Membrane Alterations in Pseudomonas putida F1 Exposed to Nanoscale Zerovalent Iron: Effects of Short-Term and Repetitive nZVI Exposure.
暂无分享,去创建一个
[1] S. French,et al. The dynamic nature of bacterial surfaces: Implications for metal–membrane interaction , 2013, Critical reviews in microbiology.
[2] J. Gottfries,et al. Effect of Low Temperature on Growth and UltraStructure of Staphylococcus spp , 2012 .
[3] Amy Pruden,et al. Microbial community response of nitrifying sequencing batch reactors to silver, zero-valent iron, titanium dioxide and cerium dioxide nanomaterials. , 2015, Water research.
[4] A. McBain,et al. Altered Competitive Fitness, Antimicrobial Susceptibility, and Cellular Morphology in a Triclosan-Induced Small-Colony Variant of Staphylococcus aureus , 2015, Antimicrobial Agents and Chemotherapy.
[5] C. Fajardo,et al. Molecular Stress Responses to Nano-Sized Zero-Valent Iron (nZVI) Particles in the Soil Bacterium Pseudomonas stutzeri , 2014, PloS one.
[6] Ho-Wen Chen,et al. Monitoring of ORP, pH and DO in heterogeneous Fenton oxidation using nZVI as a catalyst for the treatment of azo-dye textile wastewater , 2014 .
[7] D. Sedlak,et al. Inactivation of Escherichia coli by Nanoparticulate Zerovalent Iron and Ferrous Ion , 2010, Applied and Environmental Microbiology.
[8] Bernd Nowack,et al. Application of nanoscale zero valent iron (NZVI) for groundwater remediation in Europe , 2012, Environmental Science and Pollution Research.
[9] Arturo A. Keller,et al. Toxicity of Nano-Zero Valent Iron to Freshwater and Marine Organisms , 2012, PloS one.
[10] J. Ramos,et al. Mechanisms of solvent resistance mediated by interplay of cellular factors in Pseudomonas putida. , 2015, FEMS microbiology reviews.
[11] V. H. Liao,et al. Nanoscale zerovalent iron (nZVI) at environmentally relevant concentrations induced multigenerational reproductive toxicity in Caenorhabditis elegans. , 2016, Chemosphere.
[12] F. Bai,et al. Real-Time Visualization of Perylene Nanoclusters in Water and Their Partitioning to Graphene Surface and Macrophage Cells. , 2015, Environmental science & technology.
[13] C. Fajardo,et al. Effects of Nano Zero-Valent Iron on Klebsiella oxytoca and Stress Response , 2013, Microbial Ecology.
[14] M. Yao,et al. Use of zero-valent iron nanoparticles in inactivating microbes. , 2009, Water research.
[15] L. Wackett,et al. Degradation of trichloroethylene by toluene dioxygenase in whole-cell studies with Pseudomonas putida F1 , 1988, Applied and environmental microbiology.
[16] Leen Bastiaens,et al. Inhibition of sulfate reducing bacteria in aquifer sediment by iron nanoparticles. , 2014, Water research.
[17] J. Gottfries,et al. Effect of Low Temperature on Growth and Ultra-Structure of Staphylococcus spp , 2012, PloS one.
[18] C. Fajardo,et al. Transcriptional and proteomic stress responses of a soil bacterium Bacillus cereus to nanosized zero-valent iron (nZVI) particles. , 2013, Chemosphere.
[19] J. Trevors,et al. Cytoplasmic membrane response to copper and nickel in Acidithiobacillus ferrooxidans. , 2011, Microbiological research.
[20] Q. Huang,et al. Adhesion of bacterial pathogens to soil colloidal particles: influences of cell type, natural organic matter, and solution chemistry. , 2014, Water research.
[21] D. Elliott,et al. Field assessment of nanoscale bimetallic particles for groundwater treatment. , 2001, Environmental science & technology.
[22] M. Černík,et al. Oxidative stress induced in microorganisms by zero-valent iron nanoparticles. , 2011, Microbes and environments.
[23] Mark R Wiesner,et al. Effect of a fullerene water suspension on bacterial phospholipids and membrane phase behavior. , 2007, Environmental science & technology.
[24] Heterogeneity as an adaptive trait of microbial populations , 2013, Microbiology.
[25] H. Heipieper,et al. Adaptation of the Hydrocarbonoclastic Bacterium Alcanivorax borkumensis SK2 to Alkanes and Toxic Organic Compounds: a Physiological and Transcriptomic Approach , 2013, Applied and Environmental Microbiology.
[26] C. Rock,et al. Membrane lipid homeostasis in bacteria , 2008, Nature Reviews Microbiology.
[27] Pedro J J Alvarez,et al. Adsorbed polymer and NOM limits adhesion and toxicity of nano scale zerovalent iron to E. coli. , 2010, Environmental science & technology.
[28] Thomas Kuhlbusch,et al. Fate and Bioavailability of Engineered Nanoparticles in Soils: A Review , 2014 .
[29] A. Mukherjee,et al. Toxic behavior of silver and zinc oxide nanoparticles on environmental microorganisms , 2014, Journal of basic microbiology.
[30] Kara L Nelson,et al. Bactericidal effect of zero-valent iron nanoparticles on Escherichia coli. , 2008, Environmental science & technology.
[31] Mark R Wiesner,et al. A review of the environmental implications of in situ remediation by nanoscale zero valent iron (nZVI): Behavior, transport and impacts on microbial communities. , 2016, The Science of the total environment.
[32] Eakalak Khan,et al. Role of oxidative stress in inactivation of Escherichia coli BW25113 by nanoscale zero-valent iron. , 2016, The Science of the total environment.
[33] Christer S. Ejsing,et al. Homeoviscous Adaptation and the Regulation of Membrane Lipids. , 2016, Journal of molecular biology.
[34] S. Leibler,et al. Bacterial Persistence as a Phenotypic Switch , 2004, Science.
[35] O. Kuipers,et al. Bistability, epigenetics, and bet-hedging in bacteria. , 2008, Annual review of microbiology.
[36] Milica Velimirovic,et al. Use of CAH-degrading bacteria as test-organisms for evaluating the impact of fine zerovalent iron particles on the anaerobic subsurface environment. , 2015, Chemosphere.
[37] Ilkeun Lee,et al. Surface characteristics and adhesion behavior of Escherichia coli O157:H7: role of extracellular macromolecules. , 2009, Biomacromolecules.
[38] Yong Sik Ok,et al. Review on nano zerovalent iron (nZVI): From synthesis to environmental applications , 2016 .
[39] 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.
[40] Pedro J J Alvarez,et al. Effects of nano-scale zero-valent iron particles on a mixed culture dechlorinating trichloroethylene. , 2010, Bioresource technology.
[41] S. Klumpp,et al. Population Dynamics of Bacterial Persistence , 2013, PloS one.
[42] R. Naidu,et al. Nanoscale zero-valent iron as a catalyst for heterogeneous Fenton oxidation of amoxicillin , 2014 .
[43] G. Lowry,et al. Effect of particle age (Fe0 content) and solution pH on NZVI reactivity: H2 evolution and TCE dechlorination. , 2006, Environmental science & technology.
[44] J. Trevors,et al. Cytoplasmic membrane fluidity and fatty acid composition of Acidithiobacillus ferrooxidans in response to pH stress , 2010, Extremophiles.
[45] Arturo A. Keller,et al. Persistence of commercial nanoscaled zero-valent iron (nZVI) and by-products , 2013, Journal of Nanoparticle Research.
[46] H. Heipieper,et al. Adaptation of Pseudomonas putida S12 to ethanol and toluene at the level of fatty acid composition of membranes , 1994, Applied and environmental microbiology.
[47] K. Dercová,et al. Response Mechanisms of Bacterial Degraders to Environmental Contaminants on the Level of Cell Walls and Cytoplasmic Membrane , 2014, International journal of microbiology.
[48] H. Heipieper,et al. The cis-trans isomerase of unsaturated fatty acids in Pseudomonas and Vibrio: biochemistry, molecular biology and physiological function of a unique stress adaptive mechanism. , 2003, FEMS microbiology letters.
[49] J. Modak,et al. Soft-particle model analysis of effect of LPS on electrophoretic softness of Acidithiobacillus ferrooxidans grown in presence of different metal ions. , 2009, Colloids and surfaces. B, Biointerfaces.
[50] O. B. Popova,et al. Effects of copper and cadmium ions on the physicochemical properties of lipids of the marine bacterium Pseudomonas putida IB28 at different growth temperatures , 2008, Russian Journal of Marine Biology.
[51] F. Champlin,et al. Status of methods for assessing bacterial cell surface charge properties based on zeta potential measurements. , 2001, Journal of microbiological methods.
[52] C. Pagnout,et al. Role of electrostatic interactions in the toxicity of titanium dioxide nanoparticles toward Escherichia coli. , 2012, Colloids and surfaces. B, Biointerfaces.
[53] C. Haynes,et al. Toxicity of engineered nanoparticles in the environment. , 2013, Analytical chemistry.
[54] H. Heipieper,et al. Conversion of cis unsaturated fatty acids to trans, a possible mechanism for the protection of phenol-degrading Pseudomonas putida P8 from substrate toxicity , 1992, Applied and environmental microbiology.
[55] Damià Barceló,et al. Considerations of Environmentally Relevant Test Conditions for Improved Evaluation of Ecological Hazards of Engineered Nanomaterials. , 2016, Environmental science & technology.
[56] X. Xia,et al. Modification of Fatty acids in membranes of bacteria: implication for an adaptive mechanism to the toxicity of carbon nanotubes. , 2014, Environmental science & technology.
[57] Z. Tong,et al. Response of soil microorganisms to As-produced and functionalized single-wall carbon nanotubes (SWNTs). , 2012, Environmental science & technology.
[58] M. Elimelech,et al. Relevance of electrokinetic theory for "soft" particles to bacterial cells: implications for bacterial adhesion. , 2005, Langmuir : the ACS journal of surfaces and colloids.
[59] Baikun Li,et al. Bacterial adhesion to glass and metal-oxide surfaces. , 2004, Colloids and surfaces. B, Biointerfaces.
[60] K. Henn,et al. Utilization of nanoscale zero‐valent iron for source remediation—A case study , 2006 .
[61] Ranjit T Koodali,et al. Size-dependent bacterial growth inhibition and mechanism of antibacterial activity of zinc oxide nanoparticles. , 2011, Langmuir : the ACS journal of surfaces and colloids.
[62] A. D. Syakti,et al. Use of electrospray ionization mass spectrometry for profiling of crude oil effects on the phospholipid molecular species of two marine bacteria. , 2005, Rapid communications in mass spectrometry : RCM.
[63] Magdalena Kwolek-Mirek,et al. Comparison of methods used for assessing the viability and vitality of yeast cells. , 2014, FEMS yeast research.
[64] J. Shim,et al. Changes in Membrane Fluidity and Fatty Acid Composition of Pseudomonas putida CN-T19 in Response to Toluene , 2002, Bioscience, biotechnology, and biochemistry.
[65] Tanapon Phenrat,et al. Partial oxidation ("aging") and surface modification decrease the toxicity of nanosized zerovalent iron. , 2009, Environmental science & technology.
[66] Y. Hwang,et al. Potential environmental implications of nanoscale zero-valent iron particles for environmental remediation , 2014, Environmental health and toxicology.
[67] Christopher M. Hessler,et al. The influence of capsular extracellular polymeric substances on the interaction between TiO₂ nanoparticles and planktonic bacteria. , 2012, Water research.
[68] N. Joshi,et al. Enhanced resistance to nanoparticle toxicity is conferred by overproduction of extracellular polymeric substances. , 2012, Journal of hazardous materials.
[69] Wei Wang,et al. Nanoscale zero-valent iron (nZVI) for the treatment of concentrated Cu(II) wastewater: a field demonstration. , 2014, Environmental science. Processes & impacts.
[70] Xingzai Chen,et al. Review on Nano zerovalent Iron (nZVI): From Modification to Environmental Applications , 2017 .
[71] H. Heipieper,et al. Effect of silver nanoparticles and silver ions on growth and adaptive response mechanisms of Pseudomonas putida mt-2. , 2014, FEMS microbiology letters.
[72] P. Bremer,et al. Mechanisms of Cation Exchange by Pseudomonas aeruginosa PAO1 and PAO1 wbpL, a Strain with a Truncated Lipopolysaccharide , 2008, Applied and Environmental Microbiology.
[73] R. Nogueira,et al. 2,4-Dichlorophenoxyacetic acid (2,4-D) degradation promoted by nanoparticulate zerovalent iron (nZVI) in aerobic suspensions , 2013 .
[74] J. Giddings,et al. Effects analysis of time‐varying or repeated exposures in aquatic ecological risk assessment of agrochemicals , 2002, Environmental toxicology and chemistry.
[75] Marie Simonin,et al. Combined Study of Titanium Dioxide Nanoparticle Transport and Toxicity on Microbial Nitrifying Communities under Single and Repeated Exposures in Soil Columns. , 2016, Environmental science & technology.
[76] J. Lead,et al. Transformations of nanomaterials in the environment. , 2012, Environmental science & technology.
[77] G. Zeng,et al. The interactions between nanoscale zero-valent iron and microbes in the subsurface environment: A review. , 2017, Journal of hazardous materials.
[78] Armand Masion,et al. Relation between the redox state of iron-based nanoparticles and their cytotoxicity toward Escherichia coli. , 2008, Environmental science & technology.
[79] Khara D Grieger,et al. Environmental benefits and risks of zero-valent iron nanoparticles (nZVI) for in situ remediation: risk mitigation or trade-off? , 2010, Journal of contaminant hydrology.
[80] Guanjun Chen,et al. Physiological and transcriptomic analyses reveal mechanistic insight into the adaption of marine Bacillus subtilis C01 to alumina nanoparticles , 2016, Scientific Reports.
[81] Mallavarapu Megharaj,et al. Inhibition or promotion of biodegradation of nitrate by Paracoccus sp. in the presence of nanoscale zero-valent iron. , 2015, The Science of the total environment.
[82] Pedro J J Alvarez,et al. Effect of natural organic matter on toxicity and reactivity of nano-scale zero-valent iron. , 2011, Water research.
[83] D. O’Carroll,et al. Nanoscale zero valent iron and bimetallic particles for contaminated site remediation , 2013 .
[84] Eakalak Khan,et al. Impact of nanoscale zero valent iron on bacteria is growth phase dependent. , 2016, Chemosphere.
[85] C. Fajardo,et al. Integrating classical and molecular approaches to evaluate the impact of nanosized zero-valent iron (nZVI) on soil organisms. , 2014, Chemosphere.