FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2079292714> ?p ?o ?g. }

• W2079292714 endingPage "286" @default.
• W2079292714 startingPage "279" @default.
• W2079292714 abstract "Crops resistant to insect attack offer a different strategy of pest control to indiscriminate pesticide usage, which has undesirable effects on both the environment and humans. Transgenic plant technology can be a useful tool in producing resistant crops, by introducing entirely novel resistance genes into a plant species. Although most work in this area has focused on the use of genes encoding insecticidal Bacillus thuringiensis δ-endotoxins in transgenic plants, an alternative approach is to use plant genes which encode proteins with insecticidal properties. Protease inhibitors are involved in endogenous plant defence against insects. Over-expression of several inhibitors from constitutive promoters has been shown to afford protection in transgenic tobacco plants against attack by lepidopteran larvae. However, the degree of protection is not sufficiently high, and shows species- and inhibitor-specific effects. By assaying the interactions of protease inhibitors with insect gut proteases in vitro , the most effective inhibitor can be selected for a particular insect species. Data from bioassays of insects using artificial diets, and with transgenic plants, suggest that the in vitro assay of relative inhibitor effectiveness is consistent with the effects of different inhibitors on insect development and survival in vivo . Development of this techniology is considered. A different approach must be taken with sucking insect pests, as they do not rely on proteolysis for nutrition, and as Bt toxins effective against hom opterans have not been reported to date. Bioassay in artificial diet was used to identify plant proteins with insecticidal effects on the rice brown planthopper (a model homopteran). The lectin from snowdrop (GNA) was found to be the most effective of the proteins tested. GNA was shown to be present in the phloem sap of a transgenic tobacco plant transformed with a chimeric gene construct, containing the rice sucrose synthase-1 gene promoter and the GNA coding sequence, by immunoassay of honeydew produced by aphids feeding on it. GNA is also insecticidal to the aphid Myzus persicae , which will feed on tobacco, and thus a bioassay of transgenic tobacco, to ‘prove’ the technology, can be carried out. The effects of combining different resistance genes in the same transgenic plant to improve the effectiveness of protection are discussed, and exemplified." @default.
• W2079292714 created "2016-06-24" @default.
• W2079292714 creator A5003363939 @default.
• W2079292714 creator A5008662403 @default.
• W2079292714 creator A5008928612 @default.
• W2079292714 creator A5010907146 @default.
• W2079292714 creator A5032146711 @default.
• W2079292714 creator A5045560465 @default.
• W2079292714 creator A5053628685 @default.
• W2079292714 creator A5056860818 @default.
• W2079292714 creator A5059621693 @default.
• W2079292714 creator A5087793336 @default.
• W2079292714 date "1993-11-29" @default.
• W2079292714 modified "2023-10-10" @default.
• W2079292714 title "Approaches to insect resistance using transgenic plants" @default.
• W2079292714 cites W1485900554 @default.
• W2079292714 cites W1980299667 @default.
• W2079292714 cites W1980425058 @default.
• W2079292714 cites W1994654612 @default.
• W2079292714 cites W2028661059 @default.
• W2079292714 cites W2038276020 @default.
• W2079292714 cites W2048031877 @default.
• W2079292714 cites W2059263989 @default.
• W2079292714 cites W2062082793 @default.
• W2079292714 cites W2062087578 @default.
• W2079292714 cites W2072142894 @default.
• W2079292714 cites W2092314167 @default.
• W2079292714 cites W2092875934 @default.
• W2079292714 cites W2096290293 @default.
• W2079292714 cites W2941156923 @default.
• W2079292714 doi "https://doi.org/10.1098/rstb.1993.0158" @default.
• W2079292714 hasPublicationYear "1993" @default.
• W2079292714 type Work @default.
• W2079292714 sameAs 2079292714 @default.
• W2079292714 citedByCount "76" @default.
• W2079292714 countsByYear W20792927142012 @default.
• W2079292714 countsByYear W20792927142013 @default.
• W2079292714 countsByYear W20792927142015 @default.
• W2079292714 countsByYear W20792927142016 @default.
• W2079292714 countsByYear W20792927142017 @default.
• W2079292714 countsByYear W20792927142019 @default.
• W2079292714 countsByYear W20792927142020 @default.
• W2079292714 countsByYear W20792927142021 @default.
• W2079292714 countsByYear W20792927142022 @default.
• W2079292714 crossrefType "journal-article" @default.
• W2079292714 hasAuthorship W2079292714A5003363939 @default.
• W2079292714 hasAuthorship W2079292714A5008662403 @default.
• W2079292714 hasAuthorship W2079292714A5008928612 @default.
• W2079292714 hasAuthorship W2079292714A5010907146 @default.
• W2079292714 hasAuthorship W2079292714A5032146711 @default.
• W2079292714 hasAuthorship W2079292714A5045560465 @default.
• W2079292714 hasAuthorship W2079292714A5053628685 @default.
• W2079292714 hasAuthorship W2079292714A5056860818 @default.
• W2079292714 hasAuthorship W2079292714A5059621693 @default.
• W2079292714 hasAuthorship W2079292714A5087793336 @default.
• W2079292714 hasConcept C102230213 @default.
• W2079292714 hasConcept C104317684 @default.
• W2079292714 hasConcept C104488531 @default.
• W2079292714 hasConcept C122172344 @default.
• W2079292714 hasConcept C150903083 @default.
• W2079292714 hasConcept C181199279 @default.
• W2079292714 hasConcept C2776714187 @default.
• W2079292714 hasConcept C2777612826 @default.
• W2079292714 hasConcept C2779035793 @default.
• W2079292714 hasConcept C523546767 @default.
• W2079292714 hasConcept C54355233 @default.
• W2079292714 hasConcept C55493867 @default.
• W2079292714 hasConcept C59822182 @default.
• W2079292714 hasConcept C86803240 @default.
• W2079292714 hasConceptScore W2079292714C102230213 @default.
• W2079292714 hasConceptScore W2079292714C104317684 @default.
• W2079292714 hasConceptScore W2079292714C104488531 @default.
• W2079292714 hasConceptScore W2079292714C122172344 @default.
• W2079292714 hasConceptScore W2079292714C150903083 @default.
• W2079292714 hasConceptScore W2079292714C181199279 @default.
• W2079292714 hasConceptScore W2079292714C2776714187 @default.
• W2079292714 hasConceptScore W2079292714C2777612826 @default.
• W2079292714 hasConceptScore W2079292714C2779035793 @default.
• W2079292714 hasConceptScore W2079292714C523546767 @default.
• W2079292714 hasConceptScore W2079292714C54355233 @default.
• W2079292714 hasConceptScore W2079292714C55493867 @default.
• W2079292714 hasConceptScore W2079292714C59822182 @default.
• W2079292714 hasConceptScore W2079292714C86803240 @default.
• W2079292714 hasIssue "1301" @default.
• W2079292714 hasLocation W20792927141 @default.
• W2079292714 hasOpenAccess W2079292714 @default.
• W2079292714 hasPrimaryLocation W20792927141 @default.
• W2079292714 hasRelatedWork W10318731 @default.
• W2079292714 hasRelatedWork W1487842660 @default.
• W2079292714 hasRelatedWork W1595813295 @default.
• W2079292714 hasRelatedWork W2022837841 @default.
• W2079292714 hasRelatedWork W2023432449 @default.
• W2079292714 hasRelatedWork W2044506575 @default.
• W2079292714 hasRelatedWork W2152029288 @default.
• W2079292714 hasRelatedWork W2504994877 @default.
• W2079292714 hasRelatedWork W2808638660 @default.
• W2079292714 hasRelatedWork W4242990723 @default.
• W2079292714 hasVolume "342" @default.

• next