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Functional Cardiomyocytes Formation Derived from Parthenogenetic Mouse Embryonic Stem Cells  

Shin, Hyun-Ah (Maria Infertility Medical Institute / Maria Biotech)
Kim, Eun-Young (Maria Infertility Medical Institute / Maria Biotech)
Lee, Young-Jae (Maria Infertility Medical Institute / Maria Biotech)
Lee, Keum-Sil (Maria Infertility Medical Institute / Maria Biotech)
Park, Eun-Mi (Maria Infertility Medical Institute / Maria Biotech)
Lee, Hoon-Taek (College of Animal Husbandry, Kon Kuk University)
Chung, Kil-Saeng (College of Animal Husbandry, Kon Kuk University)
Park, Se-Pill (Maria Infertility Medical Institute / Maria Biotech)
Lim, Jin-Ho (Maria Hospital)
Publication Information
Clinical and Experimental Reproductive Medicine / v.29, no.2, 2002 , pp. 139-147 More about this Journal
Abstract
Objective : This study was to establish a reproducible differentiation system from the parthenogenetic mouse embryonic stem (P-mES02) cells into functional cardiomyocytes like as in vitro fertilization mouse embryonic stem (mES01) cells. Materials and Methods: To induce differentiation, P-mES02 cells were dissociated and aggregated in suspension culture environment for embryoid body (EB) formation. For differentiation into cardiomyocytes, day 4 EBs were treated with 0.75% dimethyl sulfoxide (DMSO) for another 4 days (4-/4+) and then were plated onto gelatin-coated dish. Cultured cells were observed daily using an inverted light microscope to determine the day of contraction onset and total duration of continuous contractile activity for each contracting focus. This frequency was compared with the results of DMSO not treated P-mES02 group (4-/4-) and mES01 groups (4-/4+ or 4-/4-). For confirm the generation of cardiomyocytes, beating cell masses were treated with trypsin-EDTA, dispersed cells were plated onto glass coverslips and incubated for 48 h. Attached cells were fixed using 4% paraformaldehyde and incubated with specific antibodies (Abs) to detect cardiomyocytes (anti-sarcomeric ? -actinin Ab, 1 : 100; anti-cardiac troponin I Ab, 1 : 2000) for 1 h. And the cells were finally treated with FITC or TRITC labelled 2nd Abs, respectively, then they were examined under fluorescence microscopy. Results: Rhythmically contracting areas in mES01 or P-mES02 cells were firstly appeared at 9 or 10 days after EBs plating, respectively. The highest cumulative frequency of beating EBs was not different in both treatment groups (mES01 and P-mES02, 4-/4+) with the results of 61.3 % at 13 days and 69.8% at 15 days, respectively. Also, the contracting duration of individual beating EBs was different from minimal 7 days to maximal 53 days. However, DMSO not treated groups (mES01 and P-mES02, 4-/4-) also had contracting characteristics although their frequency was a few compared to those of DMSO treated groups (6.0% and 4.0%). Cells recovered from the spontaneously contracting areas within EBs in both treated groups were stained positively with muscle specific anti-sarcomeric ? -actinin Ab and cardiac specific anti-cardiac troponin I Ab. Conclusion: This study demonstrated that the P-mES02 cell-derived cardiomyocytes displayed similarly structural properties to mES01 cell-derived cardiomyocytes and that the DMSO treatment enhanced the cardiomyocytes differentiation in vitro.
Keywords
Parthenogenetic mouse embryonic stem cell; Cardiomyocyte; Differentiation; DMSO; Contraction;
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