系统发育树
运输机
拟南芥
生物
基因家族
反转运蛋白
膜转运蛋白
基因
蛋白质家族
主要促进者超家族
遗传学
ATP结合盒运输机
反转运蛋白
转运蛋白
系统发育学
基因组
生物化学
突变体
膜
作者
Pascal Mäser,Sébastien Thomine,Julian I. Schroeder,John M. Ward,Kendal D. Hirschi,Heven Sze,Ina N. Talke,Anna Amtmann,Frans J. M. Maathuis,Dale Sanders,Jeff Harper,Jason Tchieu,Michael Gribskov,Michael W. Persans,David E. Salt,Sun A. Kim,Mary Lou Guerinot
出处
期刊:Plant Physiology
[Oxford University Press]
日期:2001-08-01
卷期号:126 (4): 1646-1667
被引量:1222
标识
DOI:10.1104/pp.126.4.1646
摘要
Abstract Uptake and translocation of cationic nutrients play essential roles in physiological processes including plant growth, nutrition, signal transduction, and development. Approximately 5% of the Arabidopsis genome appears to encode membrane transport proteins. These proteins are classified in 46 unique families containing approximately 880 members. In addition, several hundred putative transporters have not yet been assigned to families. In this paper, we have analyzed the phylogenetic relationships of over 150 cation transport proteins. This analysis has focused on cation transporter gene families for which initial characterizations have been achieved for individual members, including potassium transporters and channels, sodium transporters, calcium antiporters, cyclic nucleotide-gated channels, cation diffusion facilitator proteins, natural resistance-associated macrophage proteins (NRAMP), and Zn-regulated transporter Fe-regulated transporter-like proteins. Phylogenetic trees of each family define the evolutionary relationships of the members to each other. These families contain numerous members, indicating diverse functions in vivo. Closely related isoforms and separate subfamilies exist within many of these gene families, indicating possible redundancies and specialized functions. To facilitate their further study, the PlantsT database (http://plantst.sdsc.edu) has been created that includes alignments of the analyzed cation transporters and their chromosomal locations.
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