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Genomics, evolution, and crystal structure of a new family of bacterial spore kinases
Authors
Abe
Altschul
+70 more
Bagyan
Berman
Boehr
Bossemeyer
Boudeau
Brinkworth
Burk
CCP4
Ciccarelli
Clepet
Crooks
Davis
Driks
Driks
Edgar
Eichenberger
Eichenberger
Emsley
Fong
Gibbs
Guindon
Henriques
Holm
Holm
Hon
Hullo
Hunter
Jones
Kannan
Kannan
Kim
Klobutcher
Knighton
Kuwana
Labesse
Lai
Landau
Lesley
Leslie
Li
Ludwig
Madhusudan
Malito
Markowitz
McPhillips
Min
Mukherjee
Nolen
Peisach
Ringe
Santarsiero
Sattley
Scheeff
Scheeff
Schneider
Sebolt-Leopold
Setlow
Takamatsu
Takamatsu
Tatusov
Taylor
Terwilliger
Terwilliger
Thompson
Tickle
van Ooij
Vriend
Winn
Yang
Zeqiraj
Publication date
Publisher
Wiley Subscription Services, Inc., A Wiley Company
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PubMed
Abstract
Bacterial spore formation is a complex process of fundamental relevance to biology and human disease. The spore coat structure is complex and poorly understood, and the roles of many of the protein components remain unclear. We describe a new family of spore coat proteins, the bacterial spore kinases (BSKs), and the first crystal structure of a BSK, YtaA (CotI) from Bacillus subtilis. BSKs are widely distributed in spore-forming Bacillus and Clostridium species, and have a dynamic evolutionary history. Sequence and structure analyses indicate that the BSKs are CAKs, a prevalent group of small molecule kinases in bacteria that is distantly related to the eukaryotic protein kinases. YtaA has substantial structural similarity to CAKs, but also displays distinctive features that broaden our understanding of the CAK group. Evolutionary constraint analysis of the protein surfaces indicates that members of the BSK family have distinct clade-conserved patterns in the substrate binding region, and probably bind and phosphorylate distinct targets. Several classes of BSKs have apparently independently lost catalytic activity to become pseudokinases, indicating that the family also has a major noncatalytic function. Proteins 2010. © 2009 Wiley-Liss, Inc
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Last time updated on 11/12/2019