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http://dx.doi.org/10.5713/ajas.2010.90571

Differentiated Human Embryonic Stem Cells Enhance the In vitro and In vivo Developmental Potential of Mouse Preimplantation Embryos  

Kim, Eun-Young (Mirae Biotech./Jeju National University Stem Cell Research Center)
Lee, Keum-Sil (Department of Animal Biotechnology, Konkuk University)
Park, Se-Pill (Mirae Biotech./Jeju National University Stem Cell Research Center)
Publication Information
Asian-Australasian Journal of Animal Sciences / v.23, no.9, 2010 , pp. 1152-1158 More about this Journal
Abstract
In differentiating human embryonic stem (d-hES) cells there are a number of types of cells which may secrete various nutrients and helpful materials for pre-implantation embryonic development. This study examined whether the d-hES could function as a feeder cell in vitro to support mouse embryonic development. By RT-PCR analysis, the d-hES cells revealed high expression of three germ-layered differentiation markers while having markedly reduced expression of stem cell markers. Also, in d-hES cells, LIF expression in embryo implantation-related material was confirmed at a similar level to undifferentiated ES cells. When mouse 2PN embryos were cultured in control M16 medium, co-culture control CR1aa medium or co-cultured with d-hES cells, their blastocyst development rate at embryonic day 4 (83.9%) were significantly better in the d-hES cell group than in the CR1aa group (66.0%), while not better than in the M16 group (90.7%)(p<0.05). However, at embryonic days 5 and 6, embryo hatching and hatched-out rates of the dhES cell group (53.6 and 48.2%, respectively) were superior to those of the M16 group (40.7 and 40.7%, respectively). At embryonic day 4, blastocysts of the d-hES cell group were transferred into pseudo-pregnant recipients, and pregnancy rate (75.0%) was very high compared to the other groups (M16, 57.1%; CR1aa, 37.5%). In addition, embryo implantation (55.9%) and live fetus rate (38.2%) of the d-hES cell group were also better than those of the other groups (M16, 36.7 and 18.3%, respectively; CR1aa, 23.2 and 8.7%, respectively). These results demonstrated that d-hES cells can be used as a feeder cell for enhancing in vitro and in vivo developmental potential of mouse pre-implantation embryos.
Keywords
Mouse Embryo; d-hES Feeder Cell; Co-culture; Developmental Potential;
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