José Berenguer

Prof. José Berenguer

orcid

Research Focus & Metrics

Academic Career Length

45Years (1982-Present)

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

Representative Publications

View All Publications
16 February 2014 in Nature
Verified
Journal Article
Closed access
PDF file
DSDaan C. Swarts
Daan C. Swarts
MJMatthijs M. Jore
Matthijs M. Jore
EWEdze R. Westra
Edze R. Westra
YZYifan Zhu
Yifan Zhu
JJJorijn H. Janssen
Jorijn H. Janssen
JOJohn van der Oost
John van der Oost

21 January 2009 in Extremophiles
Verified
Journal Article
Closed access
PDF file
FCFelipe Cava
Felipe Cava
AHAurelio Hidalgo
Aurelio Hidalgo
JBJosé Berenguer
José Berenguer

6 March 2009 in Biomacromolecules
Verified
Journal Article
Closed access
Juan M. BolivarJuan M. Bolivar
Juan M. Bolivar
Javier Rocha-MartinJavier Rocha-Martin
Javier Rocha-Martin
Cesar MateoCesar Mateo
Cesar Mateo
FCFelipe Cava
Felipe Cava
JBJosé Berenguer
José Berenguer
Jose M. GuisanJose M. Guisan
Jose M. Guisan

1 November 1999 in Plasmid
Verified
Journal Article
Closed access
MGMyriam de Grado
Myriam de Grado
PCPablo Castán
Pablo Castán
JBJosé Berenguer
José Berenguer

30 March 2004 in Molecular Microbiology
Verified
Journal Article
Closed access
PDF file
FCFelipe Cava
Felipe Cava
MPMiguel A. De Pedro
Miguel A. De Pedro
HSHeinz Schwarz
Heinz Schwarz
AHAnke Henne
Anke Henne
JBJosé Berenguer
José Berenguer

1 August 1996 in Journal of Bacteriology
Verified
Journal Article
Closed access
PDF file
GOG Olabarría
G Olabarría
JCJ L Carrascosa
J L Carrascosa
MPM A de Pedro
M A de Pedro
JBJosé Berenguer
José Berenguer
There is experimental evidence to suggest that the 100-kDa S-layer protein from Thermus thermophilus HB8 binds to the peptidoglycan cell wall. This property could be related to the presence of a region (SLH) of homology with other S-layer proteins and extracellular enzymes (A. Lupas, H. Engelhardt, J. Peters, U. Santarius, S. Volker, and W. Baumeister, J. Bacteriol. 176:1224-1233, 1994). By using specific monoclonal antibodies, we show that similar regions are present in different members of the Deinococcus-Thermus phylogenetic group. To analyze the role that the SLH domain plays in vivo and in vitro in T. thermophilus, we have obtained a mutant form (slpA.X) of the S-layer gene (slpA) in which the SLH domain was deleted. The slpA.X gene was inserted into the chromosome of the thermophile by gene replacement, resulting in a mutant which expressed a major membrane protein with the size expected from the construction (90 kDa). This protein was identified as the product of slpA.X by its differential reaction with monoclonal antibodies. Mutants expressing the SlpA.X protein grow as groups of cells, surrounded by a common external envelope of trigonal symmetry that contains the SlpA.X protein as a main component, thus showing the inability of the SLH-defective protein to attach to the underlying material in vivo. In addition, averaged images of SlpA.X-rich fractions showed a regular arrangement, identical to that built up by the wild-type (SlpA) protein in the absence of peptidoglycan. Finally, we demonstrate by Western blotting (immunoblotting) the direct role of the SLH domain in the binding of the S-layer of T. thermophilus HB8 to the peptidoglycan layer.