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Obtaining mice that carry human mitochondrial DNA transmitted to the progeny

To study human diseases associated with mutations in mitochondrial DNA one needs an animal model in which the distribution of abnormal mtDNA and its impact on the phenotype might be followed. We isolated human mitochondria from HepG2 cell culture and microinjected them into murine zygotes, upon whic...

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Published in:Molecular reproduction and development 2004-07, Vol.68 (3), p.299-307
Main Authors: Sokolova, Vassilina A., Kustova, Maria E., Arbuzova, Natalia I., Sorokin, Alexander V., Moskaliova, Olesya S., Bass, Mikhail G., Vasilyev, Vadim B.
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cited_by cdi_FETCH-LOGICAL-c3905-1eb54780ea1726fc2a93e00882631540bc925f1cf4ab573d46cb887f2f6fb82d3
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container_title Molecular reproduction and development
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creator Sokolova, Vassilina A.
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Vasilyev, Vadim B.
description To study human diseases associated with mutations in mitochondrial DNA one needs an animal model in which the distribution of abnormal mtDNA and its impact on the phenotype might be followed. We isolated human mitochondria from HepG2 cell culture and microinjected them into murine zygotes, upon which those were transplanted to the pseudopregnant mice. PCR with species‐specific primers allowed detecting human mtDNA in the tissues of 7–13‐day embryos. No serious alterations in the development of transmitochondrial embryos were noticed. Among various organs/tissues of the 13‐day embryos, human mtDNA was detected only in the heart, skeletal muscles, and stomach, which is in line with its uneven distribution among the blastomeres of an early mouse embryo that we described previously. In four recipient females, the microinjected zygotes were allowed to develop to term, the four neonate males of their joint litter were sacrificed, and in three of them human mtDNA was detected in the heart, skeletal muscles, stomach, brain, testes, and bladder. Six females of that joint litter were grown and mated to intact males. In the progeny (F1) of one of the females two mice were carrying human mtDNA in the heart, skeletal muscles, stomach, brain, lungs, uterus, ovaries, and kidneys. The study confirms the possibility to obtain transmitochondrial mice carrying human mtDNA that is transmitted to the animals of the next generation. Our results also indicate that among the organs to which human mtDNA is distributed some are more likely to receive it than others. Mol. Reprod. Dev. 68: 299–307, 2004. © 2004 Wiley‐Liss, Inc.
doi_str_mv 10.1002/mrd.20075
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subjects Animals
Cell Line, Tumor
DNA, Mitochondrial - genetics
Embryo, Mammalian - metabolism
Extrachromosomal Inheritance
Female
Gene Transfer Techniques
human mtDNA
Humans
Male
maternal inheritance
Mice
Mice, Inbred C57BL
Mice, Transgenic
Microinjections
Mitochondria - genetics
mitochondria microinjection
mtDNA transfer
Mutation
Organ Specificity
Polymerase Chain Reaction
Pregnancy
Pseudopregnancy
transgenic mice
Zygote - transplantation
Zygote - ultrastructure
title Obtaining mice that carry human mitochondrial DNA transmitted to the progeny
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