I. Weygand‐Durasevic

发表

Dual targeting of organellar seryl-tRNA synthetase to maize mitochondria and chloroplasts

A. Duchêne, M. Dulic, Jasmina Rokov-Plavec, 2008, Plant Cell Reports.

Shuffling of discrete tRNASer regions reveals differently utilized identity elements in yeast and methanogenic archaea.

Mario Cindrić, I. Gruic‐Sovulj, M. Dulic, 2006, Journal of molecular biology.

Characterization of yeast seryl-tRNA synthetase active site mutants with improved discrimination against substrate analogues.

I. Landeka, B. Žinić, I. Weygand‐Durasevic, 2000, Biochimica et biophysica acta.

Identifying Pex21p as a protein that specifically interacts with yeast seryl-tRNA synthetase.

I. Landeka, I. Weygand‐Durasevic, S. Rocak, 2002, FEMS microbiology letters.

Structural changes of yeast tRNA(Tyr) caused by the binding of divalent ions in the presence of spermine.

Ž. Kućan, V. Nöthig-Laslo, I. Weygand‐Durasevic, 1985, Journal of biomolecular structure & dynamics.

Conformational changes in yeast tRNATyr revealed by EPR spectra of spin-labelled N6-(delta2-isopentenyl)-adenosine residue.

Ž. Kućan, J. Herak, V. Nöthig-Laslo, 1977, Biochimica et biophysica acta.

Identification of Amino Acids in the N-terminal Domain of Atypical Methanogenic-type Seryl-tRNA Synthetase Critical for tRNA Recognition*

N. Ban, S. Bilokapic, A. Crnković, 2009, The Journal of Biological Chemistry.

Homologs of aminoacyl-tRNA synthetases acylate carrier proteins and provide a link between ribosomal and nonribosomal peptide synthesis

N. Ban, T. Maier, S. Bilokapic, 2010, Proceedings of the National Academy of Sciences.

Substrate recognition and fidelity of maize seryl-tRNA synthetases.

I. Gruic‐Sovulj, M. Dulic, Marko Mocibob, 2013, Archives of biochemistry and biophysics.

The proximal region of a noncatalytic eukaryotic seryl-tRNA synthetase extension is required for protein stability in vitro and in vivo.

Marko Mocibob, I. Weygand‐Durasevic, 2008, Archives of biochemistry and biophysics.

Differential Modes of Transfer RNASer Recognition in Methanosarcina barkeri*

D. Söll, D. Korencić, C. Polycarpo, 2004, Journal of Biological Chemistry.

C‐terminal truncation of yeast SerRS is toxic for Saccharomyces cerevisiae due to altered mechanism of substrate recognition

D. Söll, B. Lenhard, M. Prætorius-Ibba, 1998, FEBS letters.

Sequence-specific spin labeling of DNA.

I. Weygand‐Durasevic, S. Susic, 1990, Biochimica et biophysica acta.

Detection of Noncovalent tRNA·Aminoacyl-tRNA Synthetase Complexes by Matrix-assisted Laser Desorption/Ionization Mass Spectrometry*

Ž. Kućan, J. Peter-Katalinic, F. Hillenkamp, 1997, The Journal of Biological Chemistry.

Matrix-assisted laser desorption/ionisation mass spectrometry of transfer ribonucleic acids isolated from yeast.

Ž. Kućan, J. Peter-Katalinic, F. Hillenkamp, 1997, Nucleic acids research.

The C-terminal Extension of Yeast Seryl-tRNA Synthetase Affects Stability of the Enzyme and Its Substrate Affinity (*)

D. Söll, B. Lenhard, I. Weygand‐Durasevic, 1996, The Journal of Biological Chemistry.

Cloning and characterization of the gene coding for cytoplasmic seryl-tRNA synthetase from Saccharomyces cerevisiae.

D. Söll, I. Weygand‐Durasevic, D. Johnson-Burke, 1987, Nucleic acids research.

Structure of the unusual seryl‐tRNA synthetase reveals a distinct zinc‐dependent mode of substrate recognition

D. Söll, N. Ban, T. Maier, 2006, The EMBO journal.

New Roles for Codon Usage

M. Ibba, I. Weygand‐Durasevic, 2010, Science.

tRNA-dependent amino acid discrimination by yeast seryl-tRNA synthetase.

D. Söll, I. Gruic‐Sovulj, I. Landeka, 2002, European journal of biochemistry.

Archaeal aminoacyl-tRNA synthetases interact with the ribosome to recycle tRNAs

Vesna Hodnik, Gregor Anderluh, Basil J. Greber, 2014, Nucleic acids research.

An Archaeal tRNA-Synthetase Complex that Enhances Aminoacylation under Extreme Conditions*

M. Ibba, Vlatka Godinić-Mikulčić, I. Weygand‐Durasevic, 2010, The Journal of Biological Chemistry.

1 AN ARCHAEAL tRNA-SYNTHETASE COMPLEX THAT ENHANCES AMINOACYLATION UNDER EXTREME CONDITIONS

M. Ibba, Vlatka Godinić-Mikulčić, I. Weygand‐Durasevic, 2010 .

The influence of elongation-factor-Tu . GTP and anticodon-anticodon interactions on the anticodon loop conformation of yeast tRNATyr.

B. Clark, T. Kruse, I. Weygand‐Durasevic, 1981, European journal of biochemistry.

Cryo-EM structure of the archaeal 50S ribosomal subunit in complex with initiation factor 6 and implications for ribosome evolution.

Daniel Boehringer, D. Boehringer, N. Ban, 2012, Journal of molecular biology.

Maize seryl-tRNA synthetase: specificity of substrate recognition by the organellar enzyme.

I. Mijakovic, I. Landeka, Jasmina Rokov-Plavec, 2002, Archives of biochemistry and biophysics.

Defining the Active Site of Yeast Seryl-tRNA Synthetase

D. Söll, B. Lenhard, I. Landeka, 1997, The Journal of Biological Chemistry.

Peroxin Pex21p interacts with the C‐terminal noncatalytic domain of yeast seryl‐tRNA synthetase and forms a specific ternary complex with tRNASer

M. Ibba, Marko Mocibob, I. Weygand‐Durasevic, 2007, The FEBS journal.

tRNA recognition and evolution of determinants in seryl-tRNA synthesis.

B. Lenhard, M. Ibba, O. Orellana, 1999, Nucleic acids research.

The unusual methanogenic seryl-tRNA synthetase recognizes tRNASer species from all three kingdoms of life.

D. Söll, S. Bilokapic, D. Korencić, 2004, European journal of biochemistry.

Evidence for two types of complexes formed by yeast tyrosyl-tRNA synthetase with cognate and non-cognate tRNA. Effect of ribonucleoside triphosphates.

Ž. Kućan, I. Weygand-Durašević, I. Rubelj, 1990, European journal of biochemistry.

Thiobacillus ferrooxidans tyrosyl-tRNA synthetase functions in vivo in Escherichia coli

D. Söll, O. Salazar, B. Sagredo, 1994, Journal of bacteriology.

Involvement of the 3' side of the anticodon loop of yeast tRNATyr in messenger-free binding to ribosomes. An electron-spin resonance study.

Ž. Kućan, V. Nöthig-Laslo, I. Weygand‐Durasevic, 1984, European journal of biochemistry.

Yeast seryl-tRNA synthetase expressed in Escherichia coli recognizes bacterial serine-specific tRNAs in vivo.

D. Söll, D. Jahn, N. Ban, 1993, European journal of biochemistry.

Adaptation of aminoacyl-tRNA synthetase catalytic core to carrier protein aminoacylation.

I. Weygand-Durašević, Nives Ivic, M. Luić, 2013, Structure.

Transfer RNA‐dependent cognate amino acid recognition by an aminoacyl‐tRNA synthetase.

D. Söll, K. Hong, M. Ibba, 1996, The EMBO journal.

Hydrolysis of non‐cognate aminoacyl‐adenylates by a class II aminoacyl‐tRNA synthetase lacking an editing domain

Ita Gruic-Sovulj, Jasmina Rokov-Plavec, Ivana Weygand-Durasevic, 2007, FEBS letters.

An idiosyncratic serine ordering loop in methanogen seryl-tRNA synthetases guides substrates through seryl-tRNASer formation.

S. Bilokapic, J. Požar, I. Gruic‐Sovulj, 2011, Biochimie.

Arabidopsis seryl‐tRNA synthetase: the first crystal structure and novel protein interactor of plant aminoacyl‐tRNA synthetase

V. Hodnik, G. Anderluh, A. Duchêne, 2019, The FEBS journal.

Binding of spermine to tRNATyr stabilizes the conformation of the anticodon loop and creates strong binding sites for divalent cations.

Ž. Kućan, V. Nöthig-Laslo, I. Weygand‐Durasevic, 1981, European journal of biochemistry.

Effect of spermine on transfer RNA and transfer RNA-ribosome interactions.

Ž. Kućan, M. Plohl, T. Naranda, 1988, Advances in experimental medicine and biology.

Specificity in RNA: Protein Interactions; the Recognition of Escherichia Coli Glutamine tRNA

H. Inokuchi, D. Söll, E. Ohtsuka, 1993 .

Acceptor end binding domain interactions ensure correct aminoacylation of transfer RNA.

D. Söll, E. Schwob, I. Weygand‐Durasevic, 1993, Proceedings of the National Academy of Sciences of the United States of America.

Structural flexibility of the methanogenic‐type seryl‐tRNA synthetase active site and its implication for specific substrate recognition

N. Ban, S. Bilokapic, I. Weygand‐Durasevic, 2008, The FEBS journal.

The Accuracy of Seryl-tRNA Synthesis

I. Gruic‐Sovulj, I. Landeka, I. Weygand‐Durasevic, 2002 .

Deletion analysis in the amino-terminal extension of methionyl-tRNA synthetase from Saccharomyces cerevisiae shows that a small region is important for the activity and stability of the enzyme.

J. Ebel, F. Fasiolo, A. Sanni, 1989, The Journal of biological chemistry.

Idiosyncratic Helix-Turn-Helix Motif in Methanosarcina barkeri Seryl-tRNA Synthetase Has a Critical Architectural Role*

N. Ban, I. Piantanida, S. Bilokapic, 2009, Journal of Biological Chemistry.

Selectivity and specificity in the recognition of tRNA by E coli glutaminyl-tRNA synthetase.

H. Inokuchi, D. Söll, E. Schwob, 1993, Biochimie.

Arabidopsis thaliana cytosolic seryl-tRNA synthetase

V. Hodnik, A. Duchêne, I. Gruic‐Sovulj, 2019 .

Seryl-tRNA Synthetases from Methanogenic Archaea: Suppression of Bacterial Amber Mutation and Heterologous Toxicity

Drasko Boko, I. Weygand‐Durasevic, Sonja Lesjak, 2010 .

Recognition between tRNASer and archaeal seryl-tRNA synthetases monitored by suppression of bacterial amber mutations.

I. Weygand‐Durasevic, Sonja Lesjak, 2009, FEMS microbiology letters.

Selective inhibition of divergent seryl‐tRNA synthetases by serine analogues

D. Söll, D. Slade, D. Ahel, 2005, FEBS letters.

Maize mitochondrial seryl-tRNA synthetase recognizes Escherichia coli tRNASer in vivo and in vitro

D. Söll, I. Weygand‐Durasevic, J. Rokov, 1998, Plant Molecular Biology.

SERYL-TRNA SYNTHESIS IN MAIZE

I. Weygand‐Durasevic, J. Rokov, 1999 .

Coexpression of eukaryotic tRNASer and yeast seryl-tRNA synthetase leads to functional amber suppression in Escherichia coli

D. Söll, D Söll, I Weygand-Durasević, 1994, Journal of bacteriology.

Connecting anticodon recognition with the active site of Escherichia coli glutaminyl-tRNA synthetase.

D. Söll, I. Weygand‐Durasevic, Rogers Mj, 1994, Journal of molecular biology.

The recognition of E. coli glutamine tRNA by glutaminyl-tRNA synthetase.

H. Inokuchi, D. Söll, E. Ohtsuka, 1993, Nucleic acids symposium series.