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In the United States, oil exploration moved from the land to the sea only a few years after the first discovery at Titusville. This article looks at how offshore oil exploration in the Gulf of Mexico developed from 1869 to the early 1960s, moving cautiously from the shoreline to ever-greater depths and beyond sight of land.
Offshore development is one of the most important but least analyzed chapters in the history of the petroleum industry, and the Gulf of Mexico is the most explored, drilled, and developed offshore petroleum province in the world. This essay examines offshore oil and gas development in the Gulf of Mexico, highlighting the importance of access and how the unique geology and geography of the Gulf shaped both access and technology. Interactions between technology, capital, geology, and the political structure of access in the Gulf of Mexico generated a functionally and regionally complex extractive industry that repeatedly resolved the material and economic contradictions of expanding into deeper water. This was not achieved, however, simply through technological miracles or increased mastery over the environment, as industry experts and popular accounts often imply. The industry moved deeper only by more profoundly adapting to the environment, not by transcending its limits. This essay diverges from celebratory narratives about offshore development and from interpretations that emphasize the social construction of the environment. It challenges the storyline of market-driven technology and its miraculous ability to expand and create petroleum abundance in the Gulf.
Soc. Pet. Eng. AIME, Pap.; (United States), 1982
This paper considers industry structure and the exploration perfonnance (by size class of operator) of finns searching for oil and gas in the U.S. Gulf of Mexico. It also tracks the changes in industry structure that have occurred in response to a decline in the quality of remaining prospects in the area. Data presented indicate that because vertically integrated majors dominated in exploration in the early years of the Gulf of Mexico exploration history, they were able to discover 86 % of the total hydrocarbons discovered through 1975. However, the data also show a dynamic relationship between the structure of the industry operating in an area and the quality of remaining prospects. The relative share of both credited discoveries and wildcat wells of nonmajor operators has increased as exploration in the gulf proceeded. For example, in state-owned waters from 1951 to 1955, major finns accounted for 85 % of all wildcat wells drilled, whereas from 1971 to 1975 these finns accounted for only 30% of the wildcat wells. During these same two periods in the federal Gulf of Mexico, the majors' share of wildcats fell from 98% to 70%.
Geochimica et Cosmochimica Acta, 1992
The distribution and chemistry of oils in the northern Gulf of Mexico and the adjacent onshore can be explained by multiple sources, facies variations, maturation, and post-generation alteration. Genetic families include Jurassic Smackover, Flexure Trend, Upper Cretaceous, and Paleogene oils. Smackover oils have high sulfur contents, pristane/phytane ratios < 1.0, CPI < 1.0, abundant extended hopanes, C3$& hopane ratios z 1 .O, and C3,,/CZ9 hopane ratios usually I 1.0. Flexure Trend oils are similar and contain abundant extended hopanes, high sulfur contents, and V/(Ni + V) > 0.5; these oils are inferred to be sourced in Upper Jurassic/Lower Cretaceous strata. Upper Cretaceous oils contain a distinctive suite of tricyclic and nonho~noid triterpanes; oleanane is low or absent. Paleogene oils can be recognized by the presence of 1 Sar(II) oleanane and a lack of extended hopanes. These oils occur from south Texas to southern and offshore Louisiana. Two subfamilies can be recognized based on the relative abundance of triterpanes and steranes. These oils have a presumed Paleogene source. Mixing of oil types is quite prevalent at the geographic boundaries of oil types. The initial control on the distribution of oil and gas in the northern Gulf of Mexico is provided by the area1 extent of source rocks. Secondary control is due to Cenozoic deposition, which provides the thermal stress to generate, as well as destroy, oil. Salt tectonics provide conduits for migrating fluids to escape the zone of thermal destruction. Mesozoic source strata again become important in the deep Gulf of Mexico, where Cenozoic sediments thin.
AAPG Bulletin, 2017
The northern deep-water Gulf of Mexico is one of the most active deep-water petroleum provinces in the world. This paper introduces the regional geologic setting for the northern deep-water Gulf of Mexico and briefly discusses the importance of technology in developing the area's resources. Exploration has focused on four major geologic provinces: Basins, Subsalt, Fold Belt, and Abyssal Plain. These provinces formed from the complex interactions between Mesozoic-Cenozoic sedimentation and tectonics. Improved understanding of the geology of these provinces has largely been accomplished by improvements in seismic acquisition and processing. In addition, advances in drilling technology have permitted drilling and field development in increasingly greater water depths. The 226 oil and gas fields and discoveries in the northern deep-water Gulf of Mexico are summarized in terms of their exploration and development history, producing facility, ages of reservoirs (Upper Jurassic, upper Paleocene-lower Eocene, Oligocene, lower Miocene-upper Pleistocene), and trap type (structural, combined structural-stratigraphic, and stratigraphic). In addition, the interpreted regional distribution of Upper Jurassic and possible Lower Cretaceous source, source rocks is shown, in part based on the 26 wells that have penetrated these source rocks. The eight papers in this special issue review the geology of the Mississippi Canyon and northern Atwater Valley protraction areas. The first five papers review the subregional structural setting and the evolution of its tectonics and petroleum systems. The final three papers summarize the geologic evolution of two economically important intraslope basins-Thunder Horse and Mensa-in terms of their stratigraphy, structural evolution, and petroleum
Journal of Petroleum Technology, 1984
Summary This paper considers industry structure and the exploration performance (by size class of operator) of firms searching for oil and gas in the U.S. Gulf of Mexico. It also tracks the changes in industry structure that have occurred in response to a decline in the quality of remaining prospects in the area. Data presented indicate that because vertically integrated majors dominated in exploration in the early years of the Gulf of Mexico exploration history, they were able to discover 86% of the total hydrocarbons discovered through 1975. However, the data also show a dynamic relationship between the structure of the industry operating in an area and the quality of remaining prospects. The relative share of both credited discoveries and wildcat wells of nonmajor operators has increased as exploration in the gulf proceeded. For example, in state-owned waters from 1951 to 1955, major inns accounted for 85% of all wildcat wells drilled, whereas from 1971 to 1975 these firms accoun...
Lean Energy initiative, …, 2009
The oil and gas industry and the United States government both face tremendous challenges to explore discover, appraise, develop, and exploit vast new hydrocarbon reserves in waters deeper than 6000 feet in the ultra-deepwater of the Gulf of Mexico. Yet these new reserves of hydrocarbons are needed to offset the economically detrimental, long-term decline in production from within the borders of the United States (Figure 1).
Environmental History, 2012
First Break
demonstrate how ultra-deepwater low-risk prospects could lead the fightback in the oil industry. The outbreak of hostilities between new unconventional oil supply and giant legacy oil production represents a violent threat to the sustainability of the conventional oil exploration industry. Coruscations from this battle starkly illuminate the explorer's paradox: an imperative to focus on plays that have low risk and huge potential, whilst having to seek these within mature basins on well explored continental shelves. Where can we find sufficient prospects with dramatic enough scale to compete in the unconventional vs legacy giant wars? Using 2D seismic acquired in the last two years on the Atlantic margins, we will examine the play systematics that manifest in Ultra-Deep Water (UDW) low risk prospects on a scale hitherto unimagined that will ultimately win conventional's fight back to be the futures energy supplier of choice.
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