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Volume 270,
Number 44,
Issue of November 3, 1995 pp. 26433-26440
©1995 by The American Society for Biochemistry and Molecular Biology, Inc.
Structural
Characterization and Regulatory Element Analysis of the Heart Isoform
of Cytochrome c Oxidase VIa
(Received for publication, June 22, 1995; and in revised form, August 23, 1995)
Bang
Wan
,
Randall
W.
Moreadith
In order to investigate the mechanism(s) governing the striated
muscle-specific expression of cytochrome c oxidase VIaH we
have characterized the murine gene and analyzed its transcriptional
regulatory elements in skeletal myogenic cell lines. The gene is single
copy, spans 689 base pairs (bp), and is comprised of three exons. The
5`-ends of transcripts from the gene are heterogeneous, but the most
abundant transcript includes a 5`-untranslated region of 30
nucleotides. When fused to the luciferase reporter gene, the
3.5-kilobase 5`-flanking region of the gene directed the expression of
the heterologous protein selectively in differentiated Sol8 cells and
transgenic mice, recapitulating the pattern of expression of the
endogenous gene. Deletion analysis identified a 300-bp fragment
sufficient to direct the myotube-specific expression of luciferase in
Sol8 cells. The region lacks an apparent TATA element, and sequence
motifs predicted to bind NRF-1, NRF-2, ox-box, or PPAR factors known to
regulate other nuclear genes encoding mitochondrial proteins are not
evident. Mutational analysis, however, identified two cis-elements necessary for the high level expression of the
reporter protein: a MEF2 consensus element at -90 to -81 bp
and an E-box element at -147 to -142 bp. Additional E-box
motifs at closely located positions were mutated without loss of
transcriptional activity. The dependence of transcriptional activation
of cytochrome c oxidase VIaH on cis-elements similar
to those found in contractile protein genes suggests that the striated
muscle-specific expression is coregulated by mechanisms that control
the lineage-specific expression of several contractile and cytosolic
proteins.

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Copyright © 1995 by the American Society for Biochemistry and Molecular Biology.
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