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(Received for publication, November 30, 1995) The DnaK and DnaJ heat shock proteins function as the primary
Hsp70 and Hsp40 homologues, respectively, of Escherichia coli.
Intensive studies of various Hsp70 and DnaJ-like proteins over the past
decade have led to the suggestion that interactions between specific
pairs of these two types of proteins permit them to serve as molecular
chaperones in a diverse array of protein metabolic events, including
protein folding, protein trafficking, and assembly and disassembly of
multisubunit protein complexes. To further our understanding of the
nature of Hsp70-DnaJ interactions, we have sought to define the minimal
sequence elements of DnaJ required for stimulation of the intrinsic
ATPase activity of DnaK. As judged by proteolysis sensitivity, DnaJ is
composed of three separate regions, a 9-kDa NH
Volume 271,
Number 19,
Issue of May 10, 1996 pp. 11236-11246
©1996 by The American Society for Biochemistry and Molecular Biology, Inc.
-terminal
domain, a 30-kDa COOH-terminal domain, and a protease-sensitive
glycine- and phenylalanine-rich (G/F-rich) segment of 30 amino acids
that serves as a flexible linker between the two domains. The stable
9-kDa proteolytic fragment was identified as the highly conserved
J-region found in all DnaJ homologues. Using this structural
information as a guide, we constructed, expressed, purified, and
characterized several mutant DnaJ proteins that contained either
NH
-terminal or COOH-terminal deletions. At variance with
current models of DnaJ action, DnaJ1-75, a polypeptide containing
an intact J-region, was found to be incapable of stimulating ATP
hydrolysis by DnaK protein. We found, instead, that two sequence
elements of DnaJ, the J-region and the G/F-rich linker segment, are
each required for activation of DnaK-mediated ATP hydrolysis and for
minimal DnaJ function in the initiation of bacteriophage
DNA
replication. Further analysis indicated that maximal activation of ATP
hydrolysis by DnaK requires two independent but simultaneous
protein-protein interactions: (i) interaction of DnaK with the J-region
of DnaJ and (ii) binding of a peptide or polypeptide to the
polypeptide-binding site associated with the COOH-terminal domain of
DnaK. This dual signaling process required for activation of DnaK
function has mechanistic implications for those protein metabolic
events, such as polypeptide translocation into the endoplasmic
reticulum in eukaryotic cells, that are dependent on interactions
between Hsp70-like and DnaJ-like proteins.
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