We describe the development of a chemical process based on the CuAAC reaction (click chemistry) to ligate DNA strands and produce an unnatural triazole backbone linkage. The chemical reaction is templated by a complementary DNA splint which accelerates the reaction and provides the required specificity. The resultant 1,4-triazole linkage is read through by DNA and RNA polymerases and is biocompatible in bacterial and human cells. This work has implications for the synthesis of chemically modified genes and other large modified DNA and RNA constructs
The biocompatibility of a triazole mimic of the DNA phosphodiester linkage in Escherichia coli has b...
Current gene synthesis methods are driven by enzymatic reactions. Here we report the one-pot synthes...
Triazoles are privileged structural motifs that are embedded in a number of molecules with interesti...
A triazole mimic of a DNA phosphodiester linkage has been produced by templated chemical ligation of...
Biochemical strategies that use a combination of synthetic oligonucleotides, thermostable DNA polyme...
DNA strands containing an unnatural T-triazole-T linkage have been synthesized by click DNA ligation...
DNA strands containing an unnatural T-triazole-T linkage have been synthesized by click DNA ligation...
A DNA strand containing a triazole phosphodiester mimic is an efficient template for in vitro transc...
A novel triazole linkage that mimics the phosphodiester backbone in DNA was designed, synthesised an...
A novel triazole linkage that mimics the phosphodiester backbone in DNA was designed, synthesised an...
The molecular properties of the phosphodiester backbone that made it the evolutionary choice for the...
The chemical synthesis of oligonucleotides and their enzyme-mediated assembly into genes and genomes...
DNA strands containing a triazole linkage flanked on its 3′-side by an aminoethylphenoxazine nucleob...
The ability to synthesise large nucleic acids with site-specific chemical modifications would be inv...
The biocompatibility of a triazole mimic of the DNA phosphodiester linkage in Escherichia coli has b...
The biocompatibility of a triazole mimic of the DNA phosphodiester linkage in Escherichia coli has b...
Current gene synthesis methods are driven by enzymatic reactions. Here we report the one-pot synthes...
Triazoles are privileged structural motifs that are embedded in a number of molecules with interesti...
A triazole mimic of a DNA phosphodiester linkage has been produced by templated chemical ligation of...
Biochemical strategies that use a combination of synthetic oligonucleotides, thermostable DNA polyme...
DNA strands containing an unnatural T-triazole-T linkage have been synthesized by click DNA ligation...
DNA strands containing an unnatural T-triazole-T linkage have been synthesized by click DNA ligation...
A DNA strand containing a triazole phosphodiester mimic is an efficient template for in vitro transc...
A novel triazole linkage that mimics the phosphodiester backbone in DNA was designed, synthesised an...
A novel triazole linkage that mimics the phosphodiester backbone in DNA was designed, synthesised an...
The molecular properties of the phosphodiester backbone that made it the evolutionary choice for the...
The chemical synthesis of oligonucleotides and their enzyme-mediated assembly into genes and genomes...
DNA strands containing a triazole linkage flanked on its 3′-side by an aminoethylphenoxazine nucleob...
The ability to synthesise large nucleic acids with site-specific chemical modifications would be inv...
The biocompatibility of a triazole mimic of the DNA phosphodiester linkage in Escherichia coli has b...
The biocompatibility of a triazole mimic of the DNA phosphodiester linkage in Escherichia coli has b...
Current gene synthesis methods are driven by enzymatic reactions. Here we report the one-pot synthes...
Triazoles are privileged structural motifs that are embedded in a number of molecules with interesti...