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- ANK1
- ankyrin1
- chromatin modification1
- CLMS1
- cross-linking mass spectrometry1
- enzyme catalysis1
- epigenetics1
- G9a-GLP1
- gene silencing1
- H3K91
- H3K9me1
- heterochromatin1
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- histone 3 lysine 91
- histone 3 lysine 9 methylation1
- histone methylation1
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- maltose-binding protein1
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- methyl-lysine analog1
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- multiangle light scattering1
- S-adenosyl methionine1
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JBC Communications
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- Accelerated CommunicationOpen Access
Heterodimerization of H3K9 histone methyltransferases G9a and GLP activates methyl reading and writing capabilities
Journal of Biological ChemistryVol. 297Issue 5101276Published online: October 4, 2021- Nicholas A. Sanchez
- Lena M. Kallweit
- Michael J. Trnka
- Charles L. Clemmer
- Bassem Al-Sady
Cited in Scopus: 3Unique among metazoan repressive histone methyltransferases, G9a and GLP, which chiefly target histone 3 lysine 9 (H3K9), require dimerization for productive H3K9 mono (me1)- and dimethylation (me2) in vivo. Intriguingly, even though each enzyme can independently methylate H3K9, the predominant active form in vivo is a heterodimer of G9a and GLP. How dimerization influences the central H3K9 methyl binding (“reading”) and deposition (“writing”) activity of G9a and GLP and why heterodimerization is essential in vivo remains opaque.