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1. Full Text Sugar demand, not auxin, is the initial regulator of apical dominance
by Michael G. Mason and John J. Ross and Benjamin A. Babst and Brittany N. Wienclaw and Christine A. Beveridge
Proceedings of the National Academy of Sciences of the United States of America, ISSN 0027-8424, 4/2014, Volume 111, Issue 16, pp. 6092 - 6097
For almost a century the plant hormone auxin has been central to theories on apical dominance, whereby the growing shoot tip suppresses the growth of the... 
Leaves | Plant growth | Plant growth regulators | Leaf buds | Auxins | Decapitation | Plants | Apical dominance | Hormones | Sugars | Sink demand | Girdling | Long-distance signaling | Shoot branching | shoot branching | MULTIDISCIPLINARY SCIENCES | girdling | BUD OUTGROWTH | PLANT DEVELOPMENT | STRIGOLACTONE | PEA | TRANSPORT | INHIBITION | BIOSYNTHESIS | sink demand | GROWTH | long-distance signaling | AXILLARY BUDS | ARABIDOPSIS | decapitation | Carbon - metabolism | Plant Shoots - growth & development | Carbohydrates - pharmacology | Peas - growth & development | Plant Shoots - radiation effects | Peas - drug effects | Sucrose - pharmacology | Flowers - radiation effects | Plant Leaves - radiation effects | Peas - radiation effects | Signal Transduction - drug effects | Indoleacetic Acids - pharmacology | Models, Biological | Light | Plant Shoots - drug effects | Flowers - drug effects | Flowers - physiology | Plant Leaves - drug effects | Plant Proteins - metabolism | Signal Transduction - radiation effects | Plant Leaves - physiology | Botanical research | Health aspects | Sugar | Index Medicus | Biological Sciences
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2. Full Text Ultraviolet-B Radiation Effects on Water Relations, Leaf Development, and Photosynthesis in Droughted Pea Plants
by Salvador Nogués and Damian J. Allen and James I. L. Morison and Neil R. Baker
Plant Physiology, ISSN 0032-0889, 5/1998, Volume 117, Issue 1, pp. 173 - 181
The effects of ultraviolet-B (UV-B) radiation on water relations, leaf development, and gas-exchange characteristics in pea (Pisum sativum L. cv Meteor) plants... 
Leaves | Mesophyll cells | Peas | Epidermal cells | Irradiation | Plants | Whole Plant, Environmental, and Stress Physiology | Drought | Leaf area | Photosynthesis | Plant cells | CO2 ASSIMILATION | HYPOCOTYL ELONGATION | LEAVES | PHOTOSYSTEM-II | FIELD CONDITIONS | STRESS | RIBULOSE 1,5-BISPHOSPHATE CARBOXYLASE | INCREASED UV-B | MESSENGER-RNA LEVELS | PISUM-SATIVUM | PLANT SCIENCES
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3. Full Text Strigolactones Suppress Adventitious Rooting in Arabidopsis and Pea
by Amanda Rasmussen and Michael Glenn Mason and Carolien De Cuyper and Philip B. Brewer and Silvia Herold and Javier Agusti and Danny Geelen and Thomas Greb and Sofie Goormachtig and Tom Beeckman and Christine Anne Beveridge
Plant Physiology, ISSN 0032-0889, 4/2012, Volume 158, Issue 4, pp. 1976 - 1987
Adventitious root formation is essential for the propagation of many commercially important plant species and involves the formation of roots from nonroot... 
Branching | DEVELOPMENT AND HORMONE ACTION | Cytokinins | Hypocotyls | Peas | Plant roots | Auxins | Plant cuttings | Adventitious roots | Plants | Rooting | AUXIN TRANSPORT | LEAF SENESCENCE | PLANT | STEM CUTTINGS | CYTOKININ CONTENT | MATURATION-RELATED LOSS | POSITIVE REGULATOR | SECONDARY GROWTH | SHOOT | ZEATIN RIBOSIDE | PLANT SCIENCES | Arabidopsis - growth & development | Plant Roots - genetics | Xylem - drug effects | Cytokinins - pharmacology | Xylem - radiation effects | Lactones - pharmacology | Plant Roots - drug effects | Arabidopsis Proteins - metabolism | Arabidopsis - radiation effects | Xylem - metabolism | Light | Plant Roots - growth & development | Arabidopsis Proteins - genetics | Arabidopsis - drug effects | Peas - growth & development | Hypocotyl - growth & development | Peas - drug effects | Hypocotyl - radiation effects | Mutation - genetics | Peas - radiation effects | Arabidopsis - genetics | Indoleacetic Acids - pharmacology | Models, Biological | Hypocotyl - drug effects | Peas - genetics | Plant Roots - radiation effects | Plant physiology | Arabidopsis | Physiological aspects | Roots (Botany) | Research | Lactones
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4. Full Text Proton cellular influx as a probable mechanism of variation potential influence on photosynthesis in pea
by SUKHOV, VLADIMIR and SHERSTNEVA, OKSANA and SUROVA, LYUBOV and KATICHEVA, LYUBOV and VODENEEV, VLADIMIR
Plant, Cell & Environment, ISSN 0140-7791, 11/2014, Volume 37, Issue 11, pp. 2532 - 2541
Electrical signals (action potential and variation potential, VP) caused by environmental stimuli are known to induce various physiological responses in... 
changes in pH | Pisum sativum | H+ influx | influx | Changes in pH | MIMOSA-PUDICA | SEEDLINGS | INDUCTION | ELECTRICAL SIGNALS | PLANT SCIENCES | RESPONSES | STROMAL PH | TRANSMISSION | CHLOROPLAST ENVELOPE | PROPAGATION | REQUIREMENT | Photosynthesis - radiation effects | Protons | Carbon Dioxide - metabolism | Cytoplasm - radiation effects | Electric Stimulation | Plant Cells - metabolism | Peas - physiology | Plant Cells - radiation effects | Cell Respiration - radiation effects | Cytoplasm - metabolism | Plant Leaves - radiation effects | Hot Temperature | Peas - cytology | Peas - radiation effects | Action Potentials - physiology | Plant Leaves - metabolism | Models, Biological | Light | Cell Respiration - physiology | Photosynthesis - physiology | Action Potentials - radiation effects | Hydrogen-Ion Concentration | Physiological aspects | Peas | Erythromycin | Photosynthesis | Phytochemistry
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5. Full Text Mechanisms of photoprotection and nonphotochemical quenching in pea light-harvesting complex at 2.5 resolution
by Kühlbrandt, Werner and Standfuss, Jörg and Lamborghini, Matteo and Terwisscha van Scheltinga, Anke C
The EMBO Journal, ISSN 0261-4189, 03/2005, Volume 24, Issue 5, pp. 919 - 928
The plant light‐harvesting complex of photosystem II (LHC‐II) collects and transmits solar energy for photosynthesis in chloroplast membranes and has essential... 
crystal structure | energy transfer | membrane protein | light harvesting | photosynthesis | Membrane protein | Photosynthesis | Light harvesting | Energy transfer | Crystal structure | Light-Harvesting Protein Complexes - metabolism | Models, Molecular | Crystallography, X-Ray | Lipid Metabolism | Photobiology | Static Electricity | Peas - radiation effects | Chlorophyll - chemistry | Carotenoids - radiation effects | Lipids - chemistry | Models, Biological | Plant Proteins - chemistry | Carotenoids - metabolism | Protein Structure, Quaternary | Plant Proteins - radiation effects | Plant Proteins - metabolism | Carotenoids - chemistry | Binding Sites | Peas - chemistry | Peas - metabolism | Light-Harvesting Protein Complexes - chemistry | Light-Harvesting Protein Complexes - radiation effects | Photochemistry
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6. Full Text Epidermal UV‐A absorbance and whole‐leaf flavonoid composition in pea respond more to solar blue light than to solar UV radiation
by SIIPOLA, SARI M and KOTILAINEN, TITTA and SIPARI, NINA and MORALES, LUIS O and LINDFORS, ANDERS V and ROBSON, T. MATTHEW and APHALO, PEDRO J
Plant, Cell & Environment, ISSN 0140-7791, 05/2015, Volume 38, Issue 5, pp. 941 - 952
Plants synthesize phenolic compounds in response to certain environmental signals or stresses. One large group of phenolics, flavonoids, is considered... 
phenolic compounds | quercetin | solar radiation | growth | kaempferol | Phenolic compounds | Solar radiation | Growth | Kaempferol | Quercetin | WILD-TYPE | ARABIDOPSIS-THALIANA | CHLOROPHYLL FLUORESCENCE | SYNTHASE GENE-EXPRESSION | PHOTOMORPHOGENIC RESPONSES | PLANT SCIENCES | SIGNAL-TRANSDUCTION | OZONE DEPLETION | ABSORBING COMPOUNDS | HIGHER-PLANTS | ULTRAVIOLET-B RADIATION | Ultraviolet Rays | Plant Leaves - metabolism | Peas - growth & development | Flavonoids - metabolism | Color | Plant Leaves - radiation effects | Phenols - metabolism | Plant Epidermis - radiation effects | Plant Epidermis - metabolism | Peas - metabolism | Peas - radiation effects | Peas | Analysis | Germination | Radiation | Physiological aspects | Plants | Isoflavones
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7. Full Text Light-regulated transcriptional networks in higher plants
by Jiao, Yuling and Deng, Xing Wang and Lau, On Sun
Nature Reviews Genetics, ISSN 1471-0056, 03/2007, Volume 8, Issue 3, pp. 217 - 230
Plants have evolved complex and sophisticated transcriptional networks that mediate developmental changes in response to light. These light- regulated... 
PEA PLASTOCYANIN GENE | LOOP-HELIX PROTEIN | ARABIDOPSIS CIRCADIAN CLOCK | PLAY ESSENTIAL ROLES | A-SIGNALING COMPONENT | GENETICS & HEREDITY | GENOME-WIDE ANALYSIS | SEEDLING DE-ETIOLATION | PHYTOCHROME INTERACTING FACTOR-3 | SHADE-AVOIDANCE-RESPONSE | DNA-BINDING ACTIVITY | Plant Proteins - genetics | Gene Expression Regulation, Plant - radiation effects | Transcription, Genetic - physiology | Plants - genetics | Gene Expression Regulation, Plant - physiology | Light | Transcription, Genetic - radiation effects | Transcription Factors - genetics | Plant Physiological Phenomena - radiation effects | Environmental aspects | Influence | Photoreceptors | Plants | Research | Photomorphogenesis
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8. Full Text Blue light-promoted rice leaf bending and unrolling are due to up-regulated brassinosteroid biosynthesis genes accompanied by accumulation of castasterone
by Asahina, Masashi and Tamaki, Yuji and Sakamoto, Tomoaki and Shibata, Kyomi and Nomura, Takahito and Yokota, Takao
Phytochemistry, ISSN 0031-9422, 08/2014, Volume 104, pp. 21 - 29
Blue light up-regulates mRNA levels of several cytochrome P450 enzymes including CYP85A1, thereby promoting the synthesis of castasterone, which, in turn,... 
Oryza sativa | Poaceae | Brassinosteroid biosynthesis | Blue light | Rice lamina bending and unrolling | Cytochrome P450 | CYTOCHROME-P450 | ARABIDOPSIS-THALIANA | LAMINA INCLINATION | HORMONAL-CONTROL | BIOCHEMISTRY & MOLECULAR BIOLOGY | LEAVES | PEA | PLANT SCIENCES | SIGNAL-TRANSDUCTION | ELONGATION | DE-ETIOLATION | PLANT-GROWTH | Up-Regulation | Cytochrome P-450 Enzyme System - radiation effects | Cytochrome P-450 Enzyme System - metabolism | Plant Roots - genetics | Seedlings - genetics | Brassinosteroids - chemistry | Phloem - radiation effects | Oryza - radiation effects | Plant Roots - physiology | Cholestanols - radiation effects | Cholestanols - chemistry | Oryza - genetics | Time Factors | Brassinosteroids - metabolism | Light | Phloem - genetics | Plant Proteins - radiation effects | Cholestanols - metabolism | Plant Proteins - metabolism | Phloem - physiology | Genes, Reporter | Gene Expression Regulation, Plant - radiation effects | Brassinosteroids - radiation effects | Oryza - physiology | Plant Leaves - radiation effects | Organ Specificity | Plant Proteins - genetics | Phenotype | Plant Leaves - genetics | Seedlings - physiology | Cytochrome P-450 Enzyme System - genetics | Seedlings - radiation effects | Plant Leaves - physiology | Plant Roots - radiation effects | Physiological aspects | RNA | Genes | Steroids
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9. Full Text Importance of ROS and antioxidant system during the beneficial interactions of mitochondrial metabolism with photosynthetic carbon assimilation
by Challabathula Dinakar and Vishwakarma Abhaypratap and Srinivasa Rao Yearla and Agepati S. Raghavendra and Kollipara Padmasree
Planta, ISSN 0032-0935, 1/2010, Volume 231, Issue 2, pp. 461 - 474
The present study suggests the importance of reactive oxygen species (ROS) and antioxidant metabolites as biochemical signals during the beneficial... 
Antioxidants | Enzymes | Reactive oxygen species | Mitochondria | Mesophyll | Chloroplasts | Protoplasts | Plants | Photosynthesis | Electrons | Life Sciences | Forestry | Cytochrome oxidase | Ecology | Agriculture | Alternative oxidase | Plant Sciences | Pea | ASCORBATE-GLUTATHIONE CYCLE | CYTOCHROME PATHWAY | OXIDATIVE-METABOLISM | PLANT SCIENCES | REACTIVE OXYGEN | MESOPHYLL PROTOPLASTS | HYDROGEN-PEROXIDE | SUPEROXIDE-DISMUTASE | ELECTRON-TRANSPORT | PLANT-MITOCHONDRIA | Electron Transport - drug effects | Reactive Oxygen Species - metabolism | Electron Transport - radiation effects | Antioxidants - metabolism | Protoplasts - enzymology | Protoplasts - cytology | Antimycin A - pharmacology | Protoplasts - radiation effects | Light | Chloroplasts - radiation effects | Mitochondria - radiation effects | Plant Leaves - drug effects | Chloroplasts - drug effects | Photosynthesis - radiation effects | Carbon - metabolism | Peas - enzymology | Peas - drug effects | Mitochondria - metabolism | Plant Leaves - radiation effects | Mitochondria - drug effects | Protoplasts - drug effects | Chloroplasts - metabolism | Peas - radiation effects | Plant Leaves - cytology | Microscopy, Confocal | Plant Leaves - metabolism | Photosynthesis - drug effects | Salicylamides - pharmacology | Metabolites | Phytochemistry | Physiological aspects | Peroxidase | Superoxide
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10. Full Text The Effects of Stress on Plant Cuticular Waxes
by Tom Shepherd and D. Wynne Griffiths
The New Phytologist, ISSN 0028-646X, 1/2006, Volume 171, Issue 3, pp. 469 - 499
Plants are subject to a wide range of abiotic stresses, and their cuticular wax layer provides a protective barrier, which consists predominantly of long-chain... 
Epicuticular wax | Plant cuticle | Animal cuticle | Tansley Reviews | Corn | Alkanes | Waxes | Plants | Dehydration | Fatty acids | Alcohols | cuticular wax | morphology | composition | biosynthesis | abiotic stress | Composition | Biosynthesis | Cuticular wax | Abiotic stress | Morphology | ABIES L KARST | CRYPTOMERIA-JAPONICA LEAVES | LEAF EPICUTICULAR WAX | PEA PISUM-SATIVUM | ACETYL-COA CARBOXYLASE | PRUNUS-LAUROCERASUS L | PLANT SCIENCES | MODERATELY ENHANCED LEVELS | OPEN-TOP CHAMBERS | SIMULATED ACID-RAIN | IN-VITRO RECONSTITUTION | Plant Leaves - chemistry | Temperature | Humidity | Water - metabolism | Plant Epidermis - cytology | Waxes - metabolism | Plant Leaves - radiation effects | Plant Epidermis - metabolism | Waxes - chemistry | Plant Leaves - cytology | Waxes - radiation effects
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