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. 1987 Nov 25;15(22):9429–9449. doi: 10.1093/nar/15.22.9429

Hypermethylation of human DNA sequences in embryonal carcinoma cells and somatic tissues but not in sperm.

X Y Zhang 1, P T Loflin 1, C W Gehrke 1, P A Andrews 1, M Ehrlich 1
PMCID: PMC306478  PMID: 2825135

Abstract

Certain human DNA sequences are much less methylated at CpG sites in sperm than in various adult somatic tissues. The DNA of term placenta displays intermediate levels of methylation at these sequences (Sp-0.3 sequences). We report here that pluripotent embryonal carcinoma (EC) cells derived from testicular germ cell tumors are hypermethylated at the three previously cloned Sp-0.3 sequences and seven newly isolated sequences that exhibit sperm-specific hypomethylation. In contrast to their hypermethylation in EC cells, the Sp-0.3 sequences are hypomethylated in a line of yolk sac carcinoma cells, which like placenta, represent an extraembryonic lineage. These DNA sequences, therefore, appear to be subject to coordinate changes in their methylation during differentiation, probably early in embryogenesis, despite their diversity in copy number (1 to 10(4] and primary structure. Two of these Sp-0.3 sequences are highly homologous to DNA sequences in human chromosomal regions that might be recombination hotspots, namely, a cryptic satellite DNA sequence at a fragile site and the downstream region of the beta-globin gene cluster.

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