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Oil Sands Environmental Management Bibliography

The Cumulative Environmental Management Association (CEMA)partnered with the Oil Sands Research and Information Network (OSRIN) to create the new Oil Sands Environmental Management Bibliography, which includes documents relevant to the environmental management of oil sands development in Alberta. The majority of the documents focus on the mineable oil sands in the Athabasca deposit, though some documents relate to in-situ developments. This bibliography was last updated in November 2014.

Nitrogen sinks in boreal ecosystems

Year of Publication: 2005

Abstract:
This report provides a summary of an assessment of nitrogen sinks in boreal ecosystems. The mass balances are based on unpolluted parts of the boreal Scandinavia and do not consider vegetation changes of microbiological changes in soil. Empirical thresholds for nitrate leaching are based on European and American data. The key process of N mineralization and nitrification is recommended to be studied in the Athabasca Oil Sands Region, to assess the nitrification potential of the soils and understand the fate of deposited nitrogen.

North American oil sands: History of development prospects for the future

Authors Humphries, M.
Year of Publication: 2008

Abstract:
When it comes to future reliable oil supplies, Canada’s oil sands will likely account for a greater share of U.S. oil imports. Oil sands account for about 46% of Canada’s total oil production and oil sands production is increasing as conventional oil production declines. Since 2004, when a substantial portion of Canada’s oil sands were deemed economic, Canada, with about 175 billion barrels of proved oil sands reserves, has ranked second behind Saudi Arabia in oil reserves. Canadian crude oil exports were about 1.82 million barrels per day (mbd) in 2006, of which 1.8 mbd or 99% went to the United States. Canadian crude oil accounts for about 18% of U.S. net imports and about 12% of all U.S. crude oil supply. Oil sands, a mixture of sand, bitumen (a heavy crude that does not flow naturally), and water, can be mined or the oil can be extracted in-situ using thermal recovery techniques. Typically, oil sands contain about 75% inorganic matter, 10% bitumen, 10% silt and clay, and 5% water. Oil sand is sold in two forms: (1) as a raw bitumen that must be blended with a diluent for transport and (2) as a synthetic crude oil (SCO) after being upgraded to constitute a light crude. Bitumen is a thick tar-like substance that must be upgraded by adding hydrogen or removing some of the carbon. Exploitation of oil sands in Canada began in 1967, after decades of research and development that began in the early 1900s. The Alberta Research Council (ARC), established by the provincial government in 1921, supported early research on separating bitumen from the sand and other materials. Demonstration projects continued through the 1940s and 1950s. The Great Canadian Oil Sands company (GCOS), established by U.S.-based Sunoco, later renamed Suncor, began commercial production in 1967 at 12,000 barrels per day. The U.S. experience with oil sands has been much different. The U.S. government collaborated with several major oil companies as early as the 1930s to demonstrate mining of and in-situ production from U.S. oil sand deposits. However, a number of obstacles, including the remote and difficult topography, scattered deposits, and lack of water, have resulted in an uneconomic oil resource base. Only modest amounts are being produced in Utah and California. U.S. oil sands would likely require significant R&D and capital investment over many years to be commercially viable. An issue for Congress might be the level of R&D investment in oil sands over the long term. As oil sands production in Canada is predicted to increase to 2.8 million barrels per day by 2015, environmental issues are a cause for concern. Air quality, land use, and water availability are all impacted. Socio-economic issues such as housing, skilled labor, traffic, and aboriginal concerns may also become a constraint on growth. Additionally, a royalty regime favorable to the industry has recently been modified to increase revenue to the Alberta government. However, despite these issues and potential constraints, investment in Canadian oil sands will likely continue to be an energy supply strategy for the major oil companies.

North West Sturgeon refinery project overview - carbon capture through innovative commercial structuring in the Canadian oil sands

Authors Heal, K., & Kemp T.
Year of Publication: 2013

Abstract:
North West Redwater Partnership (NWR) is building the world's first direct to fuels bitumen refinery to combine gasification technology with an integrated carbon capture and storage program. When complete, the first phase of the refinery will produce a range of refined petroleum products with the advantage of having both higher added value and a lower carbon footprint than traditional upgraders or refineries. This project overview will profile the NWR project and discuss the innovative technological approach to incorporate large scale carbon capture in a greenfield Canadian oil sands development.

Northdat: An effluent database management system, application description

Year of Publication: 1996

Abstract:
This report documents an effluent database management system developed by N. McCubbin Consultants Inc. (modified by AGRA Earth & Environmental Limited) for the seven mills in the pulp and paper industrial sector of the Province of Alberta and three mills in the Province of British Columbia. This document describes the overall organization of the database, the file structures used and the custom program written to access the database.

Northern River Basins Study: Report to the Ministers

Authors
Year of Publication: 1996

Abstract:
The Northern River Basins Study (NRBS) was established on September 27, 1991 by the governments of Canada, Alberta and the Northwest Territories to examine the relationship between industrial, municipal, agricultural and other development in the Peace, Athabasca and Slave river basins. The NRBS was launched in response to concerns expressed by northern residents following the late 80's decision of the Alberta Government to allocate additional forest lands for pulp and paper production. The four and one-half year study was mandated to gather and assess information relating to water and ecosystem quality, fish and fish habitat, vegetation, wildlife, hydrology/hydraulics and use of aquatic resources. This report contains key findings, conclusions and recommendations presented to the Ministers representing the governments of Canada, Alberta, and the Northwest Territories.

Northern rivers ecosystem initiative 1998-2003 : final report 2004

Authors
Year of Publication: 2004

Abstract:
Actions to address the commitments made by Ministers in the Canada-Alberta-Northwest Territories Response to the Northern River Basins Study were undertaken, in a large part, through the Northern Rivers Ecosystem Initiative (NREI). The Initiative, which began in 1998, was a cooperative 5-year endeavor by the governments of Canada, Alberta, and the Northwest Territories. The various follow-up actions to protect the northern rivers involved both policy initiatives and scientific research.

Northern Rivers Ecosystem Initiative: Distribution and effects of contaminants

Year of Publication: 2006

Abstract:
In response to a number of recommendations following the Northern Rivers Basin Studies (NRBS) contaminant program, the Northern Rivers Ecosystem Initiative (NREI) focused considerable attention on assessing contaminants from specific sources including pulp mill effluents, atmospheric transport of mercury and the Alberta oil sands operations. NRBS identified a number of major contaminants of concern including polychlorinated biphenyls, dioxins and furans, mercury and various hydrocarbons. Together, the NRBS and the NREI studies have demonstrated major declines in the levels of dioxins and furans over the last decade as pulp and paper mills have changed their process and treatment strategies in response to new Federal regulations. Polychlorinated biphenyls however, continue to be a concern for the region as their levels have not declined in fish and sediments over the course of these studies. Higher levels in sediments downstream of Grande Prairie and Hinton were identified, but the source of these contaminants remains unknown. Chlorinated pesticides were also investigated, and although toxaphene, DDT and other chlorinated organic pesticides were detected in fish tissue, they were present at very low levels. Studies on the oil sands industry in northern Alberta demonstrated limited impacts on the Athabasca River to date, although studies did identify slight to moderate impacts of natural oil seeps on fish and benthic communities in tributary streams. NREI studies also identified endocrine active compounds in the three pulp and paper mill effluents tested, but endocrine disruptive effects in wild fish were minimal. Municipal sewage effluents also contain endocrine active compounds and it is recommended that monitoring continue around these point sources.

Northern Rivers ecosystem initiative: Key findings

Authors
Year of Publication: 2004

Abstract:
The governments of Canada, Alberta and the Northwest Territories established the Northern Rivers Ecosystem Initiative (NREI) to answer questions and address recommendations from the Northern River Basins Study (NRBS), which took place between 1992 and 1996. The NREI was a science-based effort to gain more information to help understand the impacts of human activities on aquatic ecosystems in this region of Canada’s north. Its mission was to provide further scientific information as part of the governments’ 1997 response to the recommendations of the NRBS. Its goal was to understand the impacts of development on the northern river ecosystems and help protect aquatic ecosystems.

Novel materials for environmental remediation of oil sands contaminants

Year of Publication: 2014

Abstract:
The incorporation of β-cyclodextrin (β-CD) within the framework structure of copolymer sorbent materials, represents a novel modular design approach with significant potential for controlled tuning of the textural mesoporosity of such sorbent frameworks. β-CD copolymers represent an innovative design strategy for the development of "smart" or "functional" porous materials with improved solid phase extraction (SPE) and molecular recognition properties because of the porogen characteristics and their unique host-guest properties. Carbohydrate-based copolymers containing cyclodextrins (CDs) are of interest, in part, because of their ability to form stable inclusion complexes in aqueous solution. The inclusion properties of β-CD copolymers are determined by the surface area, pore structure, and site accessibility of inclusion sites within the copolymer framework. A mini-review of recent research in our group concerning the use of copolymers containing β-CD as sorbent materials for naphthenic acids is presented herein.

Novel materials for environmental remediation of tailing pond waters containing naphthenic acids

Year of Publication: 2008

Abstract:
A nanofiltration strategy for tailing pond waters (TPWs) that utilizes cyclodextrin (CD)-based polymeric materials as supramolecular sorbents is proposed. Naphthenic acids (NAs) from the Athabasca TPWs are investigated as the target sorbate molecules. The sorption properties of several supramolecular porous materials were characterized using equilibrium sorption isotherms in aqueous solution wherein electrospray ionization mass spectrometry was used to monitor the concentration of NAs in aqueous solution. The characterization of the supramolecular sorbents was performed using 13C NMR and IR spectroscopy, while nitrogen porosimetry was used to estimate their surface area and pore structure properties. Independent estimates of surface area were obtained using a chromophore dye adsorption method in aqueous solution. The sorption results for NAs in solution were compared between a commercially available standard; granular activated carbon (GAC) and three types of synthetic materials. The sorption capacities for GAC ranged from 100 to 160 mg NAs/g of material whereas the polymeric materials ranged from 20 to 30 mg NAs/g of material over the experimental conditions investigated. In general, differences in the sorption properties between GAC and the CD-based sorbents were observed and related to differences in the surface areas of the materials and the chemical nature of the sorbents. The CD-based supramolecular materials displayed sorption capacities ranging from 36.2 to 657 m2/g as compared to that for GAC (795 m2/g).

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