M
Matthias P. Mayer
Researcher at Heidelberg University
Publications - 167
Citations - 15809
Matthias P. Mayer is an academic researcher from Heidelberg University. The author has contributed to research in topics: Chaperone (protein) & Protein folding. The author has an hindex of 62, co-authored 166 publications receiving 13680 citations. Previous affiliations of Matthias P. Mayer include University of Freiburg & German Cancer Research Center.
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Journal ArticleDOI
Impaired interdomain communication in mitochondrial Hsp70 results in the loss of inward-directed translocation force.
Dorothea Becker,Dorothea Becker,Martin Krayl,Andreas Strub,Yanfeng Li,Matthias P. Mayer,Wolfgang Voos +6 more
TL;DR: It is concluded that even a partial disruption of the interdomain communication in the mtHsp70 chaperone results in an almost complete breakdown of its translocation-driving properties.
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Analyzing protein dynamics using hydrogen exchange mass spectrometry.
Nikolai Hentze,Matthias P. Mayer +1 more
TL;DR: A general protocol for studying protein dynamics with HX-MS is provided and as an example how to reveal the interaction interface of two proteins in a complex is described.
Journal ArticleDOI
Light-induced differences in conformational dynamics of the circadian clock regulator VIVID.
TL;DR: The data demonstrate that all structural elements of VVDD except for the N-cap region exchange according to the rare EX1 mechanism indicating a reversible unfolding with rather slow refolding rate, and the dimerization interface showed very little protection suggesting a rapid dimer-monomer interconversion.
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Phosphotyrosine confers client specificity to Hsp90.
TL;DR: In this issue of Molecular Cell, Mollapour et al. report a new tyrosine phosphorylation site in Hsp 90, which is essential for Hsp90's interaction with a subset of its client proteins, notably protein kinases.
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The Hsp70 homolog Ssb affects ribosome biogenesis via the TORC1-Sch9 signaling pathway
TL;DR: The authors find that the ribosome biogenesis defect associated with the loss of Ssb is attributable to a specific disruption in TORC1 signaling rather than defects in ribosomal protein folding.