The University of Texas Graduate School of Biomedical Sciences at Houston, The University of Texas MD Anderson Cancer Center, Houston, TX 77030, United States.
Fungal Genet Biol. 2013 Sep-Oct;58-59:1-9. doi: 10.1016/j.fgb.2013.07.002. Epub 2013 Jul 16.
Fungal species are continuously being studied to not only understand disease in humans and plants but also to identify novel antibiotics and other metabolites of industrial importance. Genetic manipulations, such as gene deletion, gene complementation, and gene over-expression, are common techniques to investigate fungal gene functions. Although advances in transformation efficiency and promoter usage have improved genetic studies, some basic steps in vector construction are still laborious and time-consuming. Gateway cloning technology solves this problem by increasing the efficiency of vector construction through the use of λ phage integrase proteins and att recombination sites. We developed a series of Gateway-compatible vectors for use in genetic studies in a range of fungal species. They contain nutritional and drug-resistance markers and can be utilized to manipulate different filamentous fungal genomes.
真菌物种不断被研究,不仅为了了解人类和植物的疾病,也为了鉴定新型抗生素和其他具有工业重要性的代谢产物。遗传操作,如基因缺失、基因互补和基因过表达,是研究真菌基因功能的常用技术。尽管转化效率和启动子使用方面的进展提高了遗传研究的效率,但载体构建的一些基本步骤仍然繁琐且耗时。Gateway 克隆技术通过使用 λ 噬菌体整合酶蛋白和 att 重组位点来提高载体构建的效率,从而解决了这个问题。我们开发了一系列适用于多种真菌物种遗传研究的 Gateway 兼容载体。它们包含营养和耐药标记物,可用于操纵不同丝状真菌基因组。