Search results for "transgenic plants."

showing 4 items of 4 documents

Shared midgut binding sites for Cry1A.105, Cry1Aa, Cry1Ab, Cry1Ac and Cry1Fa proteins from Bacillus thuringiensis in two important corn pests, Ostrin…

2013

First generation of insect-protected transgenic corn (Bt-corn) was based on the expression of Cry1Ab or Cry1Fa proteins. Currently, the trend is the combination of two or more genes expressing proteins that bind to different targets. In addition to broadening the spectrum of action, this strategy helps to delay the evolution of resistance in exposed insect populations. One of such examples is the combination of Cry1A.105 with Cry1Fa and Cry2Ab to control O. nubilalis and S. frugiperda. Cry1A.105 is a chimeric protein with domains I and II and the C-terminal half of the protein from Cry1Ac, and domain III almost identical to Cry1Fa. The aim of the present study was to determine whether the c…

Agricultural BiotechnologyApplied MicrobiologyCoated vesiclePlant SciencePlasma protein bindingMothsBiochemistryOstriniaPlagues ControlBacillus thuringiensisBiomacromolecule-Ligand InteractionsPlant PestsMultidisciplinaryMicrovillibiologyGenetically Modified OrganismsQRAgricultureRecombinant ProteinsBiochemistryLarvaMedicineDisease SusceptibilityAgrochemicalsResearch ArticleBiotechnologyProtein BindingScienceProtein domainBiotecnologia agrícolaBacillus thuringiensisCoated VesiclesCerealsCropsSpodopteraSpodopteraMicrobiologyBinding CompetitiveZea maysBacterial ProteinsBotanyAnimalsPesticidesBinding siteProtein InteractionsBiologyTransgenic PlantsfungiProteinsPlant Pathologybiology.organism_classificationFusion proteinMaizeGastrointestinal TractKineticsPlant BiotechnologyPest ControlProteïnes
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Experimental virus evolution reveals a role of plant microtubule dynamics and TORTIFOLIA1/SPIRAL2 in RNA trafficking.

2014

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ArabidopsisPlant ScienceMicrotubulesRNA Transport//purl.org/becyt/ford/1 [https]INFECTIONTobacco mosaic virusTOBACCO-MOSAIC-VIRUSMovement proteinCytoskeletonCytoskeletonGeneticsCoat proteinMultidisciplinaryTRANSGENIC PLANTSQREXPERIMENTAL EVOLUTIONARABIDOPSISBiological Evolution3. Good healthCell biologyMacromolecular assemblyTobacco Mosaic VirusMICROTUBULESMedical MicrobiologyTobamovirusesViral Pathogensdynamic plasticityHost-Pathogen InteractionsMedicineTobacco mosaic viruscortical microtubuleCellular Structures and OrganellesCortical microtubuleARABIDOPSIS CORTICAL MICROTUBULESCell wallsMicrotubule-Associated ProteinsCIENCIAS NATURALES Y EXACTASResearch ArticleEvolutionary ProcessesSciencePlant Cell BiologyPlant PathogensORGANIZATIONBiologyMicrobiologyPlant Viral PathogensCiencias BiológicasMOVEMENT PROTEINComplexesMicrotubuleEvolutionary Adaptation//purl.org/becyt/ford/1.6 [https]Microbial PathogensPlant DiseasesEvolutionary BiologyArabidopsis ProteinsBotánicaRNABiology and Life SciencesCell BiologyPlant PathologyTMVCytoplasmMutationRNAVirologíaHELICAL GROWTHPloS one
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Revised annual post-market environmental monitoring (PMEM) report on the cultivation of genetically modified maize MON 810 in 2013 from Monsanto Euro…

2015

Question number: EFSA-Q-2015-00432On request from: European Commission; Following a request from the European Commission, the Panel on Genetically Modified Organisms of the European Food Safety Authority (EFSA GMO Panel) assessed the results of the general surveillance activities contained in the revised annual post-market environmental monitoring (PMEM) report for the 2013 growing season of maize MON 810 provided by Monsanto Europe S.A. The supplied data do not indicate any unanticipated adverse effects on human and animal health or the environment arising from the cultivation of maize MON 810 cultivation in 2013. Similar methodological shortcomings to those observed in previous annual PME…

MON 810literature review[SDV]Life Sciences [q-bio]Veterinary (miscellaneous)reviewTP1-1185Plant Sciencegenetically engineered organismmaizeenvironmental impactZea maysMicrobiologyAgricultural scienceadverse effectEnvironmental monitoringTX341-641Cry1Abliterature searchestransgenic plant2. Zero hungergenetic engineeringGenetically modified maizeanimal healthNutrition. Foods and food supplyeffectChemical technologyquestionnairescreeningtransgenicsliteraturegeneral surveillancerisk assessmenthealthmethodology10079 Institute of Veterinary Pharmacology and Toxicologyfarmer questionnairestechniqueadverse effects; animal health; cultivation; effects; environmental impact; food safety; genetic engineering; genetically engineered organisms; guidelines; health; impact; literature; literature reviews; maize; methodology; monitoring; questionnaires; reviews; risk assessment; screening; techniques; transgenic plants; transgenicsfood safetymonitoringSettore AGR/11 - Entomologia Generale E ApplicataGeographycultivationimpact570 Life sciences; biologyAnimal Science and ZoologyParasitologyguidelineFood Science
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Potential effects of transgenic cotton on soil ecosystem processes in Vietnam.

2008

This chapter concentrates on the potential effects of transgenic cotton on the soil ecosystem of three major cotton growing areas in Vietnam: the coastal lowlands region, the central highlands (eastern and western Truong Son Mountain Range) and the south-eastern region. Soils in these three regions are very different, so it will be necessary to assess the effects of transgenic cotton on typical soils from all three regions. The soils in the south-eastern region are Luvisols, Andosols and Acrisols. In the central highlands, the soils are mainly Luvisols, Rhodic Ferrasols and Haplic Acrisols. The soils in the coastal lowlands region are mainly delta soils, consolidated occasionally by grey li…

symbiosidecompositionFerralsolrisk assessmentLuvisoldelta soilcottonmonitoringlowland areacoastal areasoil typetransgenic plants.Bacillus thuringiensis soil biodiversity cry Toxins AcrisolAndosolhighland
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