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Vol. 12, No. 11, pp. 1678-1690, June 1, 1998
1 Program in Cellular and Molecular Biology,
2 Department of Biological Chemistry, University of Michigan
Medical School, Ann Arbor, Michigan 48109-0606 USA;
3 Harvard
Microchemistry Facility, Cambridge, Massachusetts 02138 USA
Ribonuclease P (RNase P) is a ribonucleoprotein enzyme that
cleaves precursor tRNA transcripts to give mature 5' ends. RNase P
in eubacteria has a large, catalytic RNA subunit and a small protein
subunit that are required for precursor tRNA cleavage in vivo. Although
the eukaryotic holoenzymes have similar, large RNA subunits, previous
work in a number of systems has suggested that the eukaryotic enzymes
require a greater protein content. We have purified the
Saccharomyces cerevisiae nuclear RNase P to apparent
homogeneity, allowing the first comprehensive analysis of an
unexpectedly complex subunit composition. Peptide sequencing by ion
trap mass spectrometry identifies nine proteins that copurify with the
nuclear RNase P RNA subunit, totaling 20-fold more protein than in the
bacterial enzyme. All of these proteins are encoded by genes essential
for RNase P activity and for cell viability. Previous genetic studies
suggested that four proteins might be subunits of both RNase P and
RNase MRP, the related rRNA processing enzyme. We demonstrate that all
four of these proteins, Pop1p, Pop3p, Pop4p, and Rpp1p, are integral
subunits of RNase P. In addition, four of the five newly identified
protein subunits, Pop5p, Pop6p, Pop7p, and Pop8p, also appear to be
shared between RNase P and RNase MRP. Only one polypeptide, Rpr2p, is
unique to the RNase P holoenzyme by genetic depletion and
immunoprecipitation studies. The large increase in the number of
protein subunits over eubacterial RNase P is consistent with an
increase in functional complexity in eukaryotes. The degree of
structural similarity between nuclear RNase P and RNase MRP suggests
that some aspects of their functions in pre-tRNA and pre-rRNA
processing pathways might overlap or be coordinated.
[Key Words: Ribonuclease P; ribonuclease MRP; RNP; tRNA]
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