Decontamination of petroleum products Patent
Decontamination of petroleum products with honey
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Decontamination of petroleum products with honey
The majority of overland transport needs for crude petroleum and refined petroleum products are met using pipelines. Numerous studies have developed optimization methods for design of these systems in order to minimize construction costs while meeting capacity requirements. Here, we formulate problems to optimize the operations of existing single liquid commodity pipeline systems subject to physical flow and pump engineering constraints. The objectives are to maximize the economic value created for users of the system and to minimize operating costs. We present a general computational method for this class of continuous, non-convex nonlinear programs, and examine the use of pump operating settings and flow allocations as decision variables. Furthermore, the approach is applied to compute optimal operating regimes and perform engineering economic sensitivity analyses for a case study of a crude oil pipeline developed using publicly available data.
This work was presented at the American Center for Life Cycle Assessment (ACLCA) LCAXVII Conference in Portsmouth, NH on October 5, 2017. The objectives of this study are to create an updated baseline life cycle inventory for petroleum products considering the full suite of TRACI impacts that expands upon Cooney et al. and to understand the effect of implementing carbon capture on the environmental profile of refineries. This inventory adds toxic air emissions and releases to water and soil to NETL’s previous unit process data. The approach demonstrates how detailed national inventory data can be used to improve LCA unit process data. Facility-level variability is presented and the implications for uncertainty analysis and interpretation of results are discussed.
This process includes all inputs and outputs for the raw material transportation of 1 kg of petroleum or petroleum-based products, delivered by tanker truck using a diesel-powered tractor. To access the model referenced in the report, please visit https://www.netl.doe.gov/energy-analysis/details?id=1F218325-B541-40EE-AA69-6D4EBE0B506F
Recently, linear programing (LP) models have been extended to track the marginal CO{sub 2} intensity of automotive fuels at the refinery gate. The obtained CO{sub 2} data are recommended for policy making because they capture the economic and environmental tensions as well as the processing effects related to oil products. However, they are proven to be extremely sensitive to small perturbations and therefore useless in practice. In this paper, we first investigate the theoretical reasons of this drawback. Then, we develop a multiple objective LP framework to assess relevant marginal CO{sub 2} footprints that preserve both defensibility and stability at a satisfactory level of acceptance. A case study illustrates this new methodology. - Highlights: • Refining LP models have limitations to provide useful marginal CO{sub 2} footprints. • A multi objective optimization framework is developed to assess relevant CO{sub 2} data. • Within a European Refinig industry, diesel is more CO{sub 2} intensive than gasoline.
This process includes all inputs for the raw material acquisition for 1 kg of domestic petroleum produced. To access the model referenced in the report, please visit https://www.netl.doe.gov/energy-analysis/details?id=1C39C688-9B6B-49B6-B6AA-630C192D8FAB
This process includes all inputs and outputs for the raw material transportation of 1 kg of petroleum or petroleum-based fuel, delivered by US domestic railroad using a diesel locomotive. To access the model referenced in the report, please visit https://www.netl.doe.gov/energy-analysis/details?id=8BC26995-13EC-42E2-831E-56FAD26DF569
This process includes all inputs for the raw material acquisition for 1 kg of crude oil entering US refineries. To access the model referenced in the report, please visit https://www.netl.doe.gov/energy-analysis/details?id=651F4645-160A-4C62-B56E-6657F0A6650F
This process includes all inputs for the raw material acquisition for 1 kg of African crude oil entering U.S. refineries. To access the model referenced in the report, please visit https://www.netl.doe.gov/energy-analysis/details?id=4D65B1A9-C347-4077-BA30-C5AD4D5F261E
This process includes all inputs for the raw material acquisition for 1 kg of Middle Eastern crude oil entering U.S. refineries. To access the model referenced in the report, please visit https://www.netl.doe.gov/energy-analysis/details?id=180E347B-BC85-447C-8322-A562814C2FE6
This process includes all inputs for the raw material acquisition for 1 kg of North American crude oil entering U.S. refineries. To access the model referenced in the report, please visit https://www.netl.doe.gov/energy-analysis/details?id=E50EF1C6-DCAF-400C-B589-8D1B74BE7954
This process includes all inputs for the raw material acquisition for 1 kg of South American crude oil entering U.S. refineries. To access the model referenced in the report, please visit https://www.netl.doe.gov/energy-analysis/details?id=8EF479D0-BA8F-479F-A463-E105A3718E58
The author has identified the following significant results. ERTS-1 imagery in a variety of formats was used to locate linear, tonal, and hazy features and to relate them to areas of hydrocarbon production in the Williston Basin of North Dakota, eastern Montana, and northern South Dakota. Derivative maps of rectilinear, curvilinear, tonal, and hazy features were made using standard laboratory techniques. Mapping of rectilinears on both bands 5 and 7 over the entire region indicated the presence of a northeast-southwest and a northwest-southeast regional trend which is indicative of the bedrock fracture pattern in the basin. Curved lines generally bound areas of unique tone, maps of tonal patterns repeat many of the boundaries seen on curvilinear maps. Tones were best analyzed on spring and fall imagery in the Williston Basin. It is postulated that hazy areas are caused by atmospheric phenomena. The ability to use ERTS imagery as an exploration tool was examined where petroleum and gas are presently produced (Bottineau Field, Nesson and Antelope anticlines, Redwing Creek, and Cedar Creek anticline). It is determined that some tonal and linear features coincide with location of present production in Redwing and Cedar Creeks. In the remaining cases, targets could not be sufficiently well defined to justify this method.
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