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J. Harborne (1964)
Biochemistry of Phenolic Compounds
(1964)
Genetics of Phenolic Compounds, in Biochemistry of Phenolic Compounds
Setsuko Shimada, Kana Takahashi, Yuka Sato, M. Sakuta (2004)
Dihydroflavonol 4-reductase cDNA from non-anthocyanin-producing species in the Caryophyllales.Plant & cell physiology, 45 9
(2004)
Metabolic Channeling in Plants, Annu
(2006)
Molecular Biology and Biotechnology of Flavonoid Biosynthesis, Fla vonoids: Chemistry
R. Scott-Moncrieff (1936)
A biochemical survey of some mendelian factors for flower colourJournal of Genetics, 32
V.V. Arkatov, V.S. Andreev, A.V. Rat’kin (1976)
Genetic Control of Flower Color Formation in Sweet Pea Lathyrus odoratus L.: 1. Characteristics of Anthocyan Pigment in Sweet Pea FlowersGenetika, 12
N. Vetten, Jeroen Horst, Henk‐Peter Schaik, A. Boer, Joseph Mol, R. Koes (1999)
A cytochrome b5 is required for full activity of flavonoid 3', 5'-hydroxylase, a cytochrome P450 involved in the formation of blue flower colors.Proceedings of the National Academy of Sciences of the United States of America, 96 2
Melanie Kaltenbach, G. Schröder, E. Schmelzer, Verena Lutz, J. Schröder (1999)
Flavonoid hydroxylase from Catharanthus roseus: cDNA, heterologous expression, enzyme properties and cell-type specific expression in plants.The Plant journal : for cell and molecular biology, 19 2
JGT. Menting, E. Cornish, R. Scopes (1994)
Purification and Partial Characterization of NADPH-Cytochrome c Reductase from Petunia hybrida Flowers, 106
L. Jaakola, K. Määttä, A. Pirttilä, R. Törrönen, S. Kärenlampi, A. Hohtola (2002)
Expression of Genes Involved in Anthocyanin Biosynthesis in Relation to Anthocyanin, Proanthocyanidin, and Flavonol Levels during Bilberry Fruit Development1Plant Physiology, 130
D. Hess (1968)
Biochemische Genetik
Y. Okinaka, Y. Shimada, R. Nakano-Shimada, M. Ohbayashi, S. Kiyokawa, Y. Kikuchi (2003)
Selective Accumulation of Delphinidin Derivatives in Tobacco Using a Putative Flavonoid 3′,5′-Hydroxylase cDNA from Campanula mediumBioscience, Biotechnology, and Biochemistry, 67
Y. Katsumoto, M. Fukuchi-Mizutani, Y. Fukui, F. Brugliera, T. Holton, M. Karan, N. Nakamura, K. Yonekura-Sakakibara, J. Togami, A. Pigeaire, G. Tao, N. Nehra, Chin-yi Lu, B. Dyson, Shinzo Tsuda, T. Ashikari, T. Kusumi, J. Mason, Yoshikazu Tanaka (2007)
Engineering of the rose flavonoid biosynthetic pathway successfully generated blue-hued flowers accumulating delphinidin.Plant & cell physiology, 48 11
D. Barton, 中西 香爾, O. Meth–Cohn (1999)
Comprehensive natural products chemistry
(1973)
Biologicheskaya statistika (Biological Statistics), Minsk: Vysh
B. Winkel (2004)
Metabolic channeling in plants.Annual review of plant biology, 55
T. Goodwin (1976)
Chemistry and biochemistry of plant pigments
K. Hahlbrock, H. Grisebach (1975)
Biosynthesis of Flavonoids
G. Beale (1941)
Gene relations and synthetic processesJournal of Genetics, 42
S. Hübner, M. Hehmann, Stephan Schreiner, S. Martens, R. Lukačin, U. Matern (2003)
Functional expression of cinnamate 4-hydroxylase from Ammi majus L.Phytochemistry, 64 2
Y. Shimada, R. Nakano-Shimada, M. Ohbayashi, Y. Okinaka, S. Kiyokawa, Y. Kikuchi (1999)
Expression of chimeric P450 genes encoding flavonoid‐3′,5′‐hydroxylase in transgenic tobacco and petunia plants 1FEBS Letters, 461
JGT. Menting, R. Scopes, T. Stevenson (1994)
Characterization of Flavonoid 3[prime],5[prime]-Hydroxylase in Microsomal Membrane Fraction of Petunia hybrida Flowers, 106
Y. Okinaka, Y. Shimada, R. Nakano-Shimada (2003)
Selective Accumulation of Delphinidin Derivatives in Tobacco Using a Putative Flavonoid-3′, 5′-Hydroxylase cDNA from Campanula mediumBoisci. Biotechnol. Biochem., 67
M. Aftab (2011)
Cloning and Expression
(1999)
Biosynthesis of Fla vonoids, Comprehensive Natural Products
T. Holton, F. Brugliera, D. Lester, Yoshikazu Tanaka, C. Hyland, J. Menting, Chin-yi Lu, E. Farcy, T. Stevenson, E. Cornish (1993)
Cloning and expression of cytochrome P450 genes controlling flower colourNature, 366
Sumei Chen, K. Matsubara, T. Omori, H. Kokubun, H. Kodama, Hitoshi Watanabe, G. Hashimoto, E. Marchesi, L. Bullrich, T. Ando (2007)
Phylogenetic analysis of the genus Petunia (Solanaceae) based on the sequence of the Hf1 geneJournal of Plant Research, 120
K. Toda, Daijun Yang, N. Yamanaka, Satoshi Watanabe, K. Harada, R. Takahashi (2002)
A single-base deletion in soybean flavonoid 3′-hydroxylase gene is associated with gray pubescence colorPlant Molecular Biology, 50
Yoshikazu Tanaka, Nobuhiro Sasaki, A. Ohmiya (2008)
Biosynthesis of plant pigments: anthocyanins, betalains and carotenoids.The Plant journal : for cell and molecular biology, 54 4
G. Beale, G. Robinson, R. Robinson, R. Scott-Moncrieff (1939)
Genetics and chemistry of flower colour variation inLathyrus odoratusJournal of Genetics, 37
(1993)
Cloning and Expression of Cytochrome P 450 Genes Control ling Flower Colour
C. Paris, W. Haney, G. Wilson (1960)
A survey of the interactions of genes for flower color., 281
A. Hoshino, Yasumasa Morita, Jeong-Doo Choi, N. Saitǒ, K. Toki, Yoshikazu Tanaka, S. Iida (2003)
Spontaneous mutations of the flavonoid 3'-hydroxylase gene conferring reddish flowers in the three morning glory species.Plant & cell physiology, 44 10
Carla Schoenbohm, S. Martens, C. Eder, G. Forkmann, B. Weisshaar (2000)
Identification of the Arabidopsis thaliana Flavonoid 3'-Hydroxylase Gene and Functional Expression of the Encoded P450 Enzyme, 381
P.F. Rokitskii (1973)
Biologicheskaya statistika
C. Seitz, C. Eder, Bettina Deiml, S. Kellner, S. Martens, G. Forkmann (2006)
Cloning, Functional Identification and Sequence Analysis of Flavonoid 3′-hydroxylase and Flavonoid 3′,5′-hydroxylase cDNAs Reveals Independent Evolution of Flavonoid 3′,5′-hydroxylase in the Asteraceae FamilyPlant Molecular Biology, 61
(1976)
Genetic Control of Flower Color Formation in Sweet Pea Lathyrus odoratus L.: 1. Characteristics of Anthocyan Pigment in Sweet Pea Flowers, Genetika (Moscow)
J.G.T. Menting, R.K. Scopes, T.W. Stevenson (1994)
Characterization of Flavonoid-3′,5′-Hydroxylase in Microsomal Membrane Fraction of Petunia hybrid FlowersPlant Physiol., 106
(1967)
Die Wirkung non Zimtsauren auf die Antho cyansynthese in Isolierten Petalen von Petunia
A. Chriki (1986)
L'hérédité des anthocyanes florales chez Hedysarum coronarium L. , Hedysarum carnosum Desf et Hedysarum capitatum, Asch et Gr.
H. Wiering (1974)
Genetics of flower colour in Petunia hybrida Hort.
J. Harborne (1960)
Flavonoid Pigments of Lathyrus odoratusNature, 187
K. Davies, K. Schwinn, Ø. Andersen, K. Markham (2006)
CH 3 Molecular Biology and Biotechnology of Flavonoid Biosynthesis
K.M. Davies, K.E. Schwinn (2006)
Flavonoids: Chemistry, Biochemistry and Applications
F. Blank (1947)
The anthocyanin pigments of plantsThe Botanical Review, 13
A. Braun (1976)
L’heredite des anthocyanes floralesAnn. Biol., 15
(1960)
Flavonoid Pigments of Lathyrus odora
Inheritance of anthocyanidins in sweet pea flowers was studied. A relationship was revealed between the colour of flowers in plants of mutant lines and the presence of different types of anthocyanidins in petal cells. Forms synthesizing anthocyanidins with a large number of OH groups in the B ring of their structure were found to be dominant with respect to less hydroxylated pigments. The functions of three earlier undescribed nonallelic genes of sweet pea have been identified for the first time. Gene R determines the synthesis of pelargonidin that has one OH group in the B ring. The formation of dihydroxylated cyanidin is controlled by the Sm1 gene. Gene E1 is involved in the biosynthesis of trihydroxylated delphinidin. A scheme of genetic control of anthocyanidin biosynthesis in sweet pea flowers is proposed on the basis of the data obtained. Possible mechanisms of the action of the identified genes are discussed
Russian Journal of Genetics – Springer Journals
Published: Apr 25, 2010
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