Innovative modularization of One Pot PURE system for commercial unnatural amino acid incorporation

Background

The integration of non-canonical amino acids into proteins holds immense promise for various industries, from biomedicine to biotechnology. However, traditional methods face challenges like high costs and batch variability. The One Pot PURE system, a streamlined version of cell-free protein synthesis, addresses these issues, offering precise protein production capabilities.

Technology overview

Researchers at The University of Texas at Austin in the Ellington Lab extend the One Pot PURE system’s utility by enabling the efficient incorporation of unnatural amino acids at specific sites within proteins. Through the intro­duction of orthog­onal aminoacyl tRNA synthetases and the suppression of stop codons, they have developed a modular platform for customizing protein sequences with unparalleled precision.

Benefits

  • Versatile peptide and protein design capabilities
  • Reduced production costs and batch-to-batch variability
  • Accelerated prototyping and testing of novel protein functionalities
  • Controlled site-specific modifications for tailored applications
  • Potential for scalable production in commercial settings

Commercial applications

  • Biomedical: Customized therapeutic proteins for targeted treatments
  • Biotechnology: Engineered enzymes with enhanced properties for industrial processes
  • Pharmaceuticals: Expedited drug discovery pipelines through tailored protein synthesis
  • Bioengineering: Creation of novel biomaterials and biosensors for diverse applications
  • Academic research: Accessible platform for protein engineering and synthetic biology studies

Opportunity

The innovative adaptation of the One Pot PURE system presents a significant commercial opportunity in the protein synthesis market. By offering a cost-effective, scalable, and customizable solution for unnatural amino acid incorporation, this technology is poised to drive advancements across multiple industries. Its ease of use and versatility make it an attractive option for both academic research and commercial ventures, paving the way for transformative developments in biotechnology and beyond. The University of Texas at Austin is seeking a commercial partner to license this technology.