Presentations Details

Presentations (titles)


Essential Microtubule-Binding Domains in Katanin p80 subunit controle microtubule-severing activity in C. elegans.


Unveiling the critical role of the p80 regulatory subunit for Katanin-Microtubule interaction


Regulation of Katanin : how to bind to a microtubule ?


Structure/function study of the Katanin, a key player of C. elegans female meiosis


Regulation and mode of action of AAA+ proteins: the Katanin example


Multiple strategies to regulate Microtubule Severing Enzyme activity: the Katanin example

 

Space and time regulation of Katanin, an AAA+ ATPase specialized in Microtubule Severing : from the molecule to the organism 

 

Space and time regulation of Katanin, an AAA+ ATPase specialized in Microtubule Severing : from the molecule to the organism 


Bi-modal regulation of the AAA+ Microtubule Severing Enzyme Katanin activity by phosphorylation insures optimal C. elegans early embryo development


Modulation of Katanin activity, an AAA+ ATPase essential for early embryogenesis in C. elegans (Talk)

Characterization of the interaction between Katanin and microtubules  (Poster- Last author)


Regulation of Katanin, an AAA+ Microtubule-Severing Enzyme essential for early embryogenesis in C. elegans (Talk)

How does Katanin interact with and sever microtubules and contribute to the assembly of female meiotic spindle in C. elegans embryo? (Poster -Last author)


Role and regulation of Katanin, a Microtubule Severing Enzyme essential for female meiosis in C. elegans


Role and regulation of the MT-severing enzyme Katanin in C. elegans


New insights on the Katanin, a prototype of microtubule-severing enzyme essential for C. elegans meiosis


Structure-function study of Katanin, a prototype of microtubule-severing enzyme essential for meiosis in C. elegans embryo


Microtubule Dynamics: How an AAA+ microtubule severing enzyme (Katanin) is controlling meiosis in C. elegans embryo.


Functional study of Katanin, a prototype of microtubule-severing enzyme essential for C. elegans meiosis.


Structure-function analysis of Katanin, a prototype of microtubule-severing enzyme essential for meiosis and neural development.


Role of microtubule severing in meiotic spindle assembly in C. elegans.


Enhancer dependent transcription: new insights on the role of the AAA+ activator.


New insights on the role of the AAA+ activator during Enhancer dependent transcription activation.


Enhancer dependent RNA polymerase activation: new insights on the role of the AAA+ activator.


Molecular study of AAA+ ATPases involved in the gene regulation of the predatory bacteria M. xanthus.


Molecular study of AAA+ ATPases involved in the gene regulation of the predatory bacteria M. xanthus


Subunits organization and communication in an hexameric AAA+ ATPase involved in transcription regulation


Study of the Katanin complex (MEI-1/MEI-2) from Caenorhabditis elegans


Molecular Study of an atypical Enhancer Binding Protein from M. xanthus


Identifying the R finger and its role in the bacterial Enhancer Binding Protein PspF.


Engineered single-chain polypeptides reveal an asymmetric organisation of an AAA+ activator involved in enhancer-dependent transcription activation


Engineered AAA+ ATPase oligomer reveals geometric requirements supporting enhancer dependent RNA polymerase activation


How a specialised AAA+ATPase (PspF) uses ATP hydrolysis to remodel its substrate


Using ATP for molecular transformations: coupling ATPase activity of an AAA+ protein (PspF) to transcription activation


Engineering a type member AAA+ protein to reveal geometric requirements for activity


Internal organisation of a bacterial Enhancer Binding Protein requires for efficient coupling of nucleotide hydrolysis event to RNA polymerase remodelling.

A lower-order oligomer of Phage shock protein A (PspA) stably associates with PspF (a sigma54 transciption activator protein) for negative regulation.


In trans regulation of PspF, a sigma54 activator.


Using ATP for molecular transformations: coupling ATPase activity in AAA+ proteins for gene activation


Regulation and functional outputs of an AAA+ protein model (PspF) specialized in bacterial transcription activation


New tools to study sigma54 dependent transcription intermediate


Study of an AAA+ protein model (PspF) specialized in bacterial transcription activation


Coupling nucleotide hydrolysis to transcription activation performance in a bacterial Enhancer Binding Protein.

Formation of stable transcription complexes using AMP Aluminium Fluoride


Coupling nucleotide hydrolysis to transcription activation performance in a bacterial Enhancer Binding Protein


Coupling nucleotide hydrolysis to transcription activation performance in a bacterial Enhancer Binding Protein.

Formation of stable transcription complexes using AMP Aluminium Fluoride

Transition of PspA from regulatory to effector function in the phage shock protein (Psp) response of Escherichia coli


Heterogeneous nucleotide occupancy stimulates functionality of PspF and permits asymmetric interaction with sigma54.


Nucleotide role in structural and functional organisation of an AAA+ protein


Heterogeneous nucleotide occupancy stimulates functionality of PspF, an AAA+ transcriptional activator.


Nucleotide Effects on PspF Activity


Stimulation of PspF hexamerisation by nucleotide binding.


Regulation of a transcriptional activator (MalT) by an ABC transporter


How an ABC transporter regulates MalT