Results 191 to 200 of about 25,746 (247)

The Genomic Organization of Retrotransposons in Brassica oleracea

Plant Molecular Biology, 2005
We have investigated the copy numbers and genomic organization of five representative reverse transcriptase domains from retrotransposons in Brassica oleracea. Two non-homologous Pseudoviridae (Ty1/copia-like) elements, two Metaviridae (Ty3/gypsy-like) elements (one related to the Athila family) and one Retroposinae (LINE) element were hybridized to a ...
Karine, Alix, Carol D, Ryder, Jay, Moore, Graham J, King, J S, Pat Heslop-Harrison   +4 more
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Metabolic and Bioactivity Insights into Brassica oleracea var.acephala

Journal of Agricultural and Food Chemistry, 2009
Seeds of Brassica oleracea var. acephala (kale) were analyzed by HPLC/UV-PAD/MSn-ESI. Several phenolic acids and flavonol derivatives were identified. The seeds of this B.
Federico Ferreres, Fatima Fernandes, Carla Sousa   +2 more
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Brassica oleracea and B. napus

2014
With the accelerating advances in genetics and genomics research in Arabidopsis and Brassica, transformation technologies are now routinely being exploited to elucidate gene function as well as contributing to the development of novel enhanced crops. When a researcher's desired goal is simply to modify or introduce candidate genes into a Brassica, the ...
Penny A C Hundleby Née, Sparrow, Judith A, Irwin   +1 more
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The Genetics of Brassica oleracea

2010
Brassica oleracea is one of the most important species of the Brassicaceae family because the species includes some of the most economically important vegetables in the world. Common heading cabbage and cauliflower are the most widely grown crops of this species, but broccoli is also now emerging rapidly as a world vegetable.
Carlos F. Quiros, Mark W. Farnham
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Brassica oleracea.

Methods in molecular biology (Clifton, N.J.), 2006
A better understanding of the genetic basis underlying the genotype dependence of Brassica oleracea transformation is enabling researchers to distinguish between recalcitrant and successful candidate genotypes for routine transformation. In this chapter we outline an A. tumefaciens-mediated transformation method for B.
Penny A C, Sparrow, Philip J, Dale, Judith A, Irwin   +2 more
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Agrobacterium-mediated transformation of Brassica napus and Brassica oleracea

Nature Protocols, 2008
Agrobacterium-mediated transformation is widely used for gene delivery in plants. However, commercial cultivars of crop plants are often recalcitrant to transformation because the protocols established for model varieties are not directly applicable to them. The genus Brassica includes the oil seed crop, canola (B.
Prem L, Bhalla, Mohan B, Singh
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S-HAPLOTYPE POLYMORPHISM IN BRASSICA OLERACEA

Acta Horticulturae, 2001
Self-incompatibility (SI) promotes outcrossing in Brassica species and has been exploited for producing Fl hybrids in cole crops. The SI locus (S-locus) is very polymorphic and cross-compatibility between plants depends on the allelic forms (S-haplotypes) of genes at the S-locus.
Ruffio-Châble, V., Gaude, Thierry
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Evaluation of French Brassica oleracea landraces for resistance to Plasmodiophora brassicae

Euphytica, 2000
A total of 240 kale, 38 cabbage and 126 winter cauliflower French landraces from the B. oleracea genepool of INRA were assessed for resistance to clubroot caused by Plasmodiophora brassicaeWoron. Two French isolates of the pathogen (K and SJ) were used in the experiments under controlled conditions.
Manzanares-Dauleux, Maria, Divaret, I., Baron, Florence, Thomas, G.   +3 more
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Alignment of the conserved C genomes of Brassica oleracea and Brassica napus

Theoretical and Applied Genetics, 1996
A population of 169 microspore-derived doubled-haploid lines was produced from a highly polymorphic Brassica oleracea cross. A dense genetic linkage map of B. oleracea was then developed based on the segregation of 303 RFLP-defined loci. It is hoped that these lines will be used by other geneticists to facilitate the construction of a unified genetic ...
E J, Bohuon, D J, Keith, I A, Parkin, A G, Sharpe, D J, Lydiate   +4 more
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