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Volume 270, Number 43, Issue of October 27, 1995 pp. 25709-25714
©1995 by The American Society for Biochemistry and Molecular Biology, Inc.
Roles of Protein-tyrosine Phosphatases in Stat1-mediated Cell Signaling

(Received for publication, June 23, 1995)

S. Jaharul Haque Vincenzo Flati Amitabha Deb Bryan R. G. Williams

Different Stat proteins are activated through phosphorylation of unique tyrosine residues in response to different cytokines and growth factors. Interferon- activates Stat1 molecules that form homodimers and bind cognate DNA elements. Here we show that treatment of permeabilized cells with 200-500 µM peroxo-derivatives of vanadium, molybdenum, and tungsten results in the accumulation of constitutively phosphorylated Stat1alpha molecules. In contrast, treatment of permeabilized cells with orthovanadate, vanadyl sulfate, molybdate, and tungstate at the same range of concentrations does not result in the accumulation of activated Stat1alpha molecules in the absence of ligand. However, these compounds inhibit the inactivation of interferon--induced DNA-binding activity of Stat1alpha. A 4-6-h exposure of the permeabilized cells to orthovanadate, molybdate, and tungstate, but not vanadyl sulfate, results in a ligand-independent activation of Stat1alpha, which is blocked by the inhibition or depletion of NADPH oxidase activity in the cells, indicating that NADPH oxidase-catalyzed superoxide formation is required for the bioconversion of these metal oxides to the corresponding peroxo-compounds. Interestingly, ligand-independent Stat1alpha activation by peroxo-derivatives of these transition metals does not require Jak1, Jak2, or Tyk2 kinase activity, suggesting that other kinases can phosphorylate Stat1alpha on tyrosine 701.




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