Loss of the mitochondrial cox2 intron 1 in a family of monocotyledonous plants and utilization of mitochondrial intron sequences for the construction of a nuclear intron

被引:0
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作者
J. Kudla
F. Albertazzi
D. Blazević
M. Hermann
R. Bock
机构
[1] Molekulare Botanik,
[2] Universität Ulm,undefined
[3] Albert-Einstein-Allee 11,undefined
[4] 89069 Ulm,undefined
[5] Germany,undefined
[6] Institut für Biologie III,undefined
[7] Universität Freiburg,undefined
[8] Schänzlestrasse 1,undefined
[9] 79104 Freiburg,undefined
[10] Germany,undefined
[11] Westfälische Wilhelms-Universität Münster,undefined
[12] Institut für Biochemie und Biotechnologie der Pflanzen,undefined
[13] Hindenburgplatz 55,undefined
[14] 48143 Münster,undefined
[15] Germany,undefined
[16] Present address: Centro de Investigacion en Biologia Celular y Molecular,undefined
[17] Universidad de Costa Rica,undefined
[18] San Jose,undefined
[19] Costa Rica,undefined
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关键词
cox2 Ruscaceae Intron Splicing Evolution Gene transfer;
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摘要
The intron content of plant organellar genes is a useful marker in molecular systematics and evolution. We have tested representatives of a wide range of monocotyledonous plant families for the presence of an intron (cox2 intron 1) in one of the most conservative mitochondrial genes, the cox2 locus. Almost all species analyzed were found to harbor a group II intron at a phylogenetically conserved position. The only exceptions were members of a single monocot family, the Ruscaceae: representatives of all genera in this family were found to lack cox2 intron 1, but instead harbor an intron in the 3′ portion of the cox2 coding region (cox2 intron 2). The presence of cox2 intron 1 in families of monocotyledonous plants that are closely related to the Ruscaceae suggests that loss of the intron is specific to this family and may have accompanied the evolutionary appearance of the Ruscaceae. Interestingly, sequences that are highly homologous to cox2 intron 2 are found in a nuclear intron in a lineage of monocotyledonous plants, suggesting that the originally mitochondrial group II intron sequence was transferred to the nuclear genome and reused there to build a spliceosomal intron.
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页码:223 / 230
页数:7
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