Results 201 to 210 of about 2,208 (243)
BrCER1 intron mutation causing a wax deficient phenotype in Chinese cabbage. [PDF]
Zhang L +7 more
europepmc +1 more source
Exploring the sheen: a review of research advances on fruit glossiness. [PDF]
Dong S +8 more
europepmc +1 more source
The effects of stress on plant cuticular waxes [PDF]
SummaryPlants are subject to a wide range of abiotic stresses, and their cuticular wax layer provides a protective barrier, which consists predominantly of long‐chain hydrocarbon compounds, including alkanes, primary alcohols, aldehydes, secondary alcohols, ketones, esters and other derived compounds.
Tom, Shepherd, D, Wynne Griffiths
exaly +3 more sources
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Planta, 1980
n-Alkanes, esters, aldehydes, free alcohols, β-diketones and hydroxy-β-diketones were found to be the lipid components of the cuticular waxes of common wheat Chinese Spring (Triticum aestivum L.). The ditelosomic lines 7A-L and 7D-S showed a dramatic decrease in the amount of β-diketones and hydroxy β-diketones which are reduced to traces.
G, Bianchi +3 more
openaire +2 more sources
n-Alkanes, esters, aldehydes, free alcohols, β-diketones and hydroxy-β-diketones were found to be the lipid components of the cuticular waxes of common wheat Chinese Spring (Triticum aestivum L.). The ditelosomic lines 7A-L and 7D-S showed a dramatic decrease in the amount of β-diketones and hydroxy β-diketones which are reduced to traces.
G, Bianchi +3 more
openaire +2 more sources
Biosynthesis and secretion of plant cuticular wax
Progress in Lipid Research, 2003The cuticle covers the aerial portions of land plants. It consists of amorphous intracuticular wax embedded in cutin polymer, and epicuticular wax crystalloids that coat the outer plant surface and impart a whitish appearance. Cuticular wax is mainly composed of long-chain aliphatic compounds derived from very long chain fatty acids.
L, Kunst, A L, Samuels
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Cuticular wax of Epilachna varivestis
Insect Biochemistry, 1984Abstract Cuticular lipids of larvae, pupae and adults of the Mexican bean beetle (Epilachna varivestis) have been examined using gravimetric and thin layer densitometric techniques. The effects of rearing on different hostplants and of rearing temperature on lipid composition were studied.
David A. Danehower, Jon Bordner
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Cuticular waxes on eceriferum mutants of Arabidopsis thaliana
Phytochemistry, 2001We present cuticular wax chemical profiles for the leaves and stems of Arabidopsis wildtype Landsberg erecta and eleven isogenic eceriferum mutants: cer5, cer10 to cer15, and cer17 to cer20. These cer mutants have wax profiles that are different from those of wildtype in chemical chain length distribution, amount per chemical class, and/or total wax ...
A M, Rashotte, M A, Jenks, K A, Feldmann
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In situ assembly of cuticular wax
Planta, 1976Cytochemical reactions within the primary cuticle (cutinised layer) indicate that the lamellae are formed from polar lipids. The electron microscope shows that the lamellae are involved in wax formation and it is suggested that the polar lipids provide in situ precursors for the synthesis of cuticular wax.
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Epicuticular Wax and Cuticular Resistance in Rice
Physiologia Plantarum, 1979AbstractHigh leaf cuticular resistance has been reported as a component adaptation of plants to drought prone regions, Experiments were conducted to evaluate and characterize the role of epicuticular wax as a component of cuticular resistance to water vapor loss from rice (Oryza sativa L.) leaves.
J. C. O'TOOLE, R. T. CRUZ, J. N. SEIBER
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The chemical composition of the cuticular wax of cranberry
Phytochemistry, 1971Abstract Cuticular wax of cranberry fruit (Vaccinium macrocarpon var. Howes) was analysed by thin layer and gas-liquid chromatography in conjunction with mass spectrometry and infrared spectroscopy. The wax was shown to contain n-paraffins (10·7%), n-aldehydes (14·3%), n-alcohols (6·5%), n-fatty acids (9·7%), sterols (5·0%) and pentacyclic triterpene
R. Croteau, I.S. Fagerson
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