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(Received for publication, November 16, 1994; and in revised form, January
13, 1995) The deduced primary sequence of the cytoplasmic protein-tyrosine
kinase domain of the insulin receptor contains a conserved kinase
homology region (receptor residues 1002-1257) flanked by a
juxtamembrane region and a C-terminal tail. A soluble 48-kDa derivative
(residues 959-1355) containing these regions but lacking the first six
residues of the juxtamembrane region had earlier been synthesized in
Sf9 cells using a baculovirus expression system. The catalytic core of
the kinase domain was studied first by proteolytic analysis of the
48-kDa kinase and then by expressing a series of truncated kinase
domains in transiently transfected COS cells. Based on these studies,
two core kinases of 34 (residues 985-1283) and 35 (residues 978-1283)
kDa, respectively, were overexpressed in Sf9 cells. Biochemical
characterization of the 35-kDa kinase revealed that the core kinase
conserved the major functional properties of the native receptor kinase
domain. Activity of the 35-kDa kinase toward a synthetic peptide
increased more than 200-fold upon autophosphorylation, which occurred
exclusively at Tyr-1158, Tyr-1162, and Tyr-1163; the largest increase
was observed between bis- and trisphosphorylation of the kinase. The
activated 35- and 48-kDa kinases were similar with respect to specific
activity and ATP and Mg
Volume 270,
Number 14,
Issue of April 7, 1995 pp. 8122-8130
©1995 by The American Society for Biochemistry and Molecular Biology, Inc.
requirements for peptide
phosphorylation. Moreover, autophosphorylation appeared to initiate
predominantly at Tyr-1162, immediately followed by phosphorylation at
Tyr-1158 and then at Tyr-1163. The rate of autophosphorylation was
dependent on enzyme concentration, consistent with a trans-phosphorylation mechanism. Finally, the 35-kDa kinase
was crystallized, making possible elucidation of its three-dimensional
structure by x-ray crystallography.
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