Negative Effects of Copper Oxide Nanoparticles on Carbon and Nitrogen Cycle Microbial Activities in Contrasting Agricultural Soils and in Presence of Plants
暂无分享,去创建一个
[1] Elizabeth A. Casman,et al. CuO Nanoparticle Dissolution and Toxicity to Wheat ( Triticum aestivum) in Rhizosphere Soil. , 2018, Environmental science & technology.
[2] J. R. Conway,et al. Comparative environmental fate and toxicity of copper nanomaterials , 2017 .
[3] Marie Simonin,et al. Short‐term responses and resistance of soil microbial community structure to elevated CO2 and N addition in grassland mesocosms , 2017, FEMS microbiology letters.
[4] Y. Zhang,et al. The effects of soil microbial and physiochemical properties on resistance and resilience to copper perturbation across China , 2016 .
[5] Marie Simonin,et al. Titanium dioxide nanoparticles strongly impact soil microbial function by affecting archaeal nitrifiers , 2016, Scientific Reports.
[6] J. Filser,et al. Impacts of metal-based engineered nanomaterials on soil communities , 2016 .
[7] H. Albrechtsen,et al. Copper deficiency can limit nitrification in biological rapid sand filters for drinking water production. , 2016, Water research.
[8] Melanie Kah,et al. Nanopesticides and Nanofertilizers: Emerging Contaminants or Opportunities for Risk Mitigation? , 2015, Front. Chem..
[9] Ying-xu Chen,et al. Distinctive effects of TiO2 and CuO nanoparticles on soil microbes and their community structures in flooded paddy soil , 2015 .
[10] M. Schloter,et al. Using plant traits to explain plant-microbe relationships involved in nitrogen acquisition. , 2015, Ecology.
[11] Marie Simonin,et al. Influence of soil properties on the toxicity of TiO₂ nanoparticles on carbon mineralization and bacterial abundance. , 2015, Journal of hazardous materials.
[12] Marie Simonin,et al. Impact of engineered nanoparticles on the activity, abundance, and diversity of soil microbial communities: a review , 2015, Environmental Science and Pollution Research.
[13] S. Puijalon,et al. Evidence for biological denitrification inhibition (BDI) by plant secondary metabolites. , 2014, The New phytologist.
[14] G. Chibuike,et al. Heavy Metal Polluted Soils: Effect on Plants and Bioremediation Methods , 2014 .
[15] Arturo A. Keller,et al. Emerging patterns for engineered nanomaterials in the environment: a review of fate and toxicity studies , 2014, Journal of Nanoparticle Research.
[16] Arturo A. Keller,et al. Estimating Potential Life Cycle Releases of Engineered Nanomaterials from Wastewater Treatment Plants , 2014 .
[17] Thomas Kuhlbusch,et al. Fate and Bioavailability of Engineered Nanoparticles in Soils: A Review , 2014 .
[18] B. Berkowitz,et al. Effect of Metal Oxide Nanoparticles on Microbial Community Structure and Function in Two Different Soil Types , 2013, PloS one.
[19] José M. Argüello,et al. Mechanisms of copper homeostasis in bacteria , 2013, Front. Cell. Infect. Microbiol..
[20] P. Lemanceau,et al. Going back to the roots: the microbial ecology of the rhizosphere , 2013, Nature Reviews Microbiology.
[21] A. Shade,et al. Controls on soil microbial community stability under climate change , 2013, Front. Microbiol..
[22] Mark V Brown,et al. Microbial community responses to anthropogenically induced environmental change: towards a systems approach. , 2013, Ecology letters.
[23] Drew E. Latta,et al. Fate of CuO and ZnO nano- and microparticles in the plant environment. , 2013, Environmental science & technology.
[24] B. Griffiths,et al. Insights into the resistance and resilience of the soil microbial community. , 2013, FEMS microbiology reviews.
[25] Morteza Mahmoudi,et al. Antibacterial properties of nanoparticles. , 2012, Trends in biotechnology.
[26] F. Gérard,et al. Root-induced changes in pH and dissolved organic matter binding capacity affect copper dynamic speciation in the rhizosphere , 2012 .
[27] Davey L. Jones,et al. Comparative Toxicity of Nanoparticulate CuO and ZnO to Soil Bacterial Communities , 2012, PloS one.
[28] F. Poly,et al. Niche construction by the invasive Asian knotweeds (species complex Fallopia): impact on activity, abundance and community structure of denitrifiers and nitrifiers , 2011, Biological Invasions.
[29] Brian Berkowitz,et al. Transport of metal oxide nanoparticles in saturated porous media. , 2010, Chemosphere.
[30] Andrew P. Whitmore,et al. The biological and physical stability and resilience of a selection of Scottish soils to stresses , 2007 .
[31] K. Palme,et al. Stress-induced morphogenic responses: growing out of trouble? , 2007, Trends in plant science.
[32] J. Prosser,et al. EFFECTS OF GRAZING ON MICROBIAL FUNCTIONAL GROUPS INVOLVED IN SOIL N DYNAMICS , 2005 .
[33] L. A. Bouwman,et al. Effect of plant growth on copper solubility and speciation in soil solution samples. , 1999, Environmental pollution.
[34] Ken E. Giller,et al. Toxicity of heavy metals to microorganisms and microbial processes in agricultural soils: a review , 1998 .
[35] T. Rosswall,et al. Dinitrogen and nitrous oxide produced by denitrification and nitrification in soil with and without barley plants , 1987, Plant and Soil.
[36] M. Bahn,et al. The added value of including key microbial traits to determine nitrogen-related ecosystem services in managed grasslands , 2018 .
[37] R Core Team,et al. R: A language and environment for statistical computing. , 2014 .
[38] J. Tiedje,et al. Phases of denitrification following oxygen depletion in soil , 1979 .