Gang Dong

Dr. Gang Dong

Computational and Structural Biology, Max F. Perutz Laboratories, Medical University of Vienna, Vienna, Austria

Research Focus & Metrics

Academic Career Length

26Years (2001-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 January 2009 in Immunity
Verified
Journal Article
Closed access
Gang DongGang Dong
Gang Dong
PWPamela A. Wearsch
Pamela A. Wearsch
DPDavid R. Peaper
David R. Peaper
PCPeter Cresswell
Peter Cresswell
KRKarin M. Reinisch
Karin M. Reinisch

26 October 2005 in Nature Structural & Molecular Biology
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Journal Article
Closed access
PDF file
Gang DongGang Dong
Gang Dong
AHAlex H Hutagalung
Alex H Hutagalung
CFChunmei Fu
Chunmei Fu
PNPeter Novick
Peter Novick
KRKarin M Reinisch
Karin M Reinisch

19 February 2004 in The EMBO Journal
Verified
Journal Article
Open access
PDF file
Gang DongGang Dong
Gang Dong
GCGhadiyaram Chakshusmathi
Ghadiyaram Chakshusmathi
SWSandra Wolin
Sandra Wolin
KRKarin M Reinisch
Karin M Reinisch
EMBO Press is an editorially independent publishing platform for the development of EMBO scientific publications.

1 October 2001 in Nature Structural & Molecular Biology
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Journal Article
Closed access
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ZZZ. Hong Zhou
Z. Hong Zhou
MBMatthew L. Baker
Matthew L. Baker
WJWen Jiang
Wen Jiang
MDMatthew Dougherty
Matthew Dougherty
JJJoanita Jakana
Joanita Jakana
WCWah Chiu
Wah Chiu

12 October 2012 in The EMBO Journal
Verified
Journal Article
Open access
PDF file
RQRenping Qiao
Renping Qiao
GCGabriela Cabral
Gabriela Cabral
MLMolly M Lettman
Molly M Lettman
ADAlexander Dammermann
Alexander Dammermann
Gang DongGang Dong
Gang Dong
The centriole is a conserved microtubule‐based organelle essential for both centrosome formation and cilium biogenesis. Five conserved proteins for centriole duplication have been identified. Two of them, SAS‐5 and SAS‐6, physically interact with each other and are codependent for their targeting to procentrioles. However, it remains unclear how these two proteins interact at the molecular level. Here, we demonstrate that the short SAS‐5 C‐terminal domain (residues 390–404) specifically binds to a narrow central region (residues 275–288) of the SAS‐6 coiled coil. This was supported by the crystal structure of the SAS‐6 coiled‐coil domain (CCD), which, together with mutagenesis studies, indicated that the association is mediated by synergistic hydrophobic and electrostatic interactions. The crystal structure also shows a periodic charge pattern along the SAS‐6 CCD, which gives rise to an anti‐parallel tetramer. Overall, our findings establish the molecular basis of the specific interaction between SAS‐5 and SAS‐6, and suggest that both proteins individually adopt an oligomeric conformation that is disrupted upon the formation of the hetero‐complex to facilitate the correct assembly of the nine‐fold symmetric centriole.

1 August 2014 in Structure
Verified
Journal Article
Closed access
ESEkaterina Shimanovskaya
Ekaterina Shimanovskaya
VVValeria Viscardi
Valeria Viscardi
JLJohannes Lesigang
Johannes Lesigang
MLMolly M. Lettman
Molly M. Lettman
RQRenping Qiao
Renping Qiao
Gang DongGang Dong
Gang Dong