P. Carbon

发表

A general secondary-structure model for procaryotic and eucaryotic RNAs from the small ribosomal subunits.

P. Stiegler, P. Carbon, J. Ebel, 1981, European journal of biochemistry.

Structural organization of the 16S ribosomal RNA from E. coli. Topography and secondary structure.

M. Zuker, P. Stiegler, P. Carbon, 1981, Nucleic acids research.

A novel RNA structural motif in the selenocysteine insertion element of eukaryotic selenoprotein mRNAs.

E. Westhof, P. Carbon, R. Walczak, 1996, RNA.

From RNA Structure to the Identification of New Genes : The Example of selenoproteins

D. Gautheret, P. Carbon, A. Krol, 2000 .

Novel Selenoproteins Identified in Silico andin Vivo by Using a Conserved RNA Structural Motif*

D Gautheret, D. Gautheret, P. Carbon, 1999, The Journal of Biological Chemistry.

An unusually compact external promoter for RNA polymerase III transcription of the human H1RNA gene.

P. Carbon, A. Krol, J. Amé, 2001, Nucleic acids research.

Two Distinct Domains in Staf To Selectively Activate Small Nuclear RNA-Type and mRNA Promoters

P. Carbon, A. Krol, C. Schuster, 1998, Molecular and Cellular Biology.

Transcription factor hStaf/ZNF143 is required for expression of the human TFAM gene.

P. Carbon, A. Krol, M. Gérard, 2007, Gene.

Transcription of the human cell cycle regulated BUB1B gene requires hStaf/ZNF143

P. Carbon, A. Krol, E. Myslinski, 2007, Nucleic acids research.

Maximization of Selenocysteine tRNA and U6 Small Nuclear RNA Transcriptional Activation Achieved by Flexible Utilization of a Staf Zinc Finger*

P. Carbon, A. Krol, E. Myslinski, 1999, The Journal of Biological Chemistry.

Flexible Zinc Finger Requirement for Binding of the Transcriptional Activator Staf to U6 Small Nuclear RNA and tRNASec Promoters*

P. Carbon, A. Krol, M. Schaub, 1999, The Journal of Biological Chemistry.

Changing the RNA polymerase specificity of U snRNA gene promoters

P. Carbon, A. Krol, N. Dathan, 1988, Cell.

Transcription of the Xenopus laevis selenocysteine tRNA(Ser)Sec gene: a system that combines an internal B box and upstream elements also found in U6 snRNA genes.

P. Carbon, A. Krol, 1991, The EMBO journal.

A factor with Sp1 DNA-binding specificity stimulates Xenopus U6 snRNA in vivo transcription by RNA polymerase III.

P. Carbon, A. Krol, G. Tebb, 1992, Journal of molecular biology.

Optimal tRNA((Ser)Sec) gene activity requires an upstream SPH motif.

P. Carbon, A. Krol, E. Myslinski, 1992, Nucleic acids research.

Two Distinct Domains in Staf To Selectively Activate Small Nuclear RNA-Type and mRNA Promoters

P. Carbon, A. Krol, C. Schuster, 1998, Molecular and Cellular Biology.

Protein factors mediating selenoprotein synthesis.

P. Carbon, A. Krol, D. Fagegaltier, 2002, Current protein & peptide science.

A common octamer motif binding protein is involved in the transcription of U6 snRNA by RNA polymerase III and U2 snRNA by RNA polymerase II

P. Carbon, J. Ebel, A. Krol, 1987, Cell.

Point mutations 5' to the tRNA selenocysteine TATA box alter RNA polymerase III transcription by affecting the binding of TBP.

A. Sentenac, P. Carbon, A. Krol, 1993, Nucleic acids research.

Solution structure of SECIS, the mRNA element required for eukaryotic selenocysteine insertion--interaction studies with the SECIS-binding protein SBP.

P. Carbon, R. Walczak, A. Krol, 1997, Biomedical and environmental sciences : BES.

Enzymatic replacement in vitro of the first anticodon base of yeast tRNAAsp: application to the study of tRNA maturation in vivo, after microinjection into frog oocytes.

P. Carbon, H. Grosjean, S. De Henau, 1982, Nucleic acids research.

RNAs mediating cotranslational insertion of selenocysteine in eukaryotic selenoproteins.

E Westhof, E. Westhof, P. Carbon, 1996, Biochimie.

Selenocysteylation in Eukaryotes Necessitates the Uniquely Long Aminoacyl Acceptor Stem of Selenocysteine tRNASec(*)

P. Carbon, A. Krol, C. Sturchler-Pierrat, 1995, The Journal of Biological Chemistry.

Base modification pattern at the wobble position of Xenopus selenocysteine tRNA(Sec).

P. Carbon, A. Krol, A. Lescure, 1994, Nucleic acids research.

Transcription factors required for the expression of Xenopus laevis selenocysteine tRNA in vitro.

P. Carbon, A. Krol, W. Meissner, 1994, Nucleic acids research.

Promoter strength and structure dictate module composition in RNA polymerase III transcriptional activator elements.

P. Carbon, A. Krol, C. Schuster, 1993, Journal of molecular biology.

Further characterisation of the RNA structure in the binding region of protein S4 on 16 S ribosomal RNA of Escherichia coli

R. Garrett, P. Stiegler, P. Carbon, 1977, FEBS letters.

Genome-wide evidence for an essential role of the human Staf/ZNF143 transcription factor in bidirectional transcription

P. Carbon, A. Krol, O. Poch, 2010, Nucleic acids research.

Importance of conserved residues for the conformation of the T-loop in tRNAs.

E. Westhof, P. Carbon, J. Ebel, 1987, Journal of biomolecular structure & dynamics.

The complete nucleotide sequence of the ribosomal 16-S RNA from Excherichia coli. Experimental details and cistron heterogeneities.

P. Carbon, J. Ebel, C. Ehresmann, 1979, European journal of biochemistry.

Precise localization of several covalent RNA-RNA cross-link in Escherichia coli 16S RNA.

P. Carbon, A. Expert-Bezancon, M. Milet, 1983, European journal of biochemistry.

Characterization of snRNA and snRNA-type genes in the pufferfish Fugu rubripes.

P. Carbon, A. Krol, Alain Krol, 2004, Gene.

Structural analysis of new local features in SECIS RNA hairpins.

P. Carbon, R. Walczak, A. Krol, 2000, Nucleic acids research.

Modulation of gene expression via overlapping binding sites exerted by ZNF143, Notch1 and THAP11

J. Aster, P. Carbon, E. Myslinski, 2013, Nucleic acids research.

Transcription factor abundance controlled by an auto-regulatory mechanism involving a transcription start site switch

P. Carbon, R. P. Ngondo, 2013, Nucleic acids research.

ZNF76 and ZNF143 Are Two Human Homologs of the Transcriptional Activator Staf*

P. Carbon, A. Krol, P Carbon, 1998, The Journal of Biological Chemistry.

The scaRNA2 is produced by an independent transcription unit and its processing is directed by the encoding region

P. Carbon, A. Krol, S. Baudrey, 2009, Nucleic acids research.

Xenopus tropicalis U6 snRNA genes transcribed by Pol III contain the upstream promoter elements used by Pol II dependent U snRNA genes.

P. Carbon, J. Ebel, A. Krol, 1987, Nucleic acids research.

Solution structure of human U1 snRNA. Derivation of a possible three- dimensional model

Eric Westhof, M. Bach, J. P. Ebel, 1990, Nucleic Acids Res..

The selenocysteine insertion sequence binding protein SBP is different from the Y-box protein dbpB.

P. Carbon, A. Krol, D. Fagegaltier, 2000, Biochimie.

Sequence, organization and transcriptional analysis of a gene encoding a U1 snRNA from the axolotl, Ambystoma mexicanum.

P. Carbon, A. Krol, S. Murgo, 1991, Gene.

Modulation of gene expression via overlapping binding sites exerted by ZNF 143 , Notch 1 and THAP 11

J. Aster, P. Carbon, E. Myslinski, 2013 .

A guide for probing native small nuclear RNA and ribonucleoprotein structures.

P. Carbon, A. Krol, 1989, Methods in enzymology.

An essential non-Watson-Crick base pair motif in 3'UTR to mediate selenoprotein translation.

P. Carbon, R. Walczak, A. Krol, 1998, RNA.

A protein binds the selenocysteine insertion element in the 3'-UTR of mammalian selenoprotein mRNAs.

P. Carbon, R. Walczak, A. Krol, 1996, Nucleic acids research.

The Secis Element in Selenoprotein mRNAs. A Rosetta Stone for Decoding the UGA Selenocysteine Codon and a Molecular Tag for Unveiling New Selenoproteins

D. Gautheret, P. Carbon, R. Walczak, 2002 .

Distinctive features in the SelB family of elongation factors for selenoprotein synthesis. A glimpse of an evolutionary complexified translation apparatus.

P. Carbon, A. Krol, D. Fagegaltier, 2001, BioFactors.

cDNA cloning, expression pattern and RNA binding analysis of human selenocysteine insertion sequence (SECIS) binding protein 2.

P. Carbon, A. Krol, A. Lescure, 2002, Gene.

The SBP2 and 15.5 kD/Snu13p proteins share the same RNA binding domain: identification of SBP2 amino acids important to SECIS RNA binding.

P. Carbon, A. Krol, C. Allmang, 2002, RNA.

The sequence of Escherichia coli ribosomal 16 S RNA determined by new rapid gel methods

P. Carbon, J. Ebel, C. Ehresmann, 1978, FEBS letters.

Recent progress in the determination of the primary sequence of the 16 S RNA of Escherichia coli

P. Stiegler, P. Carbon, J. Ebel, 1977, FEBS letters.

Staf, a novel zinc finger protein that activates the RNA polymerase III promoter of the selenocysteine tRNA gene.

P. Carbon, A. Krol, C. Schuster, 1995, The EMBO journal.

A Genome Scale Location Analysis of Human Staf/ZNF143-binding Sites Suggests a Widespread Role for Human Staf/ZNF143 in Mammalian Promoters*

P. Carbon, A. Krol, E. Myslinski, 2006, Journal of Biological Chemistry.

The topography of the 5' end of 16-S RNA in the presence and absence of ribosomal proteins S4 and S20.

R. Garrett, P. Stiegler, P. Carbon, 1980, European journal of biochemistry.

The Complete Nucleotide Sequence of the Ribosomal 16‐S RNA from Escherichia coli

P. Carbon, J. Ebel, C. Ehresmann, 1979 .

Topography of 16 S RNA in 30 S subunits and 70 S ribosomes accessibility to cobra venom ribonuclease.

P. Carbon, J. Ebel, C. Ehresmann, 1981, Journal of molecular biology.

The sequence of the ribosomal 16S RNA from Proteus vulgaris. Sequence comparison with E. coli 16S RNA and its use in secondary structure model building

P. Carbon, J. Ebel, C. Ehresmann, 1981 .

Unique secondary and tertiary structural features of the eucaryotic selenocysteine tRNA(Sec).

E. Westhof, P. Carbon, A. Krol, 1993, Nucleic acids research.

The different positioning of the proximal sequence element in the Xenopus RNA polymerase II and III snRNA promoters is a key determinant which confers RNA polymerase III specificity.

P. Carbon, A. Krol, A. Lescure, 1991, Nucleic acids research.

In vitro construction of yeast tRNAAsp variants: nucleotide substitutions and additions in T-stem and T-loop.

P. Carbon, J. Ebel, 1987, Nucleic acids research.

Site‐directed in vitro replacement of nucleosides in the anticodon loop of tRNA: application to the study of structural requirements for queuine insertase activity.

P. Carbon, H. Grosjean, M. Fournier, 1983, The EMBO journal.

A topographical study of the 5′‐region of 16 S RNA of Escherichia coli in the presence and absence of protein S4

R. Garrett, P. Stiegler, P. Carbon, 1977, FEBS letters.

Structural organization of Staf-DNA complexes.

P. Carbon, A. Krol, M. Schaub, 2000, Nucleic acids research.

The differential transcriptional activity of two amphibian U1 small-nuclear RNA genes correlates with structural differences in the proximal sequence element.

P. Carbon, A. Krol, S. Murgo, 1992, European journal of biochemistry.

Structure, Evolution and Interactions of Ribosomal RNAs

P. Stiegler, P. Carbon, J. Ebel, 1983 .

Sequence and Secondary Structure Conservation in Ribosomal RNAs in the Course of Evolution

P. Stiegler, P. Carbon, J. Ebel, 1983 .

Characterization of mSelB, a novel mammalian elongation factor for selenoprotein translation

P. Carbon, A. Krol, D. Fagegaltier, 2000, The EMBO journal.

Staf, a promiscuous activator for enhanced transcription by RNA polymerases II and III

P. Carbon, A. Krol, C. Schuster, 1997, The EMBO journal.

ZNF143 is regulated through alternative 3'UTR isoforms.

P. Carbon, R. P. Ngondo, 2014, Biochimie.

An additional long-range interaction in human U1 snRNA.

P. Carbon, A. Krol, C. Sturchler, 1992, Nucleic acids research.