Nature Communications · 2020 · 39 citations · 42 references
Life SciencesBiotechnologyMolecular BiologyPost-translational ModificationProtein EngineeringSynthetic BiologyPost-translational Modification EngineeringProtein Expression EngineeringProtein SynthesisAmino AcidsChemical ModificationNoncanonical Amino AcidsPeptide ModificationsPost-translational Modification IntegrationPost-translationally Modified PeptidesProtein ModificationsProtein Splicing
Abstract Manipulation of proteins by chemical modification is a powerful way to decipher their function. However, most ribosome-dependent and semi-synthetic methods have limitations in the number and type of modifications that can be introduced, especially in live cells. Here, we present an approach to incorporate single or multiple post-translational modifications or non-canonical amino acids into proteins expressed in eukaryotic cells. We insert synthetic peptides into GFP, Na V 1.5 and P2X2 receptors via tandem protein trans-splicing using two orthogonal split intein pairs and validate our approach by investigating protein function. We anticipate the approach will overcome some drawbacks of existing protein enigineering methods.
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