Efficient engineering of human and mouse primary cells using peptide-assisted genome editing

Z Zhang, AE Baxter, D Ren, K Qin, Z Chen… - Nature …, 2024 - nature.com
Z Zhang, AE Baxter, D Ren, K Qin, Z Chen, SM Collins, H Huang, CA Komar, PF Bailer…
Nature Biotechnology, 2024nature.com
Simple, efficient and well-tolerated delivery of CRISPR genome editing systems into primary
cells remains a major challenge. Here we describe an engineered Peptide-Assisted
Genome Editing (PAGE) CRISPR–Cas system for rapid and robust editing of primary cells
with minimal toxicity. The PAGE system requires only a 30-min incubation with a cell-
penetrating Cas9 or Cas12a and a cell-penetrating endosomal escape peptide to achieve
robust single and multiplex genome editing. Unlike electroporation-based methods, PAGE …
Abstract
Simple, efficient and well-tolerated delivery of CRISPR genome editing systems into primary cells remains a major challenge. Here we describe an engineered Peptide-Assisted Genome Editing (PAGE) CRISPR–Cas system for rapid and robust editing of primary cells with minimal toxicity. The PAGE system requires only a 30-min incubation with a cell-penetrating Cas9 or Cas12a and a cell-penetrating endosomal escape peptide to achieve robust single and multiplex genome editing. Unlike electroporation-based methods, PAGE gene editing has low cellular toxicity and shows no significant transcriptional perturbation. We demonstrate rapid and efficient editing of primary cells, including human and mouse T cells, as well as human hematopoietic progenitor cells, with editing efficiencies upwards of 98%. PAGE provides a broadly generalizable platform for next-generation genome engineering in primary cells.
nature.com
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