Does Bti (Bacillus thuringiensis var. israelensis) affect Rana temporaria tadpoles?

[1]  G. Arcangeli,et al.  First report of a fish kill episode caused by pyrethroids in Italian freshwater. , 2017, Forensic science international.

[2]  T. Gardner.  Declining amphibian populations: a global phenomenon in conservation biology , 2001 .

[3]  S. Bradbury,et al.  Comparative toxicology of the pyrethroid insecticides. , 1989, Reviews of environmental contamination and toxicology.

[4]  B. Young,et al.  Status and Trends of Amphibian Declines and Extinctions Worldwide , 2004, Science.

[5]  S. M. Naqvi,et al.  Bioaccumulative potential and toxicity of endosulfan insecticide to non-target animals. , 1993, Comparative biochemistry and physiology. C, Comparative pharmacology and toxicology.

[6]  G. F. Burnett,et al.  Insecticides, Action and Metabolism. , 1968 .

[7]  R. Ellis,et al.  Molecular chaperones: proteins essential for the biogenesis of some macromolecular structures. , 1989, Trends in biochemical sciences.

[8]  V. Trudeau,et al.  Sublethal effects on wood frogs chronically exposed to environmentally relevant concentrations of two neonicotinoid insecticides , 2017, Environmental toxicology and chemistry.

[9]  A. Hershey,et al.  Ecological effects of mosquito control on zooplankton, insects, and birds , 1999 .

[10]  P. Peltzer,et al.  Toxicity of Bacillus thuringiensis var. israelensis in aqueous suspension on the South American common frog Leptodactylus latrans (Anura: Leptodactylidae) tadpoles. , 2015, Environmental research.

[11]  B. Kay,et al.  Sublethal Effects of Mosquito Larvicides on Swimming Performance of Larvivorous Fish Melanotaenia duboulayi (Atheriniformes: Melanotaeniidae) , 2007, Journal of economic entomology.

[12]  F. Hartl.  Molecular chaperones in cellular protein folding , 1996, Nature.

[13]  D. I. Pomerai,et al.  Heat-shock proteins as biomarkers of pollution. , 1996 .

[14]  S. Antunes,et al.  Toxicity evaluation of three pesticides on non-target aquatic and soil organisms: commercial formulation versus active ingredient , 2009, Ecotoxicology.

[15]  B. Raymond,et al.  In defence of Bacillus thuringiensis, the safest and most successful microbial insecticide available to humanity—a response to EFSA , 2017, FEMS microbiology ecology.

[16]  E. Petersson,et al.  Production of wetland Chironomidae (Diptera) and the effects of using Bacillus thuringiensis israelensis for mosquito control , 2009, Bulletin of Entomological Research.

[17]  R. Douglas.  Temperature and Rate of Development of the Eggs of British Anura , 1948 .

[18]  L. Copping,et al.  Biopesticides: a review of their action, applications and efficacy , 2000 .

[19]  G. Reddy,et al.  Toxicological effects of pyrethroids on non-target aquatic insects. , 2015, Environmental toxicology and pharmacology.

[20]  A. Hershey,et al.  EFFECTS OF BACILLUS THURINGIENSIS ISRAELENSIS (BTI) AND METHOPRENE ON NONTARGET MACROINVERTEBRATES IN MINNESOTA WETLANDS , 1998 .

[21]  J. Kiesecker,et al.  Complexity in conservation: lessons from the global decline of amphibian populations , 2002 .

[22]  R. Relyea,et al.  The contribution of phenotypic plasticity to the evolution of insecticide tolerance in amphibian populations , 2015, Evolutionary applications.

[23]  K. Gosner,et al.  A simplified table for staging anuran embryos and larvae with notes on identification , 1960 .

[24]  B. Kay,et al.  Acute toxicity of selected pesticides to the Pacific blue-eye, Pseudomugil signifer (Pisces). , 1998, Journal of the American Mosquito Control Association.

[25]  G. Sterk,et al.  Sensitivity of non-target arthropods and beneficial fungal species to chemical and biological plant protection products: results of laboratory and semi-field trials , 2002 .

[26]  Ralf Nauen,et al.  IRAC: Mode of action classification and insecticide resistance management. , 2015, Pesticide biochemistry and physiology.

[27]  C. Carey,et al.  Possible interrelations among environmental toxicants, amphibian development, and decline of amphibian populations. , 1995, Environmental health perspectives.

[28]  T. Caquet,et al.  Effects of repeated field applications of two formulations of Bacillus thuringiensis var. israelensis on non-target saltmarsh invertebrates in Atlantic coastal wetlands. , 2011, Ecotoxicology and environmental safety.

[29]  S. Gill,et al.  Mode of action of Bacillus thuringiensis Cry and Cyt toxins and their potential for insect control. , 2007, Toxicon : official journal of the International Society on Toxinology.

[30]  N. Tolbert,et al.  A modification of the Lowry procedure to simplify protein determination in membrane and lipoprotein samples. , 1978, Analytical biochemistry.

[31]  L. Jover,et al.  Relations between Meteorological Variables and the Initiation of the Spawning Period in Populations of Rana temporaria L. in the Atlantic Region of the Basque Country (Northern Spain) , 1986 .

[32]  P. Mantecca,et al.  Axial-skeletal defects caused by Carbaryl in Xenopus laevis embryos. , 2008, The Science of the total environment.

[33]  H. Ranson,et al.  Insecticide Resistance in African Anopheles Mosquitoes: A Worsening Situation that Needs Urgent Action to Maintain Malaria Control. , 2016, Trends in parasitology.

[34]  Y. Capowiez,et al.  Dynamics of acetylcholinesterase activity recovery in two earthworm species following exposure to ethyl-parathion , 2008 .

[35]  N. Suzuki,et al.  Acute Toxicity of an Organophosphate Insecticide Chlorpyrifos to an Anuran, Rana cyanophlyctis , 2017 .

[36]  Fukuto Tr.  Mechanism of action of organophosphorus and carbamate insecticides. , 1990 .

[37]  F HOBBIGER,et al.  The Inhibition of Acetylcholinesterase by Organophosphorus Compounds and its Reversal [Abridged] , 1961, Proceedings of the Royal Society of Medicine.

[38]  B. Kay,et al.  Environmental effects of mosquito insecticides on saltmarsh invertebrate fauna , 2009 .

[39]  Y. Capowiez,et al.  Carboxylesterase activity in earthworm gut contents: Potential (eco)toxicological implications. , 2009, Comparative biochemistry and physiology. Toxicology & pharmacology : CBP.

[40]  S. Gill,et al.  The mode of action of Bacillus thuringiensis endotoxins. , 1992, Annual review of entomology.

[41]  B. H. Knowles,et al.  Colloid-osmotic lysis is a general feature of the mechanism of action of Bacillus thuringiensis δ-endotoxins with different insect specificity , 1987 .

[42]  L. McConnell,et al.  Pesticides and amphibian population declines in California, USA , 2001, Environmental toxicology and chemistry.

[43]  J. Roh,et al.  Bacillus thuringiensis as a specific, safe, and effective tool for insect pest control. , 2007, Journal of microbiology and biotechnology.

[44]  C. Miaud,et al.  Variations in life-history traits in the common frog Rana temporaria (Amphibia: Anura): a literature review and new data from the French Alps , 1999 .

[45]  E. Petersson,et al.  A six-year study of insect emergence from temporary flooded wetlands in central Sweden, with and without Bti-based mosquito control. , 2010, Bulletin of entomological research.

[46]  L. Lacey.  BACILLUS THURINGIENSIS SEROVARIETY ISRAELENSIS AND BACILLUS SPHAERICUS FOR MOSQUITO CONTROL , 2007, Journal of the American Mosquito Control Association.

[47]  P. Laurent,et al.  Updating the H‐antigen classification of Bacillus thuringiensis , 1999, Journal of applied microbiology.

[48]  R. Wanke,et al.  The use of histopathological indicators to evaluate contaminant-related stress in fish , 1997 .

[49]  J. Chambers,et al.  Toxic and developmental effects of organophosphorus insecticides in embryos of the South African clawed frog. , 1989, Journal of environmental science and health. Part. B, Pesticides, food contaminants, and agricultural wastes.

[50]  B. Kay,et al.  Laboratory and Field Evaluation of the Efficacy of Four Insecticides for Aedes vigilax (Diptera: Culicidae) and Toxicity to the Nontarget Shrimp Leander tenuicornis (Decapoda: Palaemonidae) , 1999 .

[51]  P. L. Porte.  Mytilus trossulus hsp70 as a biomarker for arsenic exposure in the marine environment: laboratory and real-world results. , 2005 .

[52]  H. Segner,et al.  Monitoring Pollution in River MureŞ, Romania, Part III: biochemical effect markers in fish and integrative reflection , 2007, Environmental monitoring and assessment.

[53]  R. Beattie.  The date of spawning in populations of the Common frog (Rana temporaria) from different altitudes in northern England , 2009 .

[54]  E. Frachon,et al.  Classification ofBacillus thuringiensis strains , 1990, Entomophaga.

[55]  S. Adams.  Biomarker/bioindicator response profiles of organisms can help differentiate between sources of anthropogenic stressors in aquatic ecosystems , 2001, Biomarkers : biochemical indicators of exposure, response, and susceptibility to chemicals.

[56]  H. Köhler,et al.  Monitoring pollution in River Mureş, Romania, part II: Metal accumulation and histopathology in fish , 2008, Environmental monitoring and assessment.

[57]  Sébastien Chouin,et al.  No association between the use of Bti for mosquito control and the dynamics of non-target aquatic invertebrates in French coastal and continental wetlands. , 2016, The Science of the total environment.

[58]  K. Bjorndal.  Fermentation in Reptiles and Amphibians , 1997 .

[59]  M. Feder,et al.  Heat-shock proteins, molecular chaperones, and the stress response: evolutionary and ecological physiology. , 1999, Annual review of physiology.

[60]  N. Becker,et al.  Impact of routine Bacillus thuringiensis israelensis (Bti) treatment on the availability of flying insects as prey for aerial feeding predators , 2017, Bulletin of Entomological Research.

[61]  Antti Haapanen.  Breeding of the common frog (Rana temporaria L.) , 1982 .

[62]  G. Alberti,et al.  The induction of stress proteins (hsp) in Oniscus asellus (Isopoda) as a molecular marker of multiple heavy metal exposure: I. Principles and toxicological assessment , 1997 .

[63]  S. Lindquist,et al.  The heat-shock proteins. , 1988, Annual review of genetics.

[64]  A. Nazir,et al.  Heat shock response: hsp70 in environmental monitoring , 2003, Journal of biochemical and molecular toxicology.

[65]  O. H. Lowry,et al.  Protein measurement with the Folin phenol reagent. , 1951, The Journal of biological chemistry.

[66]  D. D. de Pomerai,et al.  Review : Heat-shock proteins as biomarkers of pollution , 1996 .

[67]  J. Elmberg.  Long-term survival, length of breeding season, and operational sex ratio in a boreal population of common frogs, Rana temporaria L. , 1990 .

[68]  A. J. Ryan.  The metabolism of pesticidal carbamates. , 1971, CRC critical reviews in toxicology.

[69]  T. Caquet,et al.  Bti sprays do not adversely affect non‐target aquatic invertebrates in French Atlantic coastal wetlands , 2014 .

[70]  G. Georghiou,et al.  Influence of Exposure to Single versus Multiple Toxins of Bacillus thuringiensis subsp. israelensis on Development of Resistance in the Mosquito Culex quinquefasciatus (Diptera: Culicidae) , 1997, Applied and environmental microbiology.

[71]  M. Mayer,et al.  Hsp70 chaperones: Cellular functions and molecular mechanism , 2005, Cellular and Molecular Life Sciences.

[72]  C. F. Rabeni,et al.  Effects of Bacillus thuringiensis var. Israelensis on nontarget benthic organisms in a lentic habitat and factors affecting the efficacy of the larvicide , 1994 .

[73]  H. Köhler,et al.  B-type esterases in the snail Xeropicta derbentina: an enzymological analysis to evaluate their use as biomarkers of pesticide exposure. , 2009, Environmental pollution.

[74]  H. Köhler,et al.  Wildlife Ecotoxicology of Pesticides: Can We Track Effects to the Population Level and Beyond? , 2013, Science.

[75]  Brigitte Poulin,et al.  Red flag for green spray: adverse trophic effects of Bti on breeding birds , 2010 .

[76]  V. Mingo,et al.  European common frog Rana temporaria (Anura: Ranidae) larvae show subcellular responses under field‐relevant Bacillus thuringiensis var. israelensis (Bti) exposure levels , 2018, Environmental research.

[77]  K. Courtney,et al.  A new and rapid colorimetric determination of acetylcholinesterase activity. , 1961, Biochemical pharmacology.

[78]  N. Becker.  THE USE OF BACILLUS THURINGIENSIS SUBSP. ISRAELENSIS (BTI) AGAINST MOSQUITOES, WITH SPECIAL EMPHASIS ON THE ECOLOGICAL IMPACT , 1998 .

[79]  N. Becker,et al.  Lack of Resistance in Aedes vexans Field Populations After 36 Years of Bacillus thuringiensis subsp. Israelensis Applications in the Upper Rhine Valley, Germany. , 2018, Journal of the American Mosquito Control Association.

[80]  M. M. Bradford.  A rapid and sensitive method for the quantitation of microgram quantities of protein utilizing the principle of protein-dye binding. , 1976, Analytical biochemistry.

[81]  N. Becker.  Microbial control of mosquitoes: management of the upper rhine mosquito population as a model programme. , 1997, Parasitology today.