Use of the CRISPR/Cas9 system to produce genetically engineered pigs from in vitro-derived oocytes and embryos. 2014

Kristin M Whitworth, and Kiho Lee, and Joshua A Benne, and Benjamin P Beaton, and Lee D Spate, and Stephanie L Murphy, and Melissa S Samuel, and Jiude Mao, and Chad O'Gorman, and Eric M Walters, and Clifton N Murphy, and John Driver, and Alan Mileham, and David McLaren, and Kevin D Wells, and Randall S Prather
Division of Animal Science, University of Missouri-Columbia, Columbia, Missouri.

Targeted modification of the pig genome can be challenging. Recent applications of the CRISPR/Cas9 system hold promise for improving the efficacy of genome editing. When a designed CRISPR/Cas9 system targeting CD163 or CD1D was introduced into somatic cells, it was highly efficient in inducing mutations. When these mutated cells were used with somatic cell nuclear transfer, offspring with these modifications were created. When the CRISPR/Cas9 system was delivered into in vitro produced presumptive porcine zygotes, the system was effective in creating mutations in eGFP, CD163, and CD1D (100% targeting efficiency in blastocyst stage embryos); however, it also presented some embryo toxicity. We could also induce deletions in CD163 or CD1D by introducing two types of CRISPRs with Cas9. The system could also disrupt two genes, CD163 and eGFP, simultaneously when two CRISPRs targeting two genes with Cas9 were delivered into zygotes. Direct injection of CRISPR/Cas9 targeting CD163 or CD1D into zygotes resulted in piglets that have mutations on both alleles with only one CD1D pig having a mosaic genotype. We show here that the CRISPR/Cas9 system can be used by two methods. The system can be used to modify somatic cells followed by somatic cell nuclear transfer. System components can also be used in in vitro produced zygotes to generate pigs with specific genetic modifications.

UI MeSH Term Description Entries
D008297 Male Males
D009154 Mutation Any detectable and heritable change in the genetic material that causes a change in the GENOTYPE and which is transmitted to daughter cells and to succeeding generations. Mutations
D009865 Oocytes Female germ cells derived from OOGONIA and termed OOCYTES when they enter MEIOSIS. The primary oocytes begin meiosis but are arrested at the diplotene state until OVULATION at PUBERTY to give rise to haploid secondary oocytes or ova (OVUM). Ovocytes,Oocyte,Ovocyte
D011956 Receptors, Cell Surface Cell surface proteins that bind signalling molecules external to the cell with high affinity and convert this extracellular event into one or more intracellular signals that alter the behavior of the target cell (From Alberts, Molecular Biology of the Cell, 2nd ed, pp693-5). Cell surface receptors, unlike enzymes, do not chemically alter their ligands. Cell Surface Receptor,Cell Surface Receptors,Hormone Receptors, Cell Surface,Receptors, Endogenous Substances,Cell Surface Hormone Receptors,Endogenous Substances Receptors,Receptor, Cell Surface,Surface Receptor, Cell
D001755 Blastocyst A post-MORULA preimplantation mammalian embryo that develops from a 32-cell stage into a fluid-filled hollow ball of over a hundred cells. A blastocyst has two distinctive tissues. The outer layer of trophoblasts gives rise to extra-embryonic tissues. The inner cell mass gives rise to the embryonic disc and eventual embryo proper. Embryo, Preimplantation,Blastocysts,Embryos, Preimplantation,Preimplantation Embryo,Preimplantation Embryos
D002460 Cell Line Established cell cultures that have the potential to propagate indefinitely. Cell Lines,Line, Cell,Lines, Cell
D004622 Embryo, Mammalian The entity of a developing mammal (MAMMALS), generally from the cleavage of a ZYGOTE to the end of embryonic differentiation of basic structures. For the human embryo, this represents the first two months of intrauterine development preceding the stages of the FETUS. Embryonic Structures, Mammalian,Mammalian Embryo,Mammalian Embryo Structures,Mammalian Embryonic Structures,Embryo Structure, Mammalian,Embryo Structures, Mammalian,Embryonic Structure, Mammalian,Embryos, Mammalian,Mammalian Embryo Structure,Mammalian Embryonic Structure,Mammalian Embryos,Structure, Mammalian Embryo,Structure, Mammalian Embryonic,Structures, Mammalian Embryo,Structures, Mammalian Embryonic
D004624 Embryo Transfer The transfer of mammalian embryos from an in vivo or in vitro environment to a suitable host to improve pregnancy or gestational outcome in human or animal. In human fertility treatment programs, preimplantation embryos ranging from the 4-cell stage to the blastocyst stage are transferred to the uterine cavity between 3-5 days after FERTILIZATION IN VITRO. Blastocyst Transfer,Tubal Embryo Transfer,Tubal Embryo Stage Transfer,Embryo Transfers,Transfer, Embryo,Transfers, Embryo
D005260 Female Females
D005307 Fertilization in Vitro An assisted reproductive technique that includes the direct handling and manipulation of oocytes and sperm to achieve fertilization in vitro. Test-Tube Fertilization,Fertilizations in Vitro,In Vitro Fertilization,Test-Tube Babies,Babies, Test-Tube,Baby, Test-Tube,Fertilization, Test-Tube,Fertilizations, Test-Tube,In Vitro Fertilizations,Test Tube Babies,Test Tube Fertilization,Test-Tube Baby,Test-Tube Fertilizations

Related Publications

Kristin M Whitworth, and Kiho Lee, and Joshua A Benne, and Benjamin P Beaton, and Lee D Spate, and Stephanie L Murphy, and Melissa S Samuel, and Jiude Mao, and Chad O'Gorman, and Eric M Walters, and Clifton N Murphy, and John Driver, and Alan Mileham, and David McLaren, and Kevin D Wells, and Randall S Prather
February 2024, Theriogenology,
Kristin M Whitworth, and Kiho Lee, and Joshua A Benne, and Benjamin P Beaton, and Lee D Spate, and Stephanie L Murphy, and Melissa S Samuel, and Jiude Mao, and Chad O'Gorman, and Eric M Walters, and Clifton N Murphy, and John Driver, and Alan Mileham, and David McLaren, and Kevin D Wells, and Randall S Prather
January 2023, Animals : an open access journal from MDPI,
Kristin M Whitworth, and Kiho Lee, and Joshua A Benne, and Benjamin P Beaton, and Lee D Spate, and Stephanie L Murphy, and Melissa S Samuel, and Jiude Mao, and Chad O'Gorman, and Eric M Walters, and Clifton N Murphy, and John Driver, and Alan Mileham, and David McLaren, and Kevin D Wells, and Randall S Prather
January 2023, Methods in molecular biology (Clifton, N.J.),
Kristin M Whitworth, and Kiho Lee, and Joshua A Benne, and Benjamin P Beaton, and Lee D Spate, and Stephanie L Murphy, and Melissa S Samuel, and Jiude Mao, and Chad O'Gorman, and Eric M Walters, and Clifton N Murphy, and John Driver, and Alan Mileham, and David McLaren, and Kevin D Wells, and Randall S Prather
February 2021, Animals : an open access journal from MDPI,
Kristin M Whitworth, and Kiho Lee, and Joshua A Benne, and Benjamin P Beaton, and Lee D Spate, and Stephanie L Murphy, and Melissa S Samuel, and Jiude Mao, and Chad O'Gorman, and Eric M Walters, and Clifton N Murphy, and John Driver, and Alan Mileham, and David McLaren, and Kevin D Wells, and Randall S Prather
October 2023, Journal of translational medicine,
Kristin M Whitworth, and Kiho Lee, and Joshua A Benne, and Benjamin P Beaton, and Lee D Spate, and Stephanie L Murphy, and Melissa S Samuel, and Jiude Mao, and Chad O'Gorman, and Eric M Walters, and Clifton N Murphy, and John Driver, and Alan Mileham, and David McLaren, and Kevin D Wells, and Randall S Prather
September 2014, Biology of reproduction,
Kristin M Whitworth, and Kiho Lee, and Joshua A Benne, and Benjamin P Beaton, and Lee D Spate, and Stephanie L Murphy, and Melissa S Samuel, and Jiude Mao, and Chad O'Gorman, and Eric M Walters, and Clifton N Murphy, and John Driver, and Alan Mileham, and David McLaren, and Kevin D Wells, and Randall S Prather
November 2018, Cellular and molecular biology (Noisy-le-Grand, France),
Kristin M Whitworth, and Kiho Lee, and Joshua A Benne, and Benjamin P Beaton, and Lee D Spate, and Stephanie L Murphy, and Melissa S Samuel, and Jiude Mao, and Chad O'Gorman, and Eric M Walters, and Clifton N Murphy, and John Driver, and Alan Mileham, and David McLaren, and Kevin D Wells, and Randall S Prather
August 2004, Biology of reproduction,
Kristin M Whitworth, and Kiho Lee, and Joshua A Benne, and Benjamin P Beaton, and Lee D Spate, and Stephanie L Murphy, and Melissa S Samuel, and Jiude Mao, and Chad O'Gorman, and Eric M Walters, and Clifton N Murphy, and John Driver, and Alan Mileham, and David McLaren, and Kevin D Wells, and Randall S Prather
January 2019, Methods in molecular biology (Clifton, N.J.),
Kristin M Whitworth, and Kiho Lee, and Joshua A Benne, and Benjamin P Beaton, and Lee D Spate, and Stephanie L Murphy, and Melissa S Samuel, and Jiude Mao, and Chad O'Gorman, and Eric M Walters, and Clifton N Murphy, and John Driver, and Alan Mileham, and David McLaren, and Kevin D Wells, and Randall S Prather
August 2006, Fertility and sterility,
Copied contents to your clipboard!