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植物中的丝裂原活化蛋白激酶信号转导途径。

MAP kinase signal transduction pathways in plants.

作者信息

Morris Peter C

机构信息

Heriot-Watt University, Department of Biological Sciences, Riccarton, Edinburgh, EH14 4AS.

出版信息

New Phytol. 2001 Jul;151(1):67-89. doi: 10.1046/j.1469-8137.2001.00167.x.

DOI:10.1046/j.1469-8137.2001.00167.x
PMID:33873387
Abstract

The mitogen-activated protein kinase (MAP kinase) signal transduction cascades are routes through which eukaryotic cells deliver extracellular messages to the cytosol and nucleus. These signalling pathways direct cell division, cellular differentiation, metabolism, and both biotic and abiotic stress responses. In plants, MAP kinases and the upstream components of the cascades are represented by multigene families, organized into different pathways which are stimulated and interact in complex ways. Experimental strategies for the analysis of MAP kinase cascades include the yeast two-hybrid system; using this approach in vitro interactions between specific MAP kinase cascade components have been analysed and putative plant cascades postulated. Transient transformation of protoplasts with epitope-tagged kinases has allowed cascades to be tested in planta. There is clear evidence for the involvement of MAP kinases in plant cell division and in the regulation of auxin signalling. Biotic (pathogens and pathogen-derived elicitors from fungi, bacteria and viruses) and abiotic stresses including wounding, mechanical stimulation, cold, drought and ozone can elicit defence responses in plants through MAP kinase pathways. There are data suggesting that ABA signalling utilizes a MAP kinase pathway, and probably ethylene and perhaps cytokinins do so also. The objective of this paper is to review this rapidly advancing field. Contents Summary 67 I. Introduction 68 II. Background 68 III. MAP kinase targets and targeting specificity 69 IV. Assays and inhibitors 70 V. Two well characterized MAP kinase pathways, Hog1 and Sevenless 71 VI. MAP kinases in plants 73 VII. MAP kinases and cell division 76 VIII. MAP kinases and plant hormones 76 IX. MAP kinase and abiotic stress 78 X. MAP kinase and biotic stress 80 XI. Future perspectives for MAP kinase research in plants 83 Acknowledgements 84 References 84.

摘要

丝裂原活化蛋白激酶(MAP激酶)信号转导级联是真核细胞将细胞外信息传递至细胞质和细胞核的途径。这些信号通路指导细胞分裂、细胞分化、新陈代谢以及生物和非生物胁迫反应。在植物中,MAP激酶及其级联的上游组分由多基因家族代表,这些家族被组织成不同的途径,它们以复杂的方式被激活并相互作用。分析MAP激酶级联的实验策略包括酵母双杂交系统;利用这种方法,已经分析了特定MAP激酶级联组分之间的体外相互作用,并推测了植物级联。用表位标签激酶对原生质体进行瞬时转化,使得能够在植物中测试级联。有明确证据表明MAP激酶参与植物细胞分裂和生长素信号传导的调节。生物胁迫(来自真菌、细菌和病毒的病原体及病原体衍生的激发子)和非生物胁迫,包括创伤、机械刺激、寒冷、干旱和臭氧,可通过MAP激酶途径引发植物的防御反应。有数据表明脱落酸信号传导利用MAP激酶途径,乙烯可能也是如此,细胞分裂素或许也是。本文的目的是综述这个快速发展的领域。内容摘要67 一、引言68 二、背景68 三、MAP激酶靶点和靶向特异性69 四、检测方法和抑制剂70 五、两条特征明确的MAP激酶途径,Hog1和Sevenless 71 六、植物中的MAP激酶73 七、MAP激酶与细胞分裂76 八、MAP激酶与植物激素76 九、MAP激酶与非生物胁迫78 十、MAP激酶与生物胁迫80 十一、植物MAP激酶研究的未来展望83 致谢8

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