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(Received for publication, May 4, 1995; and in revised form, July 31, 1995) The antioxidant response element (ARE) found in the 5`-flanking
region of the rat quinone reductase gene has been further characterized
by mutational and deletion analysis. The results indicate that the
31-base pair ARE, which contains a 13-base pair palindromic sequence,
can be further separated into three regions, all three of which are
required for elevated basal level gene expression. These three regions
include the proximal and distal half-sites as well as a 3`-flanking
region consisting of 4 adenine nucleotides. Neither the proximal nor
the distal half-site alone mediates transcriptional activation by
Volume 270,
Number 41,
Issue of October 13, 1995 pp. 24468-24474
©1995 by The American Society for Biochemistry and Molecular Biology, Inc.
IDENTIFICATION OF THE NUCLEOTIDE SEQUENCE REQUIRED FOR BASAL AND
INDUCIBLE ACTIVITY AND DETECTION OF ANTIOXIDANT RESPONSE
ELEMENT-BINDING PROTEINS IN HEPATOMA AND NON-HEPATOMA CELL LINES
-naphthoflavone. However, when placed together the two half-sites
restore responsiveness to the inducer. Interestingly, the presence of
only 1 of the 4 adenine nucleotides in the 3`-flanking region of the
proximal half-site is required for responsiveness to the inducer. Point
mutations within the ARE indicate that several nucleotides in both the
proximal and distal half-sites are required for basal level gene
expression. Electrophoretic mobility shift analysis using the ARE as
the probe indicates that enhancers found in the glutathione S-transferase Ya and P genes recognize a similar trans-acting factor(s) found in crude nuclear extracts from
human Hep G2 cells. Further, this complex can be detected in nuclear
extracts from rat liver and rat hepatoma cells but not in mouse Hepa
1c1c7 cells or in human HeLa cells. The ARE-nucleoprotein complex can
also be detected in F9 cells which lack significant levels of Jun/Fos
proteins. Although the rat ARE resembles the human quinone reductase
ARE which contains a consensus TRE, the 2-nucleotide change in the core
sequence (TGACTCA versus TGACTTG) eliminates the high affinity
TRE motif in the rat ARE. The rat ARE forms a nucleoprotein complex in
Hep G2 and other cells with different properties than AP-1.
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