Agrobacterium tumefaciens as a molecular tool for the study of fungal pathogens.
C. M. McClelland, Brian L. Wickes
Abstract
C. M. McClelland, Brian L. Wickes
Abstract
This paper discusses the genetic mechanisms of Agrobacterium tumefaciens [Rhizobium radiobacter]-mediated transformation (AMT); the AMT of fungi, describing the genetic tools and factors (Agrobacterium host strain, starting material, co-cultivation condition) influencing fungal AMT; and the application of AMT in fungal mutagenesis (targeted and insertional). AMT has proved to be an important tool for the transformation of a diverse number of yeasts and fungi. The lack of a need for special equipment, the simplicity of transformation protocols and the variety of starting materials that can be transformed make AMT a preferable alternative to other more laborious and time-consuming transformation protocols. The success of a large-scale functional genomics study using AMT in Magnaporthe oryzae indicates that this method may be particularly useful as a method for high-throughput functionality studies for many of the more than 30 species of fungi that have been sequenced. AMT can be used to mediate targeted-gene disruption in several medically and agriculturally important species that are recalcitrant to other transformation techniques.
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This paper discusses the genetic mechanisms of Agrobacterium tumefaciens [Rhizobium radiobacter]-mediated transformation (AMT); the AMT of fungi, describing the genetic tools and factors (Agrobacterium host strain, starting material, co-cultivation condition) influencing fungal AMT; and the application of AMT in fungal mutagenesis (targeted and insertional). AMT has proved to be an important tool for the transformation of a diverse number of yeasts and fungi. The lack of a need for special equipment, the simplicity of transformation protocols and the variety of starting materials that can be transformed make AMT a preferable alternative to other more laborious and time-consuming transformation protocols. The success of a large-scale functional genomics study using AMT in Magnaporthe oryzae indicates that this method may be particularly useful as a method for high-throughput functionality studies for many of the more than 30 species of fungi that have been sequenced. AMT can be used to mediate targeted-gene disruption in several medically and agriculturally important species that are recalcitrant to other transformation techniques.
Key concepts: Transformation (genetics), Agrobacterium, Biology, Insertional mutagenesis, Agrobacterium tumefaciens, Computational biology, Functional genomics, Biotechnology