With the development of deep sequencing methodologies, it has become important to construct site saturation mutant (SSM) libraries in which every nucleotide/codon in a gene is individually randomized. We describe methodologies for the rapid, efficient, and economical construction of such libraries using inverse polymerase chain reaction (PCR). We show that if the degenerate codon is in the middle of the mutagenic primer, there is an inherent PCR bias due to the thermodynamic mismatch penalty, which decreases the proportion of unique mutants. Introducing a nucleotide bias in the primer can alleviate the problem. Alternatively, if the degenerate codon is placed at the 5′ end, there is no PCR bias, which results in a higher proportion of uniqu...
Contains fulltext : 171086.PDF (publisher's version ) (Open Access)Site-directed m...
Site-directed mutagenesis is widely used to study protein and nucleic acid structure and function. D...
DNA polymerases are involved in all DNA synthesis occurring in nature. Furthermore, DNA polymerases ...
With the development of deep sequencing methodologies, it has become important to construct site sat...
Site-saturation mutagenesis (SSM) has been used in directed evolution of proteins for a long time. A...
We have developed a new primer design method based on the QuickChangeTM site-directed mutagen-esis p...
Inverse PCR is a powerful tool for the rapid introduction of desired mutations at desired positions ...
Site-specific mutagenesis at one or multiple sites has recently become an invaluable strategy in fun...
We have developed a novel three-primer, one-step PCR-based method for site-directed mutagenesis. Thi...
Inverse polymerase chain reaction mutagenesis (IPCRM) has proven to be a rapid and convenient method...
We have developed a new primer design method based on the QuickChange™ site-directed mutagenesis pro...
<p>PCR reactions are shown for two separate gene tiles containing single mutations (orange and green...
Saturation mutagenesis probes define sections of the vast protein sequence space. However, even if r...
Polymerase chain reaction (PCR) is widely accepted as one of the most powerful tools in molecular bi...
Abstract Background Polymerase chain reaction (PCR) is used in directed sequencing for the discovery...
Contains fulltext : 171086.PDF (publisher's version ) (Open Access)Site-directed m...
Site-directed mutagenesis is widely used to study protein and nucleic acid structure and function. D...
DNA polymerases are involved in all DNA synthesis occurring in nature. Furthermore, DNA polymerases ...
With the development of deep sequencing methodologies, it has become important to construct site sat...
Site-saturation mutagenesis (SSM) has been used in directed evolution of proteins for a long time. A...
We have developed a new primer design method based on the QuickChangeTM site-directed mutagen-esis p...
Inverse PCR is a powerful tool for the rapid introduction of desired mutations at desired positions ...
Site-specific mutagenesis at one or multiple sites has recently become an invaluable strategy in fun...
We have developed a novel three-primer, one-step PCR-based method for site-directed mutagenesis. Thi...
Inverse polymerase chain reaction mutagenesis (IPCRM) has proven to be a rapid and convenient method...
We have developed a new primer design method based on the QuickChange™ site-directed mutagenesis pro...
<p>PCR reactions are shown for two separate gene tiles containing single mutations (orange and green...
Saturation mutagenesis probes define sections of the vast protein sequence space. However, even if r...
Polymerase chain reaction (PCR) is widely accepted as one of the most powerful tools in molecular bi...
Abstract Background Polymerase chain reaction (PCR) is used in directed sequencing for the discovery...
Contains fulltext : 171086.PDF (publisher's version ) (Open Access)Site-directed m...
Site-directed mutagenesis is widely used to study protein and nucleic acid structure and function. D...
DNA polymerases are involved in all DNA synthesis occurring in nature. Furthermore, DNA polymerases ...