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Journal of Lipid Research, Vol 31, 821-829, Copyright © 1990 by Lipid Research, Inc.
Cellular retinol-binding protein messenger RNA levels in normal and retinoid-deficient rats
N Rajan, WS Blaner, DR Soprano, A Suhara and DS Goodman
Department of Medicine, Columbia University, New York, NY 10032.
A study was conducted to determine the levels of cellular retinol- binding
protein (CRBP) mRNA and protein in various tissues of the rat, to explore
relationship between CRBP mRNA and protein levels in different tissues, and
to examine the effects of changes in retinol nutritional status on the
tissue distribution and levels of CRBP mRNA. Previous studies have shown
that tissue CRBP protein levels are reduced in totally retinoid-deficient
rats, but are otherwise minimally affected by changes in retinoid status.
Three groups of male rats were compared: normal controls,
retinoid-deficient, and retinol-repleted deficient rats. CRBP mRNA levels
were measured by RNase protection assay and CRBP protein levels by
radioimmunoassay in seven tissues. High levels of both CRBP mRNA and CRBP
protein were found in the proximal epididymis, kidney, and liver; lower
levels were seen in lung, testis, spleen, and small intestine. Tissue CRBP
mRNA and protein levels were highly correlated (P less than 0.01) with each
other. Retinoid deficiency did not alter the levels of CRBP mRNA found in
the proximal epididymis, kidney, and liver. In contrast, CRBP mRNA levels
in the lung, testis, spleen, and small intestine were reduced substantially
in retinoid-deficient rats, to values that were only 23% to 50% of the
corresponding values in the tissues of control rats. After oral repletion
with retinol (4-18 h earlier), CRBP mRNA levels for these latter four
tissues were found to have risen to control or near-control levels. The
suggestion is raised that retinol repletion may have directly induced the
expression of the CRBP gene in these particular tissues.(ABSTRACT TRUNCATED
AT 250 WORDS)

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Copyright © 1990 by the American Society for Biochemistry and Molecular Biology.
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