Academic literature on the topic 'Petroleum refineries'

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Journal articles on the topic "Petroleum refineries"

1

Prasad, B. J., and D. N. Rao. "Phytomonitoring of Air Pollution in the Vicinity of a Petroleum Refinery." Environmental Conservation 12, no. 4 (1985): 351–54. http://dx.doi.org/10.1017/s0376892900034470.

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Petroleum refineries are major sources of air pollution, giving off particulate matter, volatile hydrocarbons, and oxides of sulphur and nitrogen. The field-study here reported was conducted in the vicinity of Barauni Petroleum Refinery, in the Begusarai district of Bihar, India, with the objects of measuring the level of pollution through phytomonitoring and assessing the overall impact of the Refinery's emissions on vegetation.
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Hodgson, J. E., and L. C. Bendiak. "Stormwater Management for Petroleum Refineries." Canadian Water Resources Journal 12, no. 3 (1987): 38–47. http://dx.doi.org/10.4296/cwrj1203038.

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3

Valenti, Michael. "Upping the Systems." Mechanical Engineering 121, no. 10 (1999): 56–59. http://dx.doi.org/10.1115/1.1999-oct-1.

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Manufacturers and processors are improving the energy efficiency of their plant motor-driven systems by as much as 30 percent under the auspices of the Motor Challenge program of the US Department of Energy (DOE). Among the facilities that are beneficiaries of the Motor Challenge are a Chevron petroleum refinery in Richmond, California, a Cummins Engine diesel engine assembly plant in Columbus, IN, and a Blue Circle quarry in Lithonia, GA. Petroleum refineries are prime candidates for improvement in energy efficiency; roughly 40 percent of their operating cost is incurred by energy demands. Chevron, one of the largest petroleum refiners in the United States, operates six gasoline-producing refineries, including one in Richmond, CA. McBroom Electric used the DOE's MotorMaster+ software to perform the audit. The audit forecast a short payback period for replacing standard motors withenergy efficient models. Blue Circle now uses MotorMaster+ at its cement plant and several ready-mix facilities to evaluate replacement motor purchases based on life cycle costs instead of initial costs.
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Seo, Hyeokjun, and Dong-Yeun Koh. "Refining petroleum with membranes." Science 376, no. 6597 (2022): 1053–54. http://dx.doi.org/10.1126/science.abq3186.

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5

Winters, Jeffrey. "A Case of the Vapors." Mechanical Engineering 126, no. 12 (2004): 28–31. http://dx.doi.org/10.1115/1.2004-dec-1.

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With domestic refining capacity falling behind domestic demand, imports have taken on a new role: smoothing out any mismatches between gasoline supply and demand. Gasoline is sold on a worldwide spot market, and international refiners know that every gallon of gasoline will be bought by someone, somewhere. Some 40 percent of American gas imports now come from Western Europe. European refiners are looking to solve this problem by switching refining technologies. Hydrocracking, which is a high-pressure process that relies on hydrogen to saturate various products, will enable them to make more diesel from a given barrel of petroleum, and less gasoline. The change in American fuel standards has tilted the playing field for would-be exporters. The reduction in sulfur content has taken many refineries in South America out of the running as suppliers of gasoline to the United States. Until these refineries make the necessary upgrade, imports may be restricted to advanced, First World refineries, such as Total’s and Irving’s facilities. The EIA projects that Western Europe will remain a dominant exporter of gasoline to the United States for at least another decade due to its high-tech refineries and its proximity to East Coast ports.
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Itsekor, Lucky. "A Need for Investment in Nigerian Crude Oil Refining and Infrastructures: A Panacea to Refined Petroleum Shortages and Economic Growth." Archives of Business Research 8, no. 4 (2020): 31–46. http://dx.doi.org/10.14738/abr.84.7951.

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Despite the abundance of occurring natural crude oil resources, Nigeria continually suffers shortages of refined petroleum products, which undermines economic development of the country. The purpose of this multicase study was to explore the strategic role of how investment in petroleum refineries and infrastructures can improve supply and hence mitigate shortages or scarcity of refined petroleum products in the petroleum supply chain and enhance economic development in Nigeria. The research participants comprise of ten senior leaders from two private-sector Nigerian downstream petroleum supply companies located in the Niger Delta region, who had effectively implemented strategies for petroleum supply. The conceptual framework for the study was the resource based view theory. Data were collected through semistructured face-to-face interviews and review of operational and policy documents from the supply or marketing petroleum companies. Data were transcribed, analyzed, and validated through member checking and triangulation. The discoveries indicate the need to establish more refineries, privatize the existing moribund refineries, and build more infrastructures in Nigeria. Findings may be used by petroleum leaders and investors to optimize available crude oil natural resources, and to create investment strategies in the petroleum supply chain, leading to product availability, sustainability, poverty reduction, and economic development in Nigeria.
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Carpenter, Chris. "Modular Refineries Offer Advantages for Product Availability in Nigeria." Journal of Petroleum Technology 75, no. 12 (2023): 66–68. http://dx.doi.org/10.2118/1223-0066-jpt.

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_ This article, written by JPT Technology Editor Chris Carpenter, contains highlights of paper SPE 211932, “Imperatives of Modular Refineries and Their Impact on Product Availability in Nigeria,” by Evelyn Bose Ekeinde and Adewale Dosunmu, SPE, Federal University Otuoke, and Diepiriye Chenaboso Okujagu, University of Port Harcourt, et al. The paper has not been peer reviewed. _ Nigeria is rich in crude oil, with a proven reserve of 37 billion bbl. Despite the abundance of this resource, Nigeria has lacked the capacity to meet the country’s demand for petroleum products locally and has resorted to their importation. Establishing conventional refineries is highly capital-intensive, and they take a significant amount of time to build and commission. The modular refinery option is a less capital-intensive alternative. The complete paper discusses the promise of modular refineries and their potential effects on the availability of petroleum products in Nigeria. Introduction Despite its large reserves of crude oil and a combined in-country refining capacity of 445,000 B/D from four state-owned refineries, Nigeria has been plagued with challenges in local refinement. These refineries have operated grossly below installed capacity for decades, operating at a capacity hovering between 15 and 25%. The inability to harness local refining to meet demands for petroleum products has turned Nigeria into a net importer. Modular Refineries A modular refinery is a processing plant composed entirely of skid-mounted structures, each of which comprises a part of the entire processing plant. Various components are connected through interstitial pipes to create a highly manageable process. They are smaller than conventional refineries, with processing capacities ranging from 1,000 to 30,000 B/D. Essentially, modular refineries are mini-refineries. Modular topping plants or crude distillation units are the most straightforward and cost-effective method of extracting valuable fuels from crude oil. Within 14 months of contract execution, a topping plant can be operational, providing host communities with vital fuels for automobiles, power generation, and job possibilities. Furthermore, construction of a modular refinery is less capital-intensive, ranging from $1 million to $15 million, compared with a conventional refinery, which could cost up to hundreds of millions or even billions of dollars, depending on the refinery’s complexity and configuration. Many configurations featuring different degrees of sophistication exist for modular mini-refineries. They include the following: - Atmospheric topping unit—This is an inexpensive distillation unit that can make diesel and kerosene from raw crude oil. Naphtha and fuel oil also can be byproducts. - Topping unit with gasoline train—This option features the addition of regenerative agents or hydrotherapy, thus producing high-octane unleaded gasoline and high-octane liquefied petroleum gas. This configuration can put together isomerization units to make more premium unleaded gasoline. It also can make more gasoline with a higher octane rating. - Vacuum distillation unit—The addition of a second distillation tower to separate the fuel components from the atmospheric tower results in clean heavy diesel (vacuum gas oil) and dirty heavy residual oil. - Hydrocracker unit, full conversion—The hydrocracker unit (which has a high capital cost) transforms light and heavy gas oils into more-marketable products with a lower boiling point. The yield of a hydrocracker unit may add to the profitability of a refinery.
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Pinto, J. M., and L. F. L. Moro. "A planning model for petroleum refineries." Brazilian Journal of Chemical Engineering 17, no. 4-7 (2000): 575–86. http://dx.doi.org/10.1590/s0104-66322000000400022.

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9

TAKANO, Akinobu. "Industrial waste treatment at petroleum refineries." Journal of the Fuel Society of Japan 69, no. 11 (1990): 1001–7. http://dx.doi.org/10.3775/jie.69.11_1001.

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10

Alshammari, Jadea S., Fatma K. Gad, Ahmed A. M. Elgibaly, and Abdul Rehman Khan. "Solid Waste Management in Petroleum Refineries." American Journal of Environmental Sciences 4, no. 4 (2008): 353–61. http://dx.doi.org/10.3844/ajessp.2008.353.361.

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