Rapid Cloning of Genes and Promoters for Functional Analyses
Peer M. Schenk
Abstract
Peer M. Schenk
Abstract
Next-generation sequencing has resulted in a massive flow of new information predicting the existence of many new genes, their putative promoters, as well as long and small noncoding RNA. However, this is currently largely unmatched by functional studies. A cost-effective and high-throughput cloning system for PCR products and synthetic sequences was therefore developed to allow the rapid evaluation of coding and noncoding sequences in functional expression and reporter assays. Unlike traditional cloning approaches that involve subcloning or a special recipient vector and special flanking sequences, this protocol describes a rapid and cost-effective method for the direct insertion into the vector of choice. Restriction enzymes are only needed once to prepare the vector, which is blunt ended and dephosphorylated, and can then serve as the recipient vector for many hundreds of sequences to be tested. Examples are provided of how this method can be used to rapidly reveal functionality of regulatory genes, promoters, and microRNAs.
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Next-generation sequencing has resulted in a massive flow of new information predicting the existence of many new genes, their putative promoters, as well as long and small noncoding RNA. However, this is currently largely unmatched by functional studies. A cost-effective and high-throughput cloning system for PCR products and synthetic sequences was therefore developed to allow the rapid evaluation of coding and noncoding sequences in functional expression and reporter assays. Unlike traditional cloning approaches that involve subcloning or a special recipient vector and special flanking sequences, this protocol describes a rapid and cost-effective method for the direct insertion into the vector of choice. Restriction enzymes are only needed once to prepare the vector, which is blunt ended and dephosphorylated, and can then serve as the recipient vector for many hundreds of sequences to be tested. Examples are provided of how this method can be used to rapidly reveal functionality of regulatory genes, promoters, and microRNAs.
Key concepts: Subcloning, Promoter, Cloning (programming), Biology, Computational biology, Gene, Genetics, Vector (molecular biology)