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. 1983;2(2):269–276. doi: 10.1002/j.1460-2075.1983.tb01416.x

Construction of novel cytochrome b genes in yeast mitochondria by subtraction or addition of introns.

M Labouesse 1, P P Slonimski 1
PMCID: PMC555124  PMID: 11894937

Abstract

The mitochondrial cob-box gene coding for apocytochrome b in yeast has five introns and six exons or two introns and three exons depending on the wild-type strain considered. Some intron mutations in this gene affect not only its expression but also that of another mitochondrial gene: oxi3. To understand better the function of introns in gene expression, we have constructed a series of new strains that differ only by the presence or absence of one of the five wild-type introns in the cytochrome b gene, the rest of the mitochondrial and nuclear genome remaining unchanged. All constructions result from in vivo recombination events between rho- donor and rho+ recipient mtDNA. The following genes have been constructed: [see text]. Interestingly, all the genes lead to the synthesis of cytochrome b, while only the genes having the intron bI4 allow the expression of oxi3. A nuclear gene, when mutated, can compensate for the absence of the intron bI4.

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Selected References

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