Short-term exposure to Oil Sand Process-Affected Water does not reduce microbial potential activity in three contrasting peatland types
暂无分享,去创建一个
[1] K. Peru,et al. Assessing spatial and temporal variability of acid-extractable organics in oil sands process-affected waters. , 2016, Chemosphere.
[2] K. Devito,et al. Constructing fen peatlands in post-mining oil sands landscapes: Challenges and opportunities from a hydrological perspective , 2016 .
[3] T. Troxler,et al. Effects of Salinity and Inundation on Microbial Community Structure and Function in a Mangrove Peat Soil , 2016, Wetlands.
[4] S. Ketcheson. Hydrology of a Constructed Fen Watershed in a Post-mined Landscape in the Athabasca Oil Sands Region, Alberta, Canada , 2016 .
[5] Classen,et al. Direct and indirect effects of climate change on soil microbial and soil microbial‐plant interactions: What lies ahead? , 2015 .
[6] S. Caporn,et al. Bacterial and Fungal Communities in a Degraded Ombrotrophic Peatland Undergoing Natural and Managed Re-Vegetation , 2015, PloS one.
[7] A. Rosling,et al. Organic acid induced release of nutrients from metal-stabilized soil organic matter – The unbutton model , 2015 .
[8] James F. Petersen,et al. Driving factors of temporal variation in agricultural soil respiration , 2015 .
[9] A. Buttler,et al. Linking soil microbial communities to vascular plant abundance along a climate gradient. , 2015, The New phytologist.
[10] R. Petrone,et al. Towards Developing a Functional-Based Approach for Constructed Peatlands Evaluation in the Alberta Oil Sands Region, Canada , 2015, Wetlands.
[11] N. Ren,et al. Methane production and microbial community structure for alkaline pretreated waste activated sludge. , 2014, Bioresource technology.
[12] M. L. Dotaniya,et al. Production of Oxalic Acid as Influenced by the Application of Organic Residue and Its Effect on Phosphorus Uptake by Wheat (Triticum aestivum L.) in an Inceptisol of North India , 2014 .
[13] W. Porter,et al. Behavior and nutritional condition buffer a large‐bodied endotherm against direct and indirect effects of climate , 2014 .
[14] R. Naidu,et al. Effect of industrial waste products on phosphorus mobilisation and biomass production in abattoir wastewater irrigated soil , 2014, Environmental Science and Pollution Research.
[15] R. Valentini,et al. Partitioning of ecosystem respiration in a paludified shallow-peat spruce forest in the southern taiga of European Russia , 2013 .
[16] Jaewoo Chung,et al. Immobilization of Lead from Pb-Contaminated Soil Amended with Peat Moss , 2013 .
[17] M. Jalali,et al. Effect of low-molecular-weight organic acids on kinetics release and fractionation of phosphorus in some calcareous soils of western Iran , 2013, Environmental Monitoring and Assessment.
[18] R. Aerts,et al. Temperature sensitivity of peatland C and N cycling: Does substrate supply play a role? , 2013 .
[19] M. Kirschbaum. Seasonal variations in the availability of labile substrate confound the temperature dependence of organic matter decomposition , 2013 .
[20] R. Artz,et al. Microbial communities in natural and disturbed peatlands: A review , 2013 .
[21] L. Rochefort,et al. Impacts of oil sands process water on fen plants: implications for plant selection in required reclamation projects. , 2012, Environmental pollution.
[22] K. Konstantinidis,et al. Microbial Community Structure and Activity Linked to Contrasting Biogeochemical Gradients in Bog and Fen Environments of the Glacial Lake Agassiz Peatland , 2012, Applied and Environmental Microbiology.
[23] Seon-young Kim,et al. Functional and structural responses of bacterial and methanogen communities to 3-year warming incubation in different depths of peat mire , 2012 .
[24] H. O. D. op den Camp,et al. Microbial Transformations of Nitrogen, Sulfur, and Iron Dictate Vegetation Composition in Wetlands: A Review , 2012, Front. Microbio..
[25] N. Basiliko,et al. Microbial activity across a boreal peatland nutrient gradient: the role of fungi and bacteria , 2012, Wetlands Ecology and Management.
[26] J. Price,et al. How Fen Vegetation Structure Affects the Transport of Oil Sands Process-affected Waters , 2012, Wetlands.
[27] R. Aerts,et al. Summer warming accelerates sub‐arctic peatland nitrogen cycling without changing enzyme pools or microbial community structure , 2012 .
[28] Chengrong Chen,et al. Citric acid enhances the mobilization of organic phosphorus in subtropical and tropical forest soils , 2010, Biology and Fertility of Soils.
[29] A. Francez,et al. Changes in microbial community structure and function following Sphagnum peatland restoration , 2010 .
[30] K. Solomon,et al. Detecting oil sands process-affected waters in the Alberta oil sands region using synchronous fluorescence spectroscopy. , 2009, Chemosphere.
[31] S. Frey,et al. Thermal adaptation of soil microbial respiration to elevated temperature. , 2008, Ecology letters.
[32] J. Canadell,et al. Peatlands and the carbon cycle: from local processes to global implications - a synthesis , 2008 .
[33] N. Ostle,et al. Microbial contributions to climate change through carbon cycle feedbacks , 2008, The ISME Journal.
[34] K. Miyanishi,et al. Creating New Landscapes and Ecosystems , 2008, Annals of the New York Academy of Sciences.
[35] M. V. D. van der Heijden,et al. The unseen majority: soil microbes as drivers of plant diversity and productivity in terrestrial ecosystems. , 2008, Ecology letters.
[36] E. W. Allen. Process water treatment in Canada’s oil sands industry: I. Target pollutants and treatment objectives , 2008 .
[37] A. Heinemeyer,et al. Effects of three years of soil warming and shading on the rate of soil respiration: substrate availability and not thermal acclimation mediates observed response , 2007 .
[38] S. Quideau,et al. Biodegradation of naphthenic acids by rhizosphere microorganisms. , 2007, Chemosphere.
[39] N. Ostle,et al. Seasonal variations in decomposition processes in a valley-bottom riparian peatland. , 2006, The Science of the total environment.
[40] R. Artz,et al. Substrate utilisation profiles of microbial communities in peat are depth dependent and correlate with whole soil FTIR profiles , 2006 .
[41] M. Bernal,et al. Fractionation of heavy metals and distribution of organic carbon in two contaminated soils amended with humic acids. , 2006, Chemosphere.
[42] A. Francez,et al. The physicochemical and microbiological status of a restored bog in Québec: Identification of relevant criteria to monitor success , 2006 .
[43] Jan G. M. Roelofs,et al. Methanotrophic symbionts provide carbon for photosynthesis in peat bogs , 2005, Nature.
[44] R. McMurtrie,et al. The response of heterotrophic CO2 flux to soil warming , 2005 .
[45] J. Headley,et al. A Review of the Occurrence and Fate of Naphthenic Acids in Aquatic Environments , 2004, Journal of environmental science and health. Part A, Toxic/hazardous substances & environmental engineering.
[46] P. Fedorak,et al. Aerobic biodegradation of two commercial naphthenic acids preparations. , 2004, Environmental science & technology.
[47] J. Potts,et al. A Rapid Microtiter Plate Method To Measure Carbon Dioxide Evolved from Carbon Substrate Amendments so as To Determine the Physiological Profiles of Soil Microbial Communities by Using Whole Soil , 2003, Applied and Environmental Microbiology.
[48] Merritt R. Turetsky,et al. Current disturbance and the diminishing peatland carbon sink , 2002 .
[49] Christian Blodau,et al. Carbon cycling in peatlands A review of processes and controls , 2002 .
[50] Yiqi Luo,et al. Acclimatization of soil respiration to warming in a tall grass prairie , 2001, Nature.
[51] L. Schipper,et al. Is the microbial community in a soil with reduced catabolic diversity less resistant to stress or disturbance , 2001 .
[52] Michael G. Ryan,et al. Evidence that decomposition rates of organic carbon in mineral soil do not vary with temperature , 2000, Nature.
[53] C. Tarnócai. The effect of climate warming on the carbon balance of cryosols in Canada , 1999 .
[54] J. Yavitt,et al. Control of carbon mineralization to CH4 and CO2 in anaerobic,Sphagnum-derived peat from Big Run Bog, West Virginia , 1987 .
[55] R. S. Clymo,et al. The Limits to Peat Bog Growth , 1984 .
[56] S. Bayley,et al. Development and testing of an index of biotic integrity based on submersed and floating vegetation and its application to assess reclamation wetlands in Alberta’s oil sands area, Canada , 2011, Environmental Monitoring and Assessment.
[57] C. Whitby. Microbial naphthenic Acid degradation. , 2010, Advances in applied microbiology.
[58] D. Baldwin,et al. The short-term effects of salinization on anaerobic nutrient cycling and microbial community structure in sediment from a freshwater wetland , 2009, Wetlands.
[59] J. Canadell,et al. Peatlands and the Carbon Cycle , 2008 .
[60] P. Legendre,et al. vegan : Community Ecology Package. R package version 1.8-5 , 2007 .
[61] Anders Lagerkvist,et al. Stabilization of Pb- and Cu-contaminated soil using coal fly ash and peat. , 2007, Environmental pollution.
[62] J. Kumpiene,et al. Stabilization of Pb and CU contaminated soil , 2004 .
[63] Alberta.. Guideline for wetland establishment on reclaimed oil sands leases , 2000 .
[64] H. Holland. Microbial transformations. , 1998, Current opinion in chemical biology.
[65] A. Abdelal. Arginine catabolism by microorganisms. , 1979, Annual review of microbiology.