Heyman T., Agoutin B., Fix C., Dirheimer G., Keith G.
Yeast serine isoacceptor tRNAs: variations of their content as a function of growth conditions and primary structure of the minor tRNA(Ser)GCU Article de journal
Dans: FEBS Lett, vol. 347, no. 2-3, p. 143-6, 1994, (0014-5793
Journal Article).
@article{,
title = {Yeast serine isoacceptor tRNAs: variations of their content as a function of growth conditions and primary structure of the minor tRNA(Ser)GCU},
author = { T. Heyman and B. Agoutin and C. Fix and G. Dirheimer and G. Keith},
year = {1994},
date = {1994-01-01},
journal = {FEBS Lett},
volume = {347},
number = {2-3},
pages = {143-6},
abstract = {The primary structure of Saccharomyces cerevisiae tRNA(Ser)GCU is presented (EMBL database accession No. X74268 S. cerevisiae tRNA-Ser). In addition, quantitation of the relative amounts of serine isoaccepting tRNAs in yeast grown on different media showed that the minor tRNA(Ser)GCU decreased while the major tRNA(Ser)AGA increased as the growth rate and the cellular protein content increased. The minor species, tRNA(Ser)CGA and tRNA(Ser)UGA, were not separated by our gel system, however, taken together they appeared to vary in the same way as tRNA(Ser)GCU. These data suggest a growth rate dependence of yeast tRNAs similar to that previously described for E. coli tRNAs.},
note = {0014-5793
Journal Article},
keywords = {&, Acid, Anticodon, Base, cerevisiae/*genetics/*growth, Conformation, Culture, Data, development, Fungal/*chemistry, Galactose, Hybridization, Media, Molecular, Nucleic, Probes, RNA, Saccharomyces, Sequence, Ser/analysis/*chemistry, Transfer, Transfer/*chemistry},
pubstate = {published},
tppubtype = {article}
}
The primary structure of Saccharomyces cerevisiae tRNA(Ser)GCU is presented (EMBL database accession No. X74268 S. cerevisiae tRNA-Ser). In addition, quantitation of the relative amounts of serine isoaccepting tRNAs in yeast grown on different media showed that the minor tRNA(Ser)GCU decreased while the major tRNA(Ser)AGA increased as the growth rate and the cellular protein content increased. The minor species, tRNA(Ser)CGA and tRNA(Ser)UGA, were not separated by our gel system, however, taken together they appeared to vary in the same way as tRNA(Ser)GCU. These data suggest a growth rate dependence of yeast tRNAs similar to that previously described for E. coli tRNAs.