The Ribosomal Peptidyl Transferase Center: Structure, Function, Evolution, Inhibition
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[1] L. Rice,et al. Recombination Proficiency Influences Frequency and Locus of Mutational Resistance to Linezolid in Enterococcus faecalis , 2003, Antimicrobial Agents and Chemotherapy.
[2] S. Pestka. Studies on the formation of transfer ribonucleic acid-ribosome complexes. X. Phenylalanyl-oligonucleotide binding to ribosomes and the mechanism of chloramphenicol action. , 1969, Biochemical and biophysical research communications.
[3] A. Barta,et al. Metal ion probing of rRNAs: evidence for evolutionarily conserved divalent cation binding pockets. , 1998, RNA.
[4] A. Mankin,et al. Ribosomal and non‐ribosomal resistance to oxazolidinones: species‐specific idiosyncrasy of ribosomal alterations , 2002, Molecular microbiology.
[5] B. Maden,et al. Ribosome-catalyzed peptidyl transfer. Effects of cations and pH value. , 1968, European journal of biochemistry.
[6] K. Marotti,et al. Mechanism of action of oxazolidinones: effects of linezolid and eperezolid on translation reactions , 1997, Antimicrobial agents and chemotherapy.
[7] P. Boer,et al. Scrambled ribosomal RNA gene pieces in chlamydomonas reinhardtii mitochondrial DNA , 1988, Cell.
[8] Excherichia Colp. Studies on Transfer Ribonucleic Acid-Ribosome Complexes , 2002 .
[9] A. Bera,et al. In vitro protein folding by ribosomes from Escherichia coli, wheat germ and rat liver: the role of the 50S particle and its 23S rRNA. , 1996, European journal of biochemistry.
[10] L. Peterson,et al. Resistance to Linezolid: Characterization of Mutations in rRNA and Comparison of Their Occurrences in Vancomycin-Resistant Enterococci , 2001, Antimicrobial Agents and Chemotherapy.
[11] T. W. O'brien,et al. Nuclear MRP genes and mitochondrial disease. , 2005, Gene.
[12] B. Maden,et al. Ribosome‐Catalyzed Peptidyl Transfer , 1968 .
[13] Adam Roth,et al. Ribozyme speed limits. , 2003, RNA.
[14] Jennifer A. Doudna,et al. The chemical repertoire of natural ribozymes , 2002, Nature.
[15] Rachel Green,et al. The Active Site of the Ribosome Is Composed of Two Layers of Conserved Nucleotides with Distinct Roles in Peptide Bond Formation and Peptide Release , 2004, Cell.
[16] W. Tate,et al. The ribosomal binding and peptidyl-tRNA hydrolysis functions of Escherichia coli release factor 2 are linked through residue 246. , 2000, RNA.
[17] K. Parnell,et al. Evidence against stabilization of the transition state oxyanion by a pKa-perturbed RNA base in the peptidyl transferase center , 2002, Proceedings of the National Academy of Sciences of the United States of America.
[18] B. Vestergaard,et al. Bacterial polypeptide release factor RF2 is structurally distinct from eukaryotic eRF1. , 2001, Molecular cell.
[19] D. Vazquez,et al. Substrate and antibiotic binding sites at the peptidyl transferase centre of E. coli ribosomes: Binding of UACCA‐Leu to 50 S subunits , 1971, FEBS letters.
[20] D. Shinabarger. Mechanism of action of the oxazolidinone antibacterial agents. , 1999, Expert opinion on investigational drugs.
[21] R. Zarivach,et al. Structural basis for the antibiotic activity of ketolides and azalides. , 2003, Structure.
[22] K. Lieberman,et al. Genetic probes of ribosomal RNA function. , 1995, Biochemistry and cell biology = Biochimie et biologie cellulaire.
[23] P. Khaitovich,et al. Reconstitution of the 50S Subunit with In Vitro-Transcribed 23S rRNA: a New Tool for Studying Peptidyltransferase , 2000 .
[24] J. F. Snell,et al. Mechanism of Action of Antimicrobial and Antitumor Agents , 1975, Antibiotics.
[25] T. Steitz,et al. The structural basis of ribosome activity in peptide bond synthesis. , 2000, Science.
[26] J. Thompson,et al. Site-directed mutagenesis of Escherichia coli 23 S ribosomal RNA at position 1067 within the GTP hydrolysis centre. , 1988, Journal of molecular biology.
[27] A. Yonath,et al. Inhibition of peptide bond formation by pleuromutilins: the structure of the 50S ribosomal subunit from Deinococcus radiodurans in complex with tiamulin , 2004, Molecular microbiology.
[28] R. Garrett,et al. Mapping important nucleotides in the peptidyl transferase centre of 23 S rRNA using a random mutagenesis approach. , 1995, Journal of molecular biology.
[29] H. Noller. The driving force for molecular evolution of translation. , 2004, RNA.
[30] Daniel N. Wilson,et al. Mapping Functionally Important Motifs SPF and GGQ of the Decoding Release Factor RF2 to the Escherichia coli Ribosome by Hydroxyl Radical Footprinting , 2003, The Journal of Biological Chemistry.
[31] H. Ramu,et al. A protein component at the heart of an RNA machine: the importance of protein l27 for the function of the bacterial ribosome. , 2005, Molecular cell.
[32] E. Cundliffe. Antibiotics and polyribosomes. II. Some effects of lincomycin, spiramycin, and streptogramin A in vivo. , 1969, Biochemistry.
[33] E. Bergmann,et al. Mode of Action of Chloramphenicol , 1952, Nature.
[34] A. Rich,et al. Ribosome-catalyzed ester formation. , 1970, Biochemistry.
[35] B. Cooperman,et al. Histidine 229 in protein L2 is apparently essential for 50S peptidyl transferase activity. , 1995, Biochemistry and cell biology = Biochimie et biologie cellulaire.
[36] D. Vazquez,et al. Substrate and antibiotic binding sites at the peptidyl transferase centre of E. coli ribosomes , 1970, FEBS letters.
[37] Thomas A Steitz,et al. Structures of five antibiotics bound at the peptidyl transferase center of the large ribosomal subunit. , 2003, Journal of molecular biology.
[38] Frauke Pohlki,et al. The Mechanism of the , 2001, Angewandte Chemie.
[39] Thomas A Steitz,et al. RNA, the first macromolecular catalyst: the ribosome is a ribozyme. , 2003, Trends in biochemical sciences.
[40] T. Cech,et al. In vitro splicing of the ribosomal RNA precursor of tetrahymena: Involvement of a guanosine nucleotide in the excision of the intervening sequence , 1981, Cell.
[41] R. Garrett,et al. The importance of highly conserved nucleotides in the binding region of chloramphenicol at the peptidyl transfer centre of Escherichia coli 23S ribosomal RNA. , 1988, The EMBO journal.
[42] Gregor Blaha,et al. Structures of MLSBK Antibiotics Bound to Mutated Large Ribosomal Subunits Provide a Structural Explanation for Resistance , 2005, Cell.
[43] A. Mankin,et al. The critical role of the universally conserved A2602 of 23S ribosomal RNA in the release of the nascent peptide during translation termination. , 2003, Molecular cell.
[44] T. Cech,et al. Peptide bond formation by in vitro selected ribozymes , 1997, Nature.
[45] M. W. Gray,et al. Sixteen discrete RNA components in the cytoplasmic ribosome of Euglena gracilis. , 1990, Journal of molecular biology.
[46] Jill K Thompson,et al. The protein synthesis inhibitors, oxazolidinones and chloramphenicol, cause extensive translational inaccuracy in vivo. , 2002, Journal of Molecular Biology.
[47] H. Noller. 8 On the Origin of the Ribosome: Coevolution of Subdomains of tRNA and rRNA , 1999 .
[48] T. Cech,et al. The Ribosome Is a Ribozyme , 2000, Science.
[49] H. Noller,et al. Unusual resistance of peptidyl transferase to protein extraction procedures. , 1992, Science.
[50] A. Zollner,et al. Mutation of a highly conserved base in the yeast mitochondrial 21S rRNA restricts ribosomal frameshifting , 1995, Molecular and General Genetics MGG.
[51] V. Blinov,et al. Mutations in the highly conserved GGQ motif of class 1 polypeptide release factors abolish ability of human eRF1 to trigger peptidyl-tRNA hydrolysis. , 1999, RNA.
[52] J. Davies,et al. What are antibiotics? Archaic functions for modern activities , 1990, Molecular microbiology.
[53] W. Wooster,et al. Crystal structure of , 2005 .
[54] H. Noller,et al. A base pair between tRNA and 23S rRNA in the peptidyl transferase centre of the ribosome , 1995, Nature.
[55] S. Douthwaite,et al. Oxazolidinone Resistance Mutations in 23S rRNA ofEscherichia coli Reveal the Central Region of Domain V as the Primary Site of Drug Action , 2000, Journal of bacteriology.
[56] I. Majerfeld,et al. 23S rRNA similarity from selection for peptidyl transferase mimicry. , 1997, Biochemistry.
[57] Isomeric phenylalanyl-tRNAs. Position of the aminoacyl moiety during protein biosynthesis. , 1974, Proceedings of the National Academy of Sciences of the United States of America.
[58] A. Mankin,et al. Cross-linking in the Living Cell Locates the Site of Action of Oxazolidinone Antibiotics* , 2003, Journal of Biological Chemistry.
[59] K. Nierhaus,et al. Ribosomal components from Escherichia coli 50 S subunits involved in the reconstitution of peptidyltransferase activity. , 1981, The Journal of biological chemistry.
[60] S. Douthwaite. Functional interactions within 23S rRNA involving the peptidyltransferase center , 1992, Journal of bacteriology.
[61] K. Lieberman,et al. The importance of conserved nucleotides of 23 S ribosomal RNA and transfer RNA in ribosome catalyzed peptide bond formation. , 1994, The Journal of biological chemistry.
[62] R. Green,et al. Base-pairing between 23S rRNA and tRNA in the ribosomal A site. , 1999, Molecular cell.
[63] Thomas A Steitz,et al. On the structural basis of peptide‐bond formation and antibiotic resistance from atomic structures of the large ribosomal subunit , 2005, FEBS letters.
[64] H. Noller,et al. Analysis of mutations at residues A2451 and G2447 of 23S rRNA in the peptidyltransferase active site of the 50S ribosomal subunit , 2001, Proceedings of the National Academy of Sciences of the United States of America.
[65] R. Green,et al. Ribosomal Rna and Group I Introns , 1996 .
[66] T. Cech,et al. Peptidyl-transferase ribozymes: trans reactions, structural characterization and ribosomal RNA-like features. , 1998, Chemistry & biology.
[67] R. Garrett,et al. Chloramphenicol resistance mutations in the single 23S rRNA gene of the archaeon Halobacterium halobium , 1991, Journal of bacteriology.
[68] A. Zamir,et al. The inactivation and reactivation of ribosomal-peptidyl transferase of E. coli. , 1968, Biochemical and biophysical research communications.
[69] H. White. Coenzymes as fossils of an earlier metabolic state , 1976, Journal of Molecular Evolution.
[70] S. Dorner,et al. Mononucleotide derivatives as ribosomal P-site substrates reveal an important contribution of the 2'-OH to activity. , 2003, Nucleic acids research.
[71] D. Vazquez,et al. Cooperative and antagonistic interactions of peptidyl-tRNA and antibiotics with bacterial ribosomes. , 1977, European journal of biochemistry.
[72] A. E. Dahlberg,et al. Mutations at U2555, a tRNA-protected base in 23S rRNA, affect translational fidelity. , 1993, Proceedings of the National Academy of Sciences of the United States of America.
[73] A. Mankin,et al. Resistance mutations in 23 S rRNA identify the site of action of the protein synthesis inhibitor linezolid in the ribosomal peptidyl transferase center. , 1999, Journal of molecular biology.
[74] D. Lilley. The origins of RNA catalysis in ribozymes. , 2003, Trends in biochemical sciences.
[75] E. A. Morgan,et al. Chloramphenicol-erythromycin resistance mutations in a 23S rRNA gene of Escherichia coli , 1985, Journal of bacteriology.
[76] A. Mankin,et al. Ribosomal peptidyl transferase can withstand mutations at the putative catalytic nucleotide , 2001, Nature.
[77] N. Ivanova,et al. [Mutation of a glutamine residue in the universal tripeptide GGQ in human eRF1 termination factor does not cause complete loss of its activity]. , 2000, Molekuliarnaia biologiia.
[78] H. Noller,et al. Ribosomes and translation. , 1997, Annual review of biochemistry.
[79] R. Lührmann,et al. Decoding at the ribosomal A site: antibiotics, misreading and energy of aminoacyl-tRNA binding. , 1987, Biochimie.
[80] K. Nierhaus,et al. Identification of the chloramphenicol-binding protein in Escherichia coli ribosomes by partial reconstitution. , 1973, Proceedings of the National Academy of Sciences of the United States of America.
[81] L. Gold,et al. RNA aptamers to the peptidyl transferase inhibitor chloramphenicol. , 1997, Chemistry & biology.
[82] Jill K Thompson,et al. The A2453-C2499 wobble base pair in Escherichia coli 23S ribosomal RNA is responsible for pH sensitivity of the peptidyltransferase active site conformation. , 2004, Nucleic acids research.
[83] B. Vester,et al. The pleuromutilin drugs tiamulin and valnemulin bind to the RNA at the peptidyl transferase centre on the ribosome , 2001, Molecular microbiology.
[84] R. Micura,et al. Chemical engineering of the peptidyl transferase center reveals an important role of the 2′-hydroxyl group of A2451 , 2005, Nucleic acids research.
[85] R. Garrett,et al. Antibiotic interactions at the GTPase‐associated centre within Escherichia coli 23S rRNA. , 1989, The EMBO journal.
[86] H. Noller. Peptidyl transferase: protein, ribonucleoprotein, or RNA? , 1993, Journal of bacteriology.
[87] H F Noller,et al. Identification of bases in 16S rRNA essential for tRNA binding at the 30S ribosomal P site , 1995, Science.
[88] W. Gilbert. Origin of life: The RNA world , 1986, Nature.
[89] L. H. Hansen,et al. The macrolide–ketolide antibiotic binding site is formed by structures in domains II and V of 23S ribosomal RNA , 1999, Molecular microbiology.
[90] Anna Marie Pyle,et al. RNA structure comparison, motif search and discovery using a reduced representation of RNA conformational space. , 2003, Nucleic acids research.
[91] B. Ganem. RNA world , 1987, Nature.
[92] M. Kukhanova,et al. [The peptidyltransferase center of ribosomes--what is it?]. , 1985, Molekuliarnaia biologiia.
[93] E. Cundliffe. How antibiotic-producing organisms avoid suicide. , 1989, Annual review of microbiology.
[94] J. Frank,et al. A cryo-electron microscopic study of ribosome-bound termination factor RF2 , 2003, Nature.
[95] A. Mankin,et al. SPARK--a novel method to monitor ribosomal peptidyl transferase activity. , 2002, Biochemistry.
[96] I. Craig,et al. Altered ribosomal RNA genes in mitochondria from mammalian cells with chloramphenicol resistance , 1981, Nature.
[97] S. Pestka. Studies on transfer ribonucleic acid-ribosome complexes. XIX. Effect of antibiotics on peptidyl puromycin synthesis on polyribosoms from Escherichia coli. , 1972, The Journal of biological chemistry.
[98] B. Vester,et al. Inhibition of the ribosomal peptidyl transferase reaction by the mycarose moiety of the antibiotics carbomycin, spiramycin and tylosin. , 2000, Journal of molecular biology.
[99] S. Douthwaite,et al. Macrolide Resistance Conferred by Base Substitutions in 23S rRNA , 2001, Antimicrobial Agents and Chemotherapy.
[100] D. Barford,et al. The Crystal Structure of Human Eukaryotic Release Factor eRF1—Mechanism of Stop Codon Recognition and Peptidyl-tRNA Hydrolysis , 2000, Cell.
[101] P. Khaitovich,et al. Effect of antibiotics on large ribosomal subunit assembly reveals possible function of 5 S rRNA. , 1999, Journal of molecular biology.
[102] M. Rodnina,et al. The G2447A mutation does not affect ionization of a ribosomal group taking part in peptide bond formation. , 2003, RNA.
[103] T. Steitz,et al. The complete atomic structure of the large ribosomal subunit at 2.4 A resolution. , 2000, Science.
[104] Nan Yu,et al. The Comparative RNA Web (CRW) Site: an online database of comparative sequence and structure information for ribosomal, intron, and other RNAs , 2002, BMC Bioinformatics.
[105] Frank Schluenzen,et al. High Resolution Structure of the Large Ribosomal Subunit from a Mesophilic Eubacterium , 2001, Cell.
[106] Annette Sievers,et al. The ribosome as an entropy trap. , 2004, Proceedings of the National Academy of Sciences of the United States of America.
[107] J. S. Weinger,et al. Substrate-assisted catalysis of peptide bond formation by the ribosome , 2004, Nature Structural &Molecular Biology.
[108] F. Schluenzen,et al. Structural basis for the interaction of antibiotics with the peptidyl transferase centre in eubacteria , 2001, Nature.
[109] A. Mankin,et al. Binding Site of the Bridged Macrolides in the Escherichia coli Ribosome , 2005, Antimicrobial Agents and Chemotherapy.
[110] J. Wower,et al. Ribosomal Protein L27 Participates in both 50 S Subunit Assembly and the Peptidyl Transferase Reaction* , 1998, The Journal of Biological Chemistry.
[111] S. Strobel,et al. pH-dependent conformational flexibility within the ribosomal peptidyl transferase center. , 2001, RNA.
[112] Different nucleotide changes in the large rRNA gene of the mitochondrial DNA confer chloramphenicol resistance on two human cell lines. , 1981, Nucleic acids research.
[113] P. Schimmel,et al. Oligonucleotide-directed peptide synthesis in a ribosome- and ribozyme-free system. , 2001, Proceedings of the National Academy of Sciences of the United States of America.
[114] R. Breaker,et al. Gene regulation by riboswitches , 2004, Nature Reviews Molecular Cell Biology.
[115] P. Khaitovich,et al. Characterization of functionally active subribosomal particles from Thermus aquaticus. , 1999, Proceedings of the National Academy of Sciences of the United States of America.
[116] T. Steitz,et al. A pre-translocational intermediate in protein synthesis observed in crystals of enzymatically active 50S subunits , 2002, Nature Structural Biology.
[117] M. Ehrenberg,et al. Release of peptide promoted by the GGQ motif of class 1 release factors regulates the GTPase activity of RF3. , 2002, Molecular cell.
[118] H. Noller,et al. Chloramphenicol, erythromycin, carbomycin and vernamycin B protect overlapping sites in the peptidyl transferase region of 23S ribosomal RNA. , 1987, Biochimie.
[119] A. D. Wolfe,et al. MODE OF ACTION OF CHLORAMPHENICOL. IX. EFFECTS OF CHLORAMPHENICOL UPON A RIBOSOMAL AMINO ACID POLYMERIZATION SYSTEM AND ITS BINDING TO BACTERIAL RIBOSOME. , 1965, Biochimica et biophysica acta.
[120] S. Dorner,et al. A conformational change in the ribosomal peptidyl transferase center upon active/inactive transition , 2001, Proceedings of the National Academy of Sciences of the United States of America.
[121] F. H. C. CRICK,et al. Origin of the Genetic Code , 1967, Nature.
[122] Role for the highly conserved region of domain IV of 23S-like rRNA in subunit-subunit interactions at the peptidyl transferase centre. , 1995, Nucleic acids research.
[123] Thomas A Steitz,et al. Structural insights into peptide bond formation , 2002, Proceedings of the National Academy of Sciences of the United States of America.
[124] R. Berisio,et al. Ribosomal crystallography: a flexible nucleotide anchoring tRNA translocation, facilitates peptide‐bond formation, chirality discrimination and antibiotics synergism , 2004, FEBS letters.
[125] T. Pallasch. Macrolide antibiotics. , 1997, Dentistry today.
[126] S. Pestka,et al. Antibiotics as Probes of Ribosome Structure: Binding of Chloramphenicol and Erythromycin to Polyribosomes; Effect of Other Antibiotics , 1974, Antimicrobial Agents and Chemotherapy.
[127] A. Yonath,et al. From peptide‐bond formation to cotranslational folding: dynamic, regulatory and evolutionary aspects , 2005, FEBS letters.
[128] T. Steitz,et al. The contribution of metal ions to the structural stability of the large ribosomal subunit. , 2004, RNA.
[129] M. Ehrenberg,et al. Stop codon recognition and interactions with peptide release factor RF3 of truncated and chimeric RF1 and RF2 from Escherichia coli , 2003, Molecular microbiology.
[130] H. Noller. On the origin of the ribosome Coevolution of subdomains of tRNA and rRNA , 1999 .
[131] N. Pace,et al. The RNA moiety of ribonuclease P is the catalytic subunit of the enzyme , 1983, Cell.
[132] Ulrich Stelzl,et al. Protein synthesis at atomic resolution: mechanistics of translation in the light of highly resolved structures for the ribosome. , 2002, Current protein & peptide science.
[133] A. Mankin,et al. 23S rRNA positions essential for tRNA binding in ribosomal functional sites. , 1998, Proceedings of the National Academy of Sciences of the United States of America.
[134] A. Mankin,et al. A novel site of antibiotic action in the ribosome: Interaction of evernimicin with the large ribosomal subunit , 2001, Proceedings of the National Academy of Sciences of the United States of America.
[135] R. Garrett,et al. Movement of the 3′‐end of tRNA through the peptidyl transferase centre and its inhibition by antibiotics , 1997, FEBS letters.
[136] Malte Beringer,et al. Essential Mechanisms in the Catalysis of Peptide Bond Formation on the Ribosome* , 2005, Journal of Biological Chemistry.
[137] G. Högenauer,et al. The effects of tiamulin, a semisynthetic pleuromutilin derivative, on bacterial polypeptide chain initiation. , 1978, European journal of biochemistry.
[138] S. Pestka. Peptidyl-puromycin synthesis on polyribosomes from Escherichia coli. , 1972, Proceedings of the National Academy of Sciences of the United States of America.
[139] T. Earnest,et al. Crystal Structure of the Ribosome at 5.5 Å Resolution , 2001, Science.
[140] Wolfgang Wintermeyer,et al. Important contribution to catalysis of peptide bond formation by a single ionizing group within the ribosome. , 2002, Molecular cell.
[141] pKa of adenine 2451 in the ribosomal peptidyl transferase center remains elusive. , 2001, RNA.
[142] P. Khaitovich,et al. Peptidyl transferase activity catalyzed by protein-free 23S ribosomal RNA remains elusive. , 1999, RNA.
[143] F. Dohme,et al. Role of 5S RNA in assembly and function of the 50S subunit from Escherichia coli. , 1976, Proceedings of the National Academy of Sciences of the United States of America.
[144] A. Mankin,et al. Binding Site of Macrolide Antibiotics on the Ribosome: New Resistance Mutation Identifies a Specific Interaction of Ketolides with rRNA , 2001, Journal of bacteriology.
[145] S. Strobel,et al. A single adenosine with a neutral pKa in the ribosomal peptidyl transferase center. , 2000, Science.
[146] Frank Schluenzen,et al. Structural basis of the ribosomal machinery for peptide bond formation, translocation, and nascent chain progression. , 2003, Molecular cell.
[147] K. Marcker,et al. Ribosome-catalyzed peptidyl transfer: substrate specificity at the P-site. , 1968, Proceedings of the National Academy of Sciences of the United States of America.
[148] Måns Ehrenberg,et al. The mechanism of action of macrolides, lincosamides and streptogramin B reveals the nascent peptide exit path in the ribosome. , 2003, Journal of molecular biology.
[149] Poul Nissen,et al. The structures of four macrolide antibiotics bound to the large ribosomal subunit. , 2002, Molecular cell.
[150] A. Zamir,et al. The possible involvement of peptidyl transferase in the termination step of protein biosynthesis. , 1969, Biochemistry.
[151] Chris M. Brown,et al. Translational termination: "stop" for protein synthesis or "pause" for regulation of gene expression. , 1992, Biochemistry.
[152] C. Vonrhein,et al. Structure of the 30S ribosomal subunit , 2000, Nature.
[153] R. Berisio,et al. Structural Insight into the Antibiotic Action of Telithromycin against Resistant Mutants , 2003, Journal of bacteriology.
[154] Thomas A. Steitz,et al. RNA tertiary interactions in the large ribosomal subunit: The A-minor motif , 2001, Proceedings of the National Academy of Sciences of the United States of America.
[155] R. Garrett,et al. Fine structure of the peptidyl transferase centre on 23 S-like rRNAs deduced from chemical probing of antibiotic-ribosome complexes. , 1995, Journal of molecular biology.
[156] A. Mankin,et al. A ketolide resistance mutation in domain II of 23S rRNA reveals the proximity of hairpin 35 to the peptidyl transferase centre , 1999, Molecular microbiology.
[157] M Yarus,et al. An inhibitor of ribosomal peptidyl transferase using transition-state analogy. , 1995, Biochemistry.
[158] Bruno P. Klaholz,et al. Visualization of release factor 3 on the ribosome during termination of protein synthesis , 2004, Nature.
[159] H. Bartels,et al. Alterations at the peptidyl transferase centre of the ribosome induced by the synergistic action of the streptogramins dalfopristin and quinupristin , 2004, BMC Biology.
[160] L. Kisselev,et al. Substitutions of the Glutamine Residue in the ubiquitous GGQ tripeptide in human eRF1 do not entirely abolish the release factor activity , 2000, Molecular Biology.
[161] S. Strobel,et al. Exploration of the conserved A+C wobble pair within the ribosomal peptidyl transferase center using affinity purified mutant ribosomes. , 2004, Nucleic acids research.
[162] R. Zarivach,et al. 23S rRNA base pair 2057-2611 determines ketolide susceptibility and fitness cost of the macrolide resistance mutation 2058A-->G. , 2005, Proceedings of the National Academy of Sciences of the United States of America.
[163] K. Lieberman,et al. Mutations in the peptidyl transferase region of E. coli 23S rRNA affecting translational accuracy. , 1994, Nucleic acids research.
[164] L. Frolova,et al. Class-1 translation termination factors: invariant GGQ minidomain is essential for release activity and ribosome binding but not for stop codon recognition. , 2001, Nucleic acids research.
[165] A. Beaudet,et al. Hydrolysis of fMet-tRNA by peptidyl transferase. , 1971, Proceedings of the National Academy of Sciences of the United States of America.
[166] R. Miskin,et al. Inactivation and reactivation of ribosomal subunits: the peptidyl transferase activity of the 50 s subunit of Escherihia coli. , 1970, Journal of molecular biology.
[167] H. Noller,et al. Interaction of tRNA with 23S rRNA in the ribosomal A, P, and E sites , 1989, Cell.
[168] T. Steitz,et al. The kink‐turn: a new RNA secondary structure motif , 2001, The EMBO journal.