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pesticides --- Analytical methods --- plant growth substances --- HPLC --- residues --- Plant growth regulator --- Plant growth regulator
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Biologically active small molecules have increasingly been applied in plant biology to dissect and understand biological systems. This is evident from the frequent use of potent and selective inhibitors of enzymes or other biological processes such as transcription, translation, or protein degradation. In contrast to animal systems, which are nurtured from drug research, the systematic development of novel bioactive small molecules as research tools for plant systems is a largely underexplored research area. This is surprising since bioactive small molecules bear great potential for generating new, powerful tools for dissecting diverse biological processes. In particular, when small molecules are integrated into genetic strategies (thereby defining “chemical genetics”), they may help to circumvent inherent problems of classical (forward) genetics. There are now clear examples of important, fundamental discoveries originating from plant chemical genetics that demonstrate the power, but not yet fully exploited potential, of this experimental approach. These include the unraveling of molecular mechanisms and critical steps in hormone signaling, activation of defense reactions and dynamic intracellular processes. The intention of this Research Topic of Frontiers in Plant Physiology is to summarize the current status of research at the interface between chemistry and biology and to identify future research challenges. The research topic covers diverse aspects of plant chemical biology, including the identification of bioactive small molecules through screening processes from chemical libraries and natural sources, which rely on robust and quantitative high-throughput bioassays, the critical evaluation and characterization of the compound’s activity (selectivity) and, ultimately, the identification of its protein target(s) and mode-of-action, which is yet the biggest challenge of all. Such well-characterized, selective chemicals are attractive tools for basic research, allowing the functional dissection of plant signaling processes, or for applied purposes, if designed for protection of crop plants from disease. New methods and data mining tools for assessing the bioactivity profile of compounds, exploring the chemical space for structure–function relationships, and comprehensive chemical fingerprinting (metabolomics) are also important strategies in plant chemical biology. In addition, there is a continuing need for diverse target-specific bioprobes that help profiling enzymatic activities or selectively label protein complexes or cellular compartments. To achieve these goals and to add suitable probes and methods to the experimental toolbox, plant biologists need to closely cooperate with synthetic chemists. The development of such tailored chemicals that beyond application in basic research can modify traits of crop plants or target specific classes of weeds or pests by collaboration of applied and academic research groups may provide a bright future for plant chemical biology. The current Research Topic covers the breadth of the field by presenting original research articles, methods papers, reviews, perspectives and opinions.
Plant-pathogen interaction --- High-Throughput Screening --- agricultural biotechnology --- plant growth regulator --- Chemical Genetics --- bioactive small molecule --- Target identification --- Chemical Biology --- Plant immune response --- phytohormone
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Biologically active small molecules have increasingly been applied in plant biology to dissect and understand biological systems. This is evident from the frequent use of potent and selective inhibitors of enzymes or other biological processes such as transcription, translation, or protein degradation. In contrast to animal systems, which are nurtured from drug research, the systematic development of novel bioactive small molecules as research tools for plant systems is a largely underexplored research area. This is surprising since bioactive small molecules bear great potential for generating new, powerful tools for dissecting diverse biological processes. In particular, when small molecules are integrated into genetic strategies (thereby defining “chemical genetics”), they may help to circumvent inherent problems of classical (forward) genetics. There are now clear examples of important, fundamental discoveries originating from plant chemical genetics that demonstrate the power, but not yet fully exploited potential, of this experimental approach. These include the unraveling of molecular mechanisms and critical steps in hormone signaling, activation of defense reactions and dynamic intracellular processes. The intention of this Research Topic of Frontiers in Plant Physiology is to summarize the current status of research at the interface between chemistry and biology and to identify future research challenges. The research topic covers diverse aspects of plant chemical biology, including the identification of bioactive small molecules through screening processes from chemical libraries and natural sources, which rely on robust and quantitative high-throughput bioassays, the critical evaluation and characterization of the compound’s activity (selectivity) and, ultimately, the identification of its protein target(s) and mode-of-action, which is yet the biggest challenge of all. Such well-characterized, selective chemicals are attractive tools for basic research, allowing the functional dissection of plant signaling processes, or for applied purposes, if designed for protection of crop plants from disease. New methods and data mining tools for assessing the bioactivity profile of compounds, exploring the chemical space for structure–function relationships, and comprehensive chemical fingerprinting (metabolomics) are also important strategies in plant chemical biology. In addition, there is a continuing need for diverse target-specific bioprobes that help profiling enzymatic activities or selectively label protein complexes or cellular compartments. To achieve these goals and to add suitable probes and methods to the experimental toolbox, plant biologists need to closely cooperate with synthetic chemists. The development of such tailored chemicals that beyond application in basic research can modify traits of crop plants or target specific classes of weeds or pests by collaboration of applied and academic research groups may provide a bright future for plant chemical biology. The current Research Topic covers the breadth of the field by presenting original research articles, methods papers, reviews, perspectives and opinions.
Plant-pathogen interaction --- High-Throughput Screening --- agricultural biotechnology --- plant growth regulator --- Chemical Genetics --- bioactive small molecule --- Target identification --- Chemical Biology --- Plant immune response --- phytohormone
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Biologically active small molecules have increasingly been applied in plant biology to dissect and understand biological systems. This is evident from the frequent use of potent and selective inhibitors of enzymes or other biological processes such as transcription, translation, or protein degradation. In contrast to animal systems, which are nurtured from drug research, the systematic development of novel bioactive small molecules as research tools for plant systems is a largely underexplored research area. This is surprising since bioactive small molecules bear great potential for generating new, powerful tools for dissecting diverse biological processes. In particular, when small molecules are integrated into genetic strategies (thereby defining “chemical genetics”), they may help to circumvent inherent problems of classical (forward) genetics. There are now clear examples of important, fundamental discoveries originating from plant chemical genetics that demonstrate the power, but not yet fully exploited potential, of this experimental approach. These include the unraveling of molecular mechanisms and critical steps in hormone signaling, activation of defense reactions and dynamic intracellular processes. The intention of this Research Topic of Frontiers in Plant Physiology is to summarize the current status of research at the interface between chemistry and biology and to identify future research challenges. The research topic covers diverse aspects of plant chemical biology, including the identification of bioactive small molecules through screening processes from chemical libraries and natural sources, which rely on robust and quantitative high-throughput bioassays, the critical evaluation and characterization of the compound’s activity (selectivity) and, ultimately, the identification of its protein target(s) and mode-of-action, which is yet the biggest challenge of all. Such well-characterized, selective chemicals are attractive tools for basic research, allowing the functional dissection of plant signaling processes, or for applied purposes, if designed for protection of crop plants from disease. New methods and data mining tools for assessing the bioactivity profile of compounds, exploring the chemical space for structure–function relationships, and comprehensive chemical fingerprinting (metabolomics) are also important strategies in plant chemical biology. In addition, there is a continuing need for diverse target-specific bioprobes that help profiling enzymatic activities or selectively label protein complexes or cellular compartments. To achieve these goals and to add suitable probes and methods to the experimental toolbox, plant biologists need to closely cooperate with synthetic chemists. The development of such tailored chemicals that beyond application in basic research can modify traits of crop plants or target specific classes of weeds or pests by collaboration of applied and academic research groups may provide a bright future for plant chemical biology. The current Research Topic covers the breadth of the field by presenting original research articles, methods papers, reviews, perspectives and opinions.
Plant-pathogen interaction --- High-Throughput Screening --- agricultural biotechnology --- plant growth regulator --- Chemical Genetics --- bioactive small molecule --- Target identification --- Chemical Biology --- Plant immune response --- phytohormone --- Plant-pathogen interaction --- High-Throughput Screening --- agricultural biotechnology --- plant growth regulator --- Chemical Genetics --- bioactive small molecule --- Target identification --- Chemical Biology --- Plant immune response --- phytohormone
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581.143 --- 581.192 --- Growth --- Chemical composition of the plant --- Plant growth regulators --- Plant hormones. --- Plant growth regulators. --- 581.192 Chemical composition of the plant --- 581.143 Growth --- Plant Growth Regulators. --- Growth Regulators, Plant --- Regulators, Plant Growth --- Phytohormones --- Plant Hormones --- Hormones, Plant --- Plant Physiology --- Plant Growth Regulators --- Plant hormones --- 577.175.12 --- 577.175.12 Auxins. Growth stimulators. Ethylene --- Auxins. Growth stimulators. Ethylene --- Hormones (Plants) --- Hormones --- Phytochemicals --- Plant regulators --- Phytochemistry. Phytobiochemistry --- Plant and Crop Sciences. Botany --- Phytohormone --- Plant Growth Regulator --- Plant Hormone --- Growth Regulator, Plant --- Hormone, Plant --- Regulator, Plant Growth
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Plant Growth Regulators. --- 57.017.64 <063> --- 631.811.98 <063> --- Growth Regulators, Plant --- Regulators, Plant Growth --- Phytohormones --- Plant Hormones --- Hormones, Plant --- 631.811.98 <063> Plant stimulants (for artificial promotion of growth without manuring). Plant growth regulators, hormones--Congressen --- Plant stimulants (for artificial promotion of growth without manuring). Plant growth regulators, hormones--Congressen --- 57.017.64 <063> Growth. Development.--Congressen --- Growth. Development.--Congressen --- Plant regulators --- Plant and Crop Sciences. Botany --- Congresses. --- Plant Physiology. --- Phytohormone --- Plant Growth Regulator --- Plant Hormone --- Growth Regulator, Plant --- Hormone, Plant --- Regulator, Plant Growth --- Plant Growth Regulators --- Growth regulators. --- Isoenzymes. --- Mass spectrometry. --- Nucleic acids. --- Abscission --- Aleurones --- Amylases --- Cellulase --- Cytokinins --- Dwarfism --- Ethylene --- Flowering --- Grains --- Inhibitors --- Peroxidases --- Plant growth --- Plant hormones --- Plant membranes --- Ribosomes --- Rooting --- Senescence --- Tissue culture --- Tropisms
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Plant embryology and development --- Plant ecology. Plant sociology --- Angiosperms --- #WPLT:ecol --- Growth (Plants) --- Plants --- Plant physiology --- Primary productivity (Biology) --- Plant Development --- Plant Growth Regulators --- Plant Physiological Phenomena --- Physiology, Plant --- Plant Physiologic Phenomena --- Plant Physiologic Phenomenon --- Plant Physiological Phenomenon --- Plant Physiological Process --- Plant Physiological Processes --- Plant Physiology --- Phenomena, Plant Physiologic --- Phenomena, Plant Physiological --- Phenomenon, Plant Physiologic --- Phenomenon, Plant Physiological --- Phenomenons, Plant Physiological --- Physiologic Phenomena, Plant --- Physiologic Phenomenon, Plant --- Physiological Phenomena, Plant --- Physiological Phenomenon, Plant --- Physiological Phenomenons, Plant --- Physiological Process, Plant --- Physiological Processes, Plant --- Plant Physiological Phenomenons --- Process, Plant Physiological --- Processes, Plant Physiological --- Growth Regulators, Plant --- Regulators, Plant Growth --- Phytohormone --- Phytohormones --- Plant Growth Regulator --- Plant Hormone --- Plant Hormones --- Growth Regulator, Plant --- Hormone, Plant --- Hormones, Plant --- Regulator, Plant Growth --- Plant Morphogenesis --- Development, Plant --- Developments, Plant --- Morphogeneses, Plant --- Morphogenesis, Plant --- Plant Developments --- Plant Morphogeneses --- Primary production (Biology) --- Biological productivity --- Photosynthesis --- Phytoplankton --- Flora --- Plant kingdom --- Plantae --- Vascular plants --- Vegetable kingdom --- Vegetation --- Wildlife --- Organisms --- Botany --- Plant growth --- Growth --- Meristems --- Plant growth-promoting rhizobacteria --- Rejuvenescence (Botany) --- Physiology --- Development --- physiology --- growth & development
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