第一个调节基因表达的非编码RNA micF RNA的发现和表征:一个历史的视角。

N. Delihas
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引用次数: 27

摘要

RNA可以作为基因表达调节器的第一个证据来自20世纪80年代对原核生物的实验。结果表明,大肠杆菌micF是一个独立的基因,有自己的启动子,并编码一个小的非编码RNA,该RNA与目标信使RNA碱基对并抑制其在环境胁迫条件下的翻译。micF RNA被分离、测序并被证明是一个初级转录物。体外实验显示与目标ompF mRNA结合。二级结构探测发现micF RNA/ompF RNA双工相互作用不完善,存在非规范碱基对。一些转录因子,包括OmpR,调节micF转录以响应环境因素。micF也被发现存在于其他细菌物种中,但最近Gerhart Wagner和Jörg Vogel发现micF具有多效性,并发现micF抑制多个目标mrna的表达;重要的是,其中一个是全球调控基因lrp。此外,发现micF RNA以不同的方式与其靶标相互作用;它要么抑制核糖体结合,要么诱导信息降解。因此,RNA可以调节基因表达的概念和初步实验证据伴随着原核生物而诞生。
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Discovery and characterization of the first non-coding RNA that regulates gene expression, micF RNA: A historical perspective.
The first evidence that RNA can function as a regulator of gene expression came from experiments with prokaryotes in the 1980s. It was shown that Escherichia coli micF is an independent gene, has its own promoter, and encodes a small non-coding RNA that base pairs with and inhibits translation of a target messenger RNA in response to environmental stress conditions. The micF RNA was isolated, sequenced and shown to be a primary transcript. In vitro experiments showed binding to the target ompF mRNA. Secondary structure probing revealed an imperfect micF RNA/ompF RNA duplex interaction and the presence of a non-canonical base pair. Several transcription factors, including OmpR, regulate micF transcription in response to environmental factors. micF has also been found in other bacterial species, however, recently Gerhart Wagner and Jörg Vogel showed pleiotropic effects and found micF inhibits expression of multiple target mRNAs; importantly, one is the global regulatory gene lrp. In addition, micF RNA was found to interact with its targets in different ways; it either inhibits ribosome binding or induces degradation of the message. Thus the concept and initial experimental evidence that RNA can regulate gene expression was born with prokaryotes.
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