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豆科植物根瘤的发育生物学

Developmental biology of legume nodulation.

作者信息

Hirsch Ann M

机构信息

Department of Biology, University of California-Los Angeles, Los Angeles, CA 90024-1606, USA.

出版信息

New Phytol. 1992 Oct;122(2):211-237. doi: 10.1111/j.1469-8137.1992.tb04227.x.

DOI:10.1111/j.1469-8137.1992.tb04227.x
PMID:33873995
Abstract

Many legumes respond to Rhizobium inoculation by developing unique structures known as nodules on their roots. The development of a legume nodule in which rhizobia convert atmospheric N into ammonia is a finely tuned process. Gene expression from both partners of the symbiosis must be temporally and spatially coordinated. Exactly how this coordination takes place is an area of intense study. Nodule morphogenesis appears to be elicited by at least two distinct signals: one from Rhizobium, a product of the nod genes (Nod factor), and a second signal, which is generated within plant tissues after treatment with Nod factor. The identity of the second signal is unknown but changes in the balance of endogenous plant hormones or the sensitivity of plant tissues to these hormones are likely to be involved. These hormonal changes may be triggered by endogenous flavonoids produced by the root in response to inoculation with Rhizobium. There is some controversy as to whether the legume nodule is an organ sui generis or a highly derived lateral root. A resolution of this question may become more critical as attempts to induce nodules on non-legume hosts, such as rice or maize, increase in number and scope. CONTENTS Summary 211 I. Introduction 211 II. Nodule development 213 III. Nodule initiation 220 IV. The second signal for nodule morphogenesis: role for the plant hormones ? 225 V. Lateral root development 229 VI. Are nodules modified lateral roots ? 229 VII. Conclusions and future prospects 231 Acknowledgements and dedication 232 References 232.

摘要

许多豆科植物通过在其根部形成称为根瘤的独特结构来响应根瘤菌接种。根瘤菌将大气中的氮转化为氨的豆科植物根瘤的发育是一个精细调节的过程。共生双方的基因表达必须在时间和空间上进行协调。这种协调究竟是如何发生的是一个深入研究的领域。根瘤形态发生似乎是由至少两种不同的信号引发的:一种来自根瘤菌,是nod基因的产物(结瘤因子),另一种信号是在用结瘤因子处理后在植物组织内产生的。第二种信号的身份尚不清楚,但可能涉及植物内源激素平衡的变化或植物组织对这些激素的敏感性变化。这些激素变化可能是由根响应根瘤菌接种产生的内源黄酮类化合物触发的。关于豆科植物根瘤是一种独特的器官还是高度衍生的侧根存在一些争议。随着在非豆科宿主(如水稻或玉米)上诱导根瘤的尝试在数量和范围上增加,解决这个问题可能变得更加关键。目录摘要211 一、引言211 二、根瘤发育213 三、根瘤起始220 四、根瘤形态发生的第二种信号:植物激素的作用?225 五、侧根发育229 六、根瘤是修饰的侧根吗?229 七、结论与未来展望231 致谢与献辞232 参考文献232

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