Literature DB >> 28758290

Crystal structure of master biofilm regulator CsgD regulatory domain reveals an atypical receiver domain.

Yurong Wen1, Zhenlin Ouyang1, Bart Devreese2, Wangxiao He1, Yongping Shao1, Wuyuan Lu1, Fang Zheng3.   

Abstract

The master regulator CsgD switches planktonic growth to biofilm formation by activating synthesis of curli fimbriae and cellulose in Enterobacteriaceae. CsgD was classified to be the LuxR response regulatory family, while its cognate sensor histidine kinase has not been identified yet. CsgD consists of a C-terminal DNA binding domain and an N-terminal regulatory domain that provokes the upstream signal transduction to further modulate its function. We provide the crystal structure of Salmonella Typhimurium CsgD regulatory domain, which reveals an atypical β5α5 response regulatory receiver domain folding with the α2 helix representing as a disorder loop compared to the LuxR/FixJ canonical response regulator, and the structure indicated a noteworthy α5 helix similar to the non-canonical master regulator VpsT receiver domain α6. CsgD regulatory domain assembles with two dimerization interfaces mainly through α1 and α5, which has shown similarity to the c-di-GMP independent and stabilized dimerization interface of VpsT from Vibrio cholerae respectively. The potential phosphorylation site D59 is directly involved in the interaction of interfaces I and mutagenesis studies indicated that both dimerization interfaces could be crucial for CsgD activity. The structure reveals important molecular details for the dimerization assembly of CsgD and will shed new insight into its regulation mechanism.
© 2017 The Protein Society.

Entities:  

Keywords:  CsgD; crystallography; receiver domain; response regulator; signal transduction

Mesh:

Substances:

Year:  2017        PMID: 28758290      PMCID: PMC5606546          DOI: 10.1002/pro.3245

Source DB:  PubMed          Journal:  Protein Sci        ISSN: 0961-8368            Impact factor:   6.725


  35 in total

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Review 7.  Curli biogenesis and function.

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