High-efficiency nonviral CRISPR/Cas9-mediated gene editing of human T cells using plasmid donor DNA.
Soyoung A OhKate SengerShravan MadireddiIlseyar AkhmetzyanovaIsabel E IshizukaSomayeh TarighatJerry H LoDavid ShawBenjamin HaleySascha RutzPublished in: The Journal of experimental medicine (2022)
Genome engineering of T lymphocytes, the main effectors of antitumor adaptive immune responses, has the potential to uncover unique insights into their functions and enable the development of next-generation adoptive T cell therapies. Viral gene delivery into T cells, which is currently used to generate CAR T cells, has limitations in regard to targeting precision, cargo flexibility, and reagent production. Nonviral methods for effective CRISPR/Cas9-mediated gene knock-out in primary human T cells have been developed, but complementary techniques for nonviral gene knock-in can be cumbersome and inefficient. Here, we report a convenient and scalable nonviral method that allows precise gene edits and transgene integration in primary human T cells, using plasmid donor DNA template and Cas9-RNP. This method is highly efficient for single and multiplex gene manipulation, without compromising T cell function, and is thus valuable for use in basic and translational research.
Keyphrases
- crispr cas
- genome editing
- endothelial cells
- genome wide
- highly efficient
- copy number
- immune response
- escherichia coli
- induced pluripotent stem cells
- high efficiency
- pluripotent stem cells
- circulating tumor
- single molecule
- cell free
- dna methylation
- gene expression
- sars cov
- stem cells
- cell therapy
- cancer therapy
- risk assessment
- climate change
- high resolution
- genome wide analysis
- liquid chromatography