Isolation and identification of Triticeae chromosome 1 receptor-like kinase genes (Lrk10) from diploid, tetraploid, and hexaploid species of the genus Avena

The DNA sequence of an extracellular (EXC) domain of an oat (Avena sativa L.) receptor-like kinase (ALrk10) gene was amplified from 23 accessions of 15 Avena species (6 diploid, 6 tetraploid, and 3 hexaploid). Primers were designed from one partial oat ALrk10 clone that had been used to map the gene...

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Veröffentlicht in:Genome 2003-02, Vol.46 (1), p.119-127
Hauptverfasser: Cheng, D.W, Armstrong, K.C, Drouin, G, McElroy, A, Fedak, G, Molnar, S.D
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container_issue 1
container_start_page 119
container_title Genome
container_volume 46
creator Cheng, D.W
Armstrong, K.C
Drouin, G
McElroy, A
Fedak, G
Molnar, S.D
description The DNA sequence of an extracellular (EXC) domain of an oat (Avena sativa L.) receptor-like kinase (ALrk10) gene was amplified from 23 accessions of 15 Avena species (6 diploid, 6 tetraploid, and 3 hexaploid). Primers were designed from one partial oat ALrk10 clone that had been used to map the gene in hexaploid oat to linkage groups syntenic to Triticeae chromosome 1 and 3. Cluster (phylogenetic) analyses showed that all of the oat DNA sequences amplified with these primers are orthologous to the wheat and barley sequences that are located on chromosome 1 of the Triticeae species. Triticeae chromosome 3 Lrk10 sequences were not amplified using these primers. Cluster analyses provided evidence for multiple copies at a locus. The analysis divided the ALrk EXC sequences into two groups, one of which included AA and AABB genome species and the other CC, AACC, and CCCC genome species. Both groups of sequences were found in hexaploid AACCDD genome species, but not in all accessions. The C genome group was divided into 3 subgroups: (i) the CC diploids and the perennial autotetraploid, Avena macrostachya (this supports other evidence for the presence of the C in this autotetraploid species); (ii) a sequence from Avena maroccana andAvena murphyi and several sequences from different accessions of A.sativa; and (iii) A. murphyi and sequences from A. sativa andAvena sterilis. This suggests a possible polyphyletic origin for A. sativa from the AACC progenitor tetraploids or an origin from a progenitor of the AACC tetraploids. The sequences of the A genome group were not as clearly divided into subgroups. Although a group of sequences from the accession 'SunII' and a sequence from line Pg3, are clearly different from the others, the A genome diploid sequences were interspersed with tetraploid and hexaploid sequences.Key words: phylogeny, genome evolution, speciation, oat.
doi_str_mv 10.1139/g02-111
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Primers were designed from one partial oat ALrk10 clone that had been used to map the gene in hexaploid oat to linkage groups syntenic to Triticeae chromosome 1 and 3. Cluster (phylogenetic) analyses showed that all of the oat DNA sequences amplified with these primers are orthologous to the wheat and barley sequences that are located on chromosome 1 of the Triticeae species. Triticeae chromosome 3 Lrk10 sequences were not amplified using these primers. Cluster analyses provided evidence for multiple copies at a locus. The analysis divided the ALrk EXC sequences into two groups, one of which included AA and AABB genome species and the other CC, AACC, and CCCC genome species. Both groups of sequences were found in hexaploid AACCDD genome species, but not in all accessions. The C genome group was divided into 3 subgroups: (i) the CC diploids and the perennial autotetraploid, Avena macrostachya (this supports other evidence for the presence of the C in this autotetraploid species); (ii) a sequence from Avena maroccana andAvena murphyi and several sequences from different accessions of A.sativa; and (iii) A. murphyi and sequences from A. sativa andAvena sterilis. This suggests a possible polyphyletic origin for A. sativa from the AACC progenitor tetraploids or an origin from a progenitor of the AACC tetraploids. The sequences of the A genome group were not as clearly divided into subgroups. Although a group of sequences from the accession 'SunII' and a sequence from line Pg3, are clearly different from the others, the A genome diploid sequences were interspersed with tetraploid and hexaploid sequences.Key words: phylogeny, genome evolution, speciation, oat.</abstract><cop>Ottawa, Canada</cop><pub>NRC Research Press</pub><pmid>12669804</pmid><doi>10.1139/g02-111</doi><tpages>9</tpages></addata></record>
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subjects Avena (Poaceae)
Avena - enzymology
Avena - genetics
Avena sativa
Barley
Deoxyribonucleic acid
Diploidy
DNA
DNA Primers
Flowers & plants
genes
Genetics
genomics
hexaploidy
Hordeum - genetics
molecular sequence data
nucleotide sequences
Oats
Oryza - genetics
Phylogeny
Plant Proteins
Polyploidy
protein kinases
Protein Structure, Tertiary
Protein-Serine-Threonine Kinases - genetics
receptors
sequence alignment
Sequence Analysis, DNA
speciation
tetraploidy
Triticum - genetics
Wheat
title Isolation and identification of Triticeae chromosome 1 receptor-like kinase genes (Lrk10) from diploid, tetraploid, and hexaploid species of the genus Avena
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