Gene silencing or gene editing: the pros and cons.

H. Jones
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引用次数: 1

Abstract

Abstract Research into plant genetics often requires the suppression or complete knockout of gene expression to scientifically validate gene function. In addition, the phenotypes obtained from gene suppression can occasionally have commercial value for plant breeders. Until recently, the methodological choices to achieve these goals fell into two broad types: either some form of RNA-based gene silencing; or the screening of large numbers of natural or induced random genomic mutations. The more recent invention of gene editing as a tool for targeted mutation potentially gives researchers and plant breeders another route to block gene function. RNAi is widely used in animal and plant research and functions to silence gene expression by degrading the target gene transcript. Although RNAi offers unique advantages over genomic mutations, it often leads to the formation of a genetically modified organism (GMO), which for commercial activities has major regulatory and acceptance issues in some regions of the world. Traditional methods of generating genomic mutations are more laborious and uncertain to achieve the desired goals but possess a distinct advantage of not being governed by GMO regulations. Gene editing (GE) technologies have some of the advantages of both RNAi and classical mutation breeding in that they can be designed to give simple knockouts or to modulate gene expression more subtly. GE also has a more complex regulatory position, with some countries treating it as another conventional breeding method whilst the EU defines GE as a technique of genetic modification and applies the normal GMO authorization procedures. This chapter explores the pros and cons of RNAi alongside other methods of modulating gene function.
基因沉默或基因编辑:利弊。
摘要植物遗传学研究往往需要抑制或完全敲除基因表达,以科学地验证基因功能。此外,通过基因抑制获得的表型有时对植物育种家具有商业价值。直到最近,实现这些目标的方法选择分为两大类:要么是某种形式的基于rna的基因沉默;或筛选大量的自然或诱导随机基因组突变。最近发明的基因编辑作为靶向突变的工具,可能为研究人员和植物育种者提供了另一条阻断基因功能的途径。RNAi广泛应用于动物和植物研究,其功能是通过降解靶基因转录物来沉默基因表达。尽管RNAi比基因组突变具有独特的优势,但它经常导致转基因生物(GMO)的形成,这对于商业活动在世界一些地区具有重大的监管和接受问题。产生基因组突变的传统方法在实现预期目标方面更加费力和不确定,但具有不受转基因生物法规约束的明显优势。基因编辑(GE)技术具有RNAi和经典突变育种的一些优点,因为它们可以被设计成简单的敲除或更微妙地调节基因表达。通用电气的监管地位也更为复杂,一些国家将其视为另一种传统的育种方法,而欧盟将其定义为一种转基因技术,并适用正常的转基因生物授权程序。本章探讨了RNAi与其他调节基因功能的方法的优缺点。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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