The nucleotide sequence of asparagine tRNA from brewer's yeast

tRNA‐guanine transglycosylase from Escherichia coli: recognition of full‐length ‘queuine‐cognate' tRNAs

“…To improve the yields of the transcription reactions, the gene sequences of tRNA Asn (ECN [13]) from E. coli and tRNA Tyr (SCY [14, 15]), tRNA Asn (SCN [16]) from S. cerevisiae were mutated such that first two bases of the transcripts will be guanines (Fig. 1 ).…”

tRNA‐guanine transglycosylase from Escherichia coli: recognition of full‐length ‘queuine‐cognate' tRNAs

“…To improve the yields of the transcription reactions, the gene sequences of tRNA Asn (ECN [13]) from E. coli and tRNA Tyr (SCY [14, 15]), tRNA Asn (SCN [16]) from S. cerevisiae were mutated such that first two bases of the transcripts will be guanines (Fig. 1 ).…”

5′-Terminal nucleotide variations in human cytoplasmic tRNAHisGUG and its 5′-halves

“…Among all species of tRNAs, tRNA HisGUG is unique in that it contains an additional guanosine residue at the −1 position (G −1 ) of its 5 ′ -end (Sprinzl et al 1998). This G −1 residue is conserved across phyla and has been observed in bacteria (Singer and Smith 1972;Orellana et al 1986), yeast (Keith and Pixa 1984), fruit fly (Altwegg and Kubli 1980), and mammals (Boisnard and Petrissant 1981;Rosa et al 1983). In Escherichia coli, this G −1 residue is genome-encoded, and anomalous RNase P cleavage of pre-tRNA HisGUG between positions −1 and −2 yields G −1 -containing tRNA HisGUG (Orellana et al 1986;Burkard et al 1988).…”

tRNA‐guanine transglycosylase from Escherichia coli: recognition of full‐length ‘queuine‐cognate' tRNAs

“…To improve the yields of the transcription reactions, the gene sequences of tRNA Asn (ECN [13]) from E. coli and tRNA Tyr (SCY [14, 15]), tRNA Asn (SCN [16]) from S. cerevisiae were mutated such that first two bases of the transcripts will be guanines (Fig. 1 ).…”

5′-Terminal nucleotide variations in human cytoplasmic tRNAHisGUG and its 5′-halves

“…Among all species of tRNAs, tRNA HisGUG is unique in that it contains an additional guanosine residue at the −1 position (G −1 ) of its 5 ′ -end (Sprinzl et al 1998). This G −1 residue is conserved across phyla and has been observed in bacteria (Singer and Smith 1972;Orellana et al 1986), yeast (Keith and Pixa 1984), fruit fly (Altwegg and Kubli 1980), and mammals (Boisnard and Petrissant 1981;Rosa et al 1983). In Escherichia coli, this G −1 residue is genome-encoded, and anomalous RNase P cleavage of pre-tRNA HisGUG between positions −1 and −2 yields G −1 -containing tRNA HisGUG (Orellana et al 1986;Burkard et al 1988).…”

tRNA‐guanine transglycosylase from Escherichia coli: recognition of full‐length ‘queuine‐cognate' tRNAs

“…To improve the yields of the transcription reactions, the gene sequences of tRNA Asn (ECN [13]) from E. coli and tRNA Tyr (SCY [14, 15]), tRNA Asn (SCN [16]) from S. cerevisiae were mutated such that first two bases of the transcripts will be guanines (Fig. 1 ).…”

5′-Terminal nucleotide variations in human cytoplasmic tRNAHisGUG and its 5′-halves

“…Among all species of tRNAs, tRNA HisGUG is unique in that it contains an additional guanosine residue at the −1 position (G −1 ) of its 5 ′ -end (Sprinzl et al 1998). This G −1 residue is conserved across phyla and has been observed in bacteria (Singer and Smith 1972;Orellana et al 1986), yeast (Keith and Pixa 1984), fruit fly (Altwegg and Kubli 1980), and mammals (Boisnard and Petrissant 1981;Rosa et al 1983). In Escherichia coli, this G −1 residue is genome-encoded, and anomalous RNase P cleavage of pre-tRNA HisGUG between positions −1 and −2 yields G −1 -containing tRNA HisGUG (Orellana et al 1986;Burkard et al 1988).…”