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Transgenic rapidly kills mosquitoes in a malaria-endemic region of Burkina Faso.转基因技术迅速杀死布基纳法索疟疾流行地区的蚊子。
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Gene drives as a new quality in GMO releases-a comparative technology characterization.基因驱动作为转基因生物释放中的一种新特性——一项比较技术特征分析。
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Super-Mendelian inheritance mediated by CRISPR-Cas9 in the female mouse germline.CRISPR-Cas9 介导的雌性小鼠生殖系中超孟德尔遗传。
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从欧盟转基因生物法规的角度来看,基因驱动生物体的时空可控性和环境风险评估。

Spatiotemporal Controllability and Environmental Risk Assessment of Genetically Engineered Gene Drive Organisms from the Perspective of European Union Genetically Modified Organism Regulation.

机构信息

Testbiotech e.V., Institute for Independent Impact Assessment of Biotechnology, Munich, Germany.

Fachstelle Gentechnik und Umwelt, Munich, Germany.

出版信息

Integr Environ Assess Manag. 2020 Sep;16(5):555-568. doi: 10.1002/ieam.4278. Epub 2020 May 27.

DOI:10.1002/ieam.4278
PMID:32250054
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC7496464/
Abstract

Gene drive organisms are a recent development created by using methods of genetic engineering; they inherit genetic constructs that are passed on to future generations with a higher probability than with Mendelian inheritance. There are some specific challenges inherent to the environmental risk assessment (ERA) of genetically engineered (GE) gene drive organisms because subsequent generations of these GE organisms might show effects that were not observed or intended in the former generations. Unintended effects can emerge from interaction of the gene drive construct with the heterogeneous genetic background of natural populations and/or be triggered by changing environmental conditions. This is especially relevant in the case of gene drives with invasive characteristics and typically takes dozens of generations to render the desired effect. Under these circumstances, "next generation effects" can substantially increase the spatial and temporal complexity associated with a high level of uncertainty in ERA. To deal with these problems, we suggest the introduction of a new additional step in the ERA of GE gene drive organisms that takes 3 criteria into account: the biology of the target organisms, their naturally occurring interactions with the environment (biotic and abiotic), and their intended biological characteristics introduced by genetic engineering. These 3 criteria are merged to form an additional step in ERA, combining specific "knowns" and integrating areas of "known unknowns" and uncertainties, with the aim of assessing the spatiotemporal controllability of GE gene drive organisms. The establishment of assessing spatiotemporal controllability can be used to define so-called "cut-off criteria" in the risk analysis of GE gene drive organisms: If it is likely that GE gene drive organisms escape spatiotemporal controllability, the risk assessment cannot be sufficiently reliable because it is not conclusive. Under such circumstances, the environmental release of the GE gene drive organisms would not be compatible with the precautionary principle (PP). Integr Environ Assess Manag 2020;16:555-568. © 2020 The Authors. Integrated Environmental Assessment and Management published by Wiley Periodicals, Inc. on behalf of Society of Environmental Toxicology & Chemistry (SETAC).

摘要

基因驱动生物是利用基因工程方法创造的一种新的生物类型;它们继承了遗传结构,这些遗传结构以比孟德尔遗传更高的概率传递给后代。由于这些经过基因工程改造的基因驱动生物的后代可能会表现出在前几代中没有观察到或预期的影响,因此对其进行遗传工程基因驱动生物的环境风险评估(ERA)存在一些特定的挑战。这些意想不到的影响可能来自基因驱动结构与自然种群异质遗传背景的相互作用,或者是由环境条件的变化触发的。对于具有入侵特性的基因驱动生物来说,这一点尤其重要,通常需要几十代的时间才能达到预期的效果。在这种情况下,“下一代效应”会极大地增加与高不确定性相关的 ERA 的空间和时间复杂性。为了解决这些问题,我们建议在遗传工程基因驱动生物的 ERA 中引入一个新的附加步骤,该步骤考虑了 3 个标准:目标生物的生物学特性、它们与环境的自然相互作用(生物和非生物)以及遗传工程引入的它们预期的生物学特性。这 3 个标准合并形成 ERA 的一个附加步骤,将特定的“已知”和整合“已知未知”和不确定性领域结合起来,旨在评估遗传工程基因驱动生物的时空可控性。评估时空可控性的建立可用于确定遗传工程基因驱动生物风险分析中的所谓“截止标准”:如果遗传工程基因驱动生物很可能逃脱时空可控性,那么风险评估就不可能足够可靠,因为它没有结论。在这种情况下,释放遗传工程基因驱动生物将不符合预防原则(PP)。《综合环境评估与管理》2020 年 16 卷 555-568 页。©2020 作者。综合环境评估与管理由 Wiley 期刊出版公司代表环境毒理学与化学学会(SETAC)出版。