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• W2076673025 endingPage "240" @default.
• W2076673025 startingPage "233" @default.
• W2076673025 abstract "The growing human population will require a significant increase in agricultural production. This challenge is made more difficult by the fact that changes in the climatic and environmental conditions under which crops are grown have resulted in the appearance of new diseases, whereas genetic changes within the pathogen have resulted in the loss of previously effective sources of resistance. To help meet this challenge, advanced genetic and statistical methods of analysis have been used to identify new resistance genes through global screens, and studies of plant–pathogen interactions have been undertaken to uncover the mechanisms by which disease resistance is achieved. The informed deployment of major, race-specific and partial, race-nonspecific resistance, either by conventional breeding or transgenic approaches, will enable the production of crop varieties with effective resistance without impacting on other agronomically important crop traits. Here, we review these recent advances and progress towards the ultimate goal of developing disease-resistant crops. The growing human population will require a significant increase in agricultural production. This challenge is made more difficult by the fact that changes in the climatic and environmental conditions under which crops are grown have resulted in the appearance of new diseases, whereas genetic changes within the pathogen have resulted in the loss of previously effective sources of resistance. To help meet this challenge, advanced genetic and statistical methods of analysis have been used to identify new resistance genes through global screens, and studies of plant–pathogen interactions have been undertaken to uncover the mechanisms by which disease resistance is achieved. The informed deployment of major, race-specific and partial, race-nonspecific resistance, either by conventional breeding or transgenic approaches, will enable the production of crop varieties with effective resistance without impacting on other agronomically important crop traits. Here, we review these recent advances and progress towards the ultimate goal of developing disease-resistant crops. a gene, the product of which, as defined by Flor's gene-for-gene hypothesis, is recognized by a plant R-gene and activates ETI. a plant PRR that binds the PAMP chitin. a RLK required for CEBiP-triggered PTI. a plant PRR that binds the PAMP EF-Tu. plant defense responses activated following the recognition by the plant of pathogen effectors. a plant PRR that binds the PAMP flg22. systematically screen a genome-wide array of markers against the phenotypes of interest to identify statistical associations between markers and phenotypes. plant defense responses activated following the recognition by the plant of PAMPs. conserved pathogen molecules recognized by the plant; also known as MAMPs. a genetic region that contributes to a phenotype displaying a continuous distribution. a protein containing a receptor-recognition and a functional kinase domain. a fusion protein between the plant gene DNA recognition repeats of the TAL effector protein and the DNA cleavage domains of FoKI, a bacterial type IIS restriction endonuclease. TALEs bind to TALE-specific DNA sequences within the promoter regions of plant genes, activating gene transcription." @default.
• W2076673025 created "2016-06-24" @default.
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• W2076673025 creator A5048664341 @default.
• W2076673025 creator A5051241678 @default.
• W2076673025 creator A5089484452 @default.
• W2076673025 date "2013-04-01" @default.
• W2076673025 modified "2023-10-04" @default.
• W2076673025 title "Plant–pathogen interactions: disease resistance in modern agriculture" @default.
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• W2076673025 doi "https://doi.org/10.1016/j.tig.2012.10.011" @default.
• W2076673025 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/23153595" @default.
• W2076673025 hasPublicationYear "2013" @default.
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