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J. Biol. Chem., Vol. 263, Issue 10, 4686-4692, Apr, 1988
R Desrosiers and RM Tanguay
Heat shock or arsenite treatment alter the pattern of histone methylation
in Drosophila cells. Both types of stress induce a rapid increase in the
methylation level of histone H2B. The methylated amino acid residue of H2B
has been identified by thin layer chromatography and electrophoresis as
methylproline and is located at the N-terminal end of H2B. Heat shock also
induces a decrease in the level of methylation of histone H3. Under normal
growth temperature conditions, histone H3 is shown to be methylated on
lysine residues. However under heat shock conditions, there is a decrease
in the extent of methylation of lysine residues and the appearance of new
methylation on arginine residues in H3. These new heat shock-induced
methylated residues have been identified as the symmetrical and
asymmetrical forms of dimethylarginine. The methylated amino acid residue
of histone H4 is lysine with mono-, di-, and trimethyl forms found in both
control and heat or chemically stressed cells. These stress-induced changes
in the methylation level of the N-terminal proline residue of histone H2B
and shift in the methylation sites of histone H3 may be involved in the
restructuration of chromatin accompanying the inactivation of normal genes
in response to stress. Moreover, we suggest that the hypermethylation of
H2B may also be involved in its protection from increased
ubiquitin-mediated proteolytic activity under these conditions of cellular
stress.
Methylation of Drosophila histones at proline, lysine, and arginine residues during heat shock
Centre Hospitalier Universite Laval, Ste-Foy, Quebec, Canada.
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