Nature Communications · 2024 · 40 citations · 69 references
Life SciencesBiochemistryMolecular BiologyProtein EngineeringStructural BiologySynthetic BiologyIntrinsically Disordered ProteinsProtein DesignProtein Expression EngineeringProtein StructureProtein SynthesisRecombinant Protein ExpressionDisordered ProteinsEscherichia ColiFusion Protein DesignGene Library SynthesisInclusion Body FormationProtein SolubilizationRecombinant Fusion ProteinsSolubility Engineering
We report the de novo design of small (<20 kDa) and highly soluble synthetic intrinsically disordered proteins (SynIDPs) that confer solubility to a fusion partner with minimal effect on the activity of the fused protein. To identify highly soluble SynIDPs, we create a pooled gene-library utilizing a one-pot gene synthesis technology to create a large library of repetitive genes that encode SynIDPs. We identify three small (<20 kDa) and highly soluble SynIDPs from this gene library that lack secondary structure and have high solvation. Recombinant fusion of these SynIDPs to three known inclusion body forming proteins rescue their soluble expression and do not impede the activity of the fusion partner, thereby eliminating the need for removal of the SynIDP tag. These findings highlight the utility of SynIDPs as solubility tags, as they promote the soluble expression of proteins in E. coli and are small, unstructured proteins that minimally interfere with the biological activity of the fused protein.
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