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The way plants grow and develop organs significantly impacts the overall performance and yield of crop plants. The basic knowledge now available in plant development has the potential to help breeders in generating plants with defined architectural features to improve productivity. Plant translational research effort has steadily increased over the last decade due to the huge increase in the availability of crop genomic resources and Arabidopsis-based sequence annotation systems. However, a consistent gap between fundamental and applied science has yet to be filled. One critical point often brought up is the unreadiness of developmental biologists on one side to foresee agricultural applications for their discoveries, and of the breeders to exploit gene function studies to apply to candidate gene approaches when advantageous on the other. In this book, both developmental biologists and breeders make a special effort to reconcile research on the basic principles of plant development and organogenesis with its applications to crop production and genetic improvement. Fundamental and applied science contributions intertwine and chase each other, giving the reader different but complementary perspectives from only apparently distant corners of the same world.
HD-Zip transcription factors --- Plant in vitro cultures --- plant breeding --- recalcitrant species --- CLV --- wounding --- semi-dwarf --- photoreceptors --- Arabidopsis thaliana --- root development --- morphogenesis --- embryogenesis --- cytokinin --- auxin conjugation --- molecular marker --- Development --- boundaries --- translational research --- proline biosynthesis --- Brassicaceae --- meristem formation --- phytohormones --- stem cells --- meristem --- cytoskeleton --- hydrogen peroxide --- ligule --- genetic improvement --- tree phase change --- Rht18 --- hairy roots --- WUS --- GRETCHEN HAGEN 3 (GH3) IAA-amido synthase group II --- photoperiod --- linkage map --- SAM --- ground tissue --- signaling --- differentiation --- protoxylem --- ambient temperature --- gibberellins --- molecular regulation --- proximodistal patterning --- wheat-rye hybrids --- RolD --- somatic cell selection --- flowering time --- plant development and organogenesis --- grass --- root --- wheat --- crop productivity --- genetic transformation --- regulatory networks --- light environment --- rol genes --- root plasticity --- morphogenic --- stem apical meristem --- auxin --- shoot meristem --- Arabidopsis --- organogenesis --- transformation --- Vasculature --- Organogenesis --- radial patterning --- plant development --- reduced height --- root apical meristem --- Asteraceae --- vernalization --- KNOX transcription factors --- locule --- plant cell and tissue culture --- Agrobacterium rhizogenes --- genes of reproductive isolation --- cell wall --- lateral root cap --- CLE --- auxin minimum --- age
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Leaf morphology is obviously determined in a plant. By contrast, its morphology is often changeable when the plant copes with various environmental changes. To update our understanding of the regulatory mechanisms of leaf morphogenesis with robustness and flexibility, this book provides a series of academic papers that cover molecular mechanism of leaf morphogenesis and offers readers' opportunities to find beautiful mechanisms that plants develop.
Research & information: general --- Biology, life sciences --- Botany & plant sciences --- apical meristems --- Class I KNOX genes --- compound leaves --- determinacy --- Dryopteridaceae --- ferns --- leaf development --- pinna development --- shoot development --- Nepenthes --- carnivorous plants --- UPLC-qToF-MS --- metabolomics --- tissue specificity --- cheminformatics --- CIN-like TCP transcription factors --- regulation --- light --- high temperature --- microRNA319 --- BRAHMA --- TIE1 transcriptional repressors --- TEAR1 E3 ligases --- Leaf angle --- Phytohormones --- crop yield --- BR --- Crosstalk --- Class I KNOX --- Elaphoglossum --- fronds --- leaf diversity --- leaf evolution and development --- megaphyll --- Riccia fluitans --- liverwort --- adaptation --- terrestrialization --- transformation --- sexual induction --- shoot meristem --- embryogenesis --- stem cell --- boundary --- transcription factor --- cytochrome P450 --- CUC --- STM --- LAS --- BLR --- KNAT6 --- KLU --- CYP78A5 --- ASYMMETRIC LEAVES2 --- AS2/LOB domain --- adaxial–abaxial polarity --- ETTIN/AUXIN RESPONSE FACTOR3 (ETT/ARF3) --- AS2 body --- nucleolus --- gene body methylation --- ribosomal DNA (rDNA) --- adaptive significance of insect galls --- gall-inducing insects --- gall formation mechanism --- insect effectors
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Leaf morphology is obviously determined in a plant. By contrast, its morphology is often changeable when the plant copes with various environmental changes. To update our understanding of the regulatory mechanisms of leaf morphogenesis with robustness and flexibility, this book provides a series of academic papers that cover molecular mechanism of leaf morphogenesis and offers readers' opportunities to find beautiful mechanisms that plants develop.
apical meristems --- Class I KNOX genes --- compound leaves --- determinacy --- Dryopteridaceae --- ferns --- leaf development --- pinna development --- shoot development --- Nepenthes --- carnivorous plants --- UPLC-qToF-MS --- metabolomics --- tissue specificity --- cheminformatics --- CIN-like TCP transcription factors --- regulation --- light --- high temperature --- microRNA319 --- BRAHMA --- TIE1 transcriptional repressors --- TEAR1 E3 ligases --- Leaf angle --- Phytohormones --- crop yield --- BR --- Crosstalk --- Class I KNOX --- Elaphoglossum --- fronds --- leaf diversity --- leaf evolution and development --- megaphyll --- Riccia fluitans --- liverwort --- adaptation --- terrestrialization --- transformation --- sexual induction --- shoot meristem --- embryogenesis --- stem cell --- boundary --- transcription factor --- cytochrome P450 --- CUC --- STM --- LAS --- BLR --- KNAT6 --- KLU --- CYP78A5 --- ASYMMETRIC LEAVES2 --- AS2/LOB domain --- adaxial–abaxial polarity --- ETTIN/AUXIN RESPONSE FACTOR3 (ETT/ARF3) --- AS2 body --- nucleolus --- gene body methylation --- ribosomal DNA (rDNA) --- adaptive significance of insect galls --- gall-inducing insects --- gall formation mechanism --- insect effectors
Choose an application
Leaf morphology is obviously determined in a plant. By contrast, its morphology is often changeable when the plant copes with various environmental changes. To update our understanding of the regulatory mechanisms of leaf morphogenesis with robustness and flexibility, this book provides a series of academic papers that cover molecular mechanism of leaf morphogenesis and offers readers' opportunities to find beautiful mechanisms that plants develop.
Research & information: general --- Biology, life sciences --- Botany & plant sciences --- apical meristems --- Class I KNOX genes --- compound leaves --- determinacy --- Dryopteridaceae --- ferns --- leaf development --- pinna development --- shoot development --- Nepenthes --- carnivorous plants --- UPLC-qToF-MS --- metabolomics --- tissue specificity --- cheminformatics --- CIN-like TCP transcription factors --- regulation --- light --- high temperature --- microRNA319 --- BRAHMA --- TIE1 transcriptional repressors --- TEAR1 E3 ligases --- Leaf angle --- Phytohormones --- crop yield --- BR --- Crosstalk --- Class I KNOX --- Elaphoglossum --- fronds --- leaf diversity --- leaf evolution and development --- megaphyll --- Riccia fluitans --- liverwort --- adaptation --- terrestrialization --- transformation --- sexual induction --- shoot meristem --- embryogenesis --- stem cell --- boundary --- transcription factor --- cytochrome P450 --- CUC --- STM --- LAS --- BLR --- KNAT6 --- KLU --- CYP78A5 --- ASYMMETRIC LEAVES2 --- AS2/LOB domain --- adaxial–abaxial polarity --- ETTIN/AUXIN RESPONSE FACTOR3 (ETT/ARF3) --- AS2 body --- nucleolus --- gene body methylation --- ribosomal DNA (rDNA) --- adaptive significance of insect galls --- gall-inducing insects --- gall formation mechanism --- insect effectors
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