AAA proteins: in search of a common molecular basis. International Meeting on Cellular Functions of AAA Proteins - PubMed (original) (raw)
AAA proteins: in search of a common molecular basis. International Meeting on Cellular Functions of AAA Proteins
M R Maurizi et al. EMBO Rep. 2001 Nov.
No abstract available
Figures
Fig. 1. Structure of the AAA module based on the crystal structure data of HslU from Bochtler et al. (1999). The N-terminal α–β–α nucleotide subdomain is in cyan (α helices) and yellow (β sheet), and the C-terminal helical domain is in blue. ADP (green and magenta) binds between the subdomains, with the Walker motif residues Lys63 (blue) and Asp256 (red) and the Sensor 1 residue Ser307 nearby.
Fig. 2. Proposed mechanisms for AAA proteins. Blue represents substrate and green AAA proteins. (A) Twisting motions between D1 and D2 domains or between N-domains and D1 could lead to unwinding of helical substrate bundles, as is proposed for SNARE disassembly. (B) A pulling apart mechanism, proposed for microtubule disassembly, requires that the substrate components form stable interactions with separate AAA subunits and consequently dissociate from each other, pulled along as the AAA subunits separate. (C) Prying apart of subunits could occur upon partial ring opening, as seems to be the case for DNA clamp loaders. Nucleotide-dependent conformational changes could introduce tension in the ring, causing subunits to separate and forcing bound substrate subunits apart. (D) Threading occurs by unraveling of the protein substrate from one end, as in vectorial translocation of proteins by Clp ATPases. Movement of the polypeptide chain could occur by repeated cycles of substrate binding and release within the channel.
The ‘International Meeting on Cellular Functions of AAA Proteins’ organized by Koreaki Ito and Teru Ogura took place in Kyoto, Japan, March 13–16, 2001.
The authors* and organizers of the meeting (from left to right): Koreaki Ito, Teru Ogura, Mike Maurizi* and Chou Chi Li*
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References
- Glickman M.H., Rubin, D.M., Coux, O., Wefes, I., Pfeifer, G., Cjeka, Z., Baumeister, W., Fried, V.A. and Finley, D. (1998) A subcomplex of the proteasome regulatory particle required for ubiquitin-conjugate degradation and related to the COP9-signalosome and eIF3. Cell, 94, 615–623. - PubMed
- Glover J.R. and Lindquist, S. (1998) Hsp104, Hsp70, and Hsp40: a novel chaperone system that rescues previously aggregated proteins. Cell, 94, 73–82. - PubMed
- Guenther B., Onrust, R., Sali, A., O’Donnell, M. and Kuriyan, J. (1997) Crystal structure of the δ′ subunit of the clamp-loader complex of E. coli DNA polymerase III. Cell, 91, 335–345. - PubMed
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