts promoters and compare them with the un-promoted Mo based catalysts to achieve the optimum reaction conditions for treating LGO. The results of this study showed that Ni and Co have a promoting effect over un-promoted Mo catalysts for both HDS and WGSR. Ni was found to be the best promoter for both reactions. Fe showed no significant effect for both WGSR and HDS. V and K have a good promoting effect in WGSR but they inhibited the HDS reaction. Potassium was found to be the strongest inhibitor for the HDS reaction since no sulfur was removed during the reaction

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The Arizona Oil and Gas Commission in conjunction with the Arizona Geological Survey have collected a large amount of data for the oil and gas wells in the State of Arizona. The data covers over 1,000 wells that were drilled from the 1940s to present. This data includes copies of permits, location information, scanned copies of well logs and digitized versions of the well logs in .las file format. These files have been difficult to distribute efficiently because of an unfriendly web user interface. The purpose of this project is to give the Arizona Geological Survey a way to distribute the oil and gas well data through an effective web application. The web application will leverage existing web services at the Arizona Geological Survey. To create this map I used the Esri JavaScript API. In this application the users can select multiple wells by clicking and dragging over the well heads they want. This will then display the metadata in a grid along with hyperlinks to the available files for those wells. This data will be primarily used by companies involved with carbon sequestration or others seeking information for geological exploration.

The current standard electrical downhole machine is the induction machine which is relatively inefficient. Permanent magnet (PM) machines, having higher efficiencies, higher torque densities and smaller volumes, have widely employed in industrial applications to replace conventional machines, but few have been developed for downhole applications due to the high ambient temperatures in deep wells and the low temperature stability of PM materials over time. Today, with the development of variable speed drives and the applications of high temperature magnet materials, it is increasingly interesting for oil and gas industries to develop PM machines for downhole applications. Recently, some PM machines applications have been presented for downhole applications, which are normally addressed on certain specific downhole case. In this thesis the focus has been put on the performance investigation of different PM machines for general downhole cases, in which the machine outer diameter is limited to be small by well size, while the machine axial length may be relatively long. The machine reliability is the most critical requirement while high torque density and high efficiency are also desirable. The purpose is to understand how the special constraints in downhole condition affect the performances of different machines.  First of all, three basic machine concepts, which are the radial, axial and transverse flux machines, are studied in details by analytical method. Their torque density, efficiency, power factor and power capability are investigated with respect to the machine axial length and pole number. The presented critical performance comparisons of the machines provide an indication of machines best suitable with respect to performance and size for downhole applications. Conventional radial flux permanent magnet (RFPM) machines with the PMs on the rotor can provide high torque density and high efficiency. This type of machine has been suggested for several different downhole applications. Flux-switching PM (FSPM) machines, which have the PMs located on the stator and are therefore more reliable, can theoretically also exhibit high torque density and relatively high efficiency. This thesis has put an emphasis on studying this type of machine. Two FSPM machines have been investigated in detail and compared by analytical method, FEM simulation and prototype measuremens. Their operating principle and important design parameters are also presented. A lumped parameter magnetic circuit model for designing a high-torque FSPM machine is newly introduced and the designed machine is verified by FEM simulations. A prototype machine with an outer diameter of 100 mm and an axial length of 200 mm is built in the laboratory and tested at room temperature. Based on that, the machine performance at an ambient temperature of 150°C is also predicted. The results show that the FSPM machine can provide a high torque density with slight compromise of efficiency and power factor. Choosing a proper machine type is significantly dependent on the application specifications. The presented results in this thesis can be used as a reference for selecting the best machine type for a specific downhole case.

Introduction: Oil/gas communities across Northeastern British Columbia are experiencing rapid in-migration of young, primarily male workers in response to an economic ‘boom’ in the oil/gas sectors. Accompanying the ‘boom’ has been a rise in rates of sexually transmitted infections (STIs) among young people, with Chlamydia rates among youth in the Northeast exceeding the provincial average by 22%. Previous research indicates that socio-cultural and structural determinants of youth sexual behaviour and access to STI testing are important for understanding youth sexual health disparities – and represent key targets for STI prevention efforts. No other research has explored STIs in this rapidly developing, under-resourced context. Therefore, objectives of this thesis were to: (1) Examine how socio-cultural and structural features related to the oil/gas ‘boom’ affect the sexual behaviour of young people in Fort St. John (FSJ), BC; (2) Gather the perspectives of youth and their service providers on the socio-cultural and structural barriers to STI testing in FSJ; (3) Develop recommendations to improve the accessibility of STI testing. Results: Participants identified 4 main ways in which the socio-cultural and structural conditions created by the ‘boom’ affect sexual behaviours, fuelling the spread of STIs in FSJ: mobility of oil/gas workers; binge partying; high levels of disposable income; and gendered power dynamics. As well, 5 key barriers to STI testing among youth were identified: limited opportunities for access; geographic inaccessibility; local social norms; limited information; and negative interactions with providers. Discussion: These data indicate that the conditions fostered by the ‘boom’ in FSJ exacerbate sexual health inequalities among young people. They can be more widely contextualized as an example of the unintended – but not unexpected – health and social implications of a resource-extraction ‘boom’, illustrating the fallacy of ‘development’ as representing uniformly positive ‘progress’. Recommended actions include STI prevention and testing service delivery models that incorporate a locally tailored public awareness campaign, outreach to oil/gas workers, condom distribution, expanded clinic hours and drop-in appointments, specialized training for health care providers, and intersectoral partnerships between public health, non-profit organizations, and industry. An ongoing knowledge translation internship has been undertaken to implement some of these recommendations.

In this thesis, we analyse the relationship between the hedging activities and return on equity, and the relationship between profit on hedging and other factors. Fully conditional specification is used to impute the missing values. Instrumental variable estimation and finite mixture of regression models are then used to predict the return on equity and hedging gain. We find the instrumental variable estimation is better than the OLS estimation to deal with the hedging data since it eliminates the endogeneity. By finite mixture of regression models, we show that different firms have different hedging strategies, which cause different profits in hedging. We also find the companies with large total assets prefer to hedge.