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犰狳基因座的分子分析:均匀分布的转录本和具有新型内部重复序列的蛋白质与果蝇体节极性基因相关。

Molecular analysis of the armadillo locus: uniformly distributed transcripts and a protein with novel internal repeats are associated with a Drosophila segment polarity gene.

作者信息

Riggleman B, Wieschaus E, Schedl P

机构信息

Department of Biology, Princeton University, New Jersey 08544.

出版信息

Genes Dev. 1989 Jan;3(1):96-113. doi: 10.1101/gad.3.1.96.

DOI:10.1101/gad.3.1.96
PMID:2707602
Abstract

During Drosophila embryogenesis, the segment polarity genes are required for the formation of specific pattern domains within each segment. Mutations in the armadillo (arm) gene primarily affect the posterior part of the segment and lead to the production of anterior structures within this region. To examine the molecular basis for these effects, we have cloned the arm region and identified the gene by germ-line transformation. The arm gene produces two types of very abundant 3.2-kb transcripts that differ only in their first exons. These RNAs appear to be formed by independent transcriptional initiation but have similar patterns of expression throughout development. Both arm transcripts are present in virtually all of the cell types contained in embryos, third-instar larvae, and adult ovaries, suggesting that arm may be required in all cells. In addition, the arm transcripts are uniformly distributed in embryonic segments, so the regional pattern defects associated with its embryonic phenotype may result from interactions between arm and other localized factors. Both arm RNAs encode the same 91-kD polypeptide. This protein has no probable secretory or membrane-spanning regions and contains a series of novel internal repeats that are conserved in sequence, length, and spacing. Considering these results and previous genetic observations, we discuss potential roles for the arm gene in pattern formation processes.

摘要

在果蝇胚胎发育过程中,体节极性基因对于每个体节内特定模式域的形成是必需的。犰狳(arm)基因的突变主要影响体节的后部,并导致该区域内产生前部结构。为了研究这些效应的分子基础,我们克隆了arm区域并通过种系转化鉴定了该基因。arm基因产生两种非常丰富的3.2 kb转录本,它们仅在第一个外显子上有所不同。这些RNA似乎是由独立的转录起始形成的,但在整个发育过程中具有相似的表达模式。两种arm转录本几乎存在于胚胎、三龄幼虫和成年卵巢中的所有细胞类型中,这表明arm可能在所有细胞中都是必需的。此外,arm转录本在胚胎体节中均匀分布,因此与其胚胎表型相关的区域模式缺陷可能是由于arm与其他局部因子之间的相互作用所致。两种arm RNA都编码相同的91-kD多肽。该蛋白没有可能的分泌或跨膜区域,并且包含一系列在序列、长度和间距上保守的新型内部重复序列。考虑到这些结果和先前的遗传学观察,我们讨论了arm基因在模式形成过程中的潜在作用。

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