Efficient size-independent chromosome delivery from yeast to cultured cell lines
Author(s) -
David Brown,
Yujia A. Chan,
Prashant Desai,
Peter Grzesik,
Lauren M. Oldfield,
Sanjay Vashee,
Jeffrey C. Way,
Pamela A. Silver,
John I. Glass
Publication year - 2016
Publication title -
nucleic acids research
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 9.008
H-Index - 537
eISSN - 1362-4954
pISSN - 0305-1048
DOI - 10.1093/nar/gkw1252
Subject(s) - biology , plasmid , yeast , mitosis , cell culture , genome , dna , vector (molecular biology) , chromosome , shuttle vector , genetics , genome engineering , microbiology and biotechnology , yeast artificial chromosome , recombinant dna , genome editing , gene , gene mapping
The delivery of large DNA vectors (>100 000 bp) remains a limiting step in the engineering of mammalian cells and the development of human artificial chromosomes (HACs). Yeast is commonly used to assemble genetic constructs in the megabase size range, and has previously been used to transfer constructs directly into cultured cells. We improved this method to efficiently deliver large (1.1 Mb) synthetic yeast centromeric plasmids (YCps) to cultured cell lines at rates similar to that of 12 kb YCps. Synchronizing cells in mitosis improved the delivery efficiency by 10-fold and a statistical design of experiments approach was employed to boost the vector delivery rate by nearly 300-fold from 1/250 000 to 1/840 cells, and subsequently optimize the delivery process for multiple mammalian, avian, and insect cell lines. We adapted this method to rapidly deliver a 152 kb herpes simplex virus 1 genome cloned in yeast into mammalian cells to produce infectious virus.
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