Crossref Citations
This article has been cited by the following publications. This list is generated based on data provided by
Crossref.
Sozinova, Olga
Jiang, Yi
Kaiser, Dale
and
Alber, Mark
2006.
A three-dimensional model of myxobacterial fruiting-body formation.
Proceedings of the National Academy of Sciences,
Vol. 103,
Issue. 46,
p.
17255.
Kaiser, Dale
2009.
Bacterial Signaling.
p.
41.
Flemming, Hans-Curt
and
Wingender, Jost
2010.
The biofilm matrix.
Nature Reviews Microbiology,
Vol. 8,
Issue. 9,
p.
623.
Konovalova, Anna
Petters, Tobias
and
Søgaard-Andersen, Lotte
2010.
Extracellular biology ofMyxococcus xanthus.
FEMS Microbiology Reviews,
Vol. 34,
Issue. 2,
p.
89.
Hendrata, M.
and
Birnir, B.
2010.
Dynamic-energy-budget-driven fruiting-body formation in myxobacteria.
Physical Review E,
Vol. 81,
Issue. 6,
Hu, Wei
Hossain, Muhaiminu
Lux, Renate
Wang, Jing
Yang, Zhe
Li, Yuezhong
Shi, Wenyuan
and
Rutherford, Julian
2011.
Exopolysaccharide-Independent Social Motility of Myxococcus xanthus.
PLoS ONE,
Vol. 6,
Issue. 1,
p.
e16102.
Wang, Jing
Hu, Wei
Lux, Renate
He, Xuesong
Li, Yuezhong
and
Shi, Wenyuan
2011.
Natural Transformation of Myxococcus xanthus.
Journal of Bacteriology,
Vol. 193,
Issue. 9,
p.
2122.
Hendrata, Melisa
Yang, Zhe
Lux, Renate
Shi, Wenyuan
and
Sarkar, Indra Neil
2011.
Experimentally Guided Computational Model Discovers Important Elements for Social Behavior in Myxobacteria.
PLoS ONE,
Vol. 6,
Issue. 7,
p.
e22169.
Hu, Wei
Li, Lina
Sharma, Shivani
Wang, Jing
McHardy, Ian
Lux, Renate
Yang, Zhe
He, Xuesong
Gimzewski, James K.
Li, Yuezhong
Shi, Wenyuan
and
Zhou, Zhongjun
2012.
DNA Builds and Strengthens the Extracellular Matrix in Myxococcus xanthus Biofilms by Interacting with Exopolysaccharides.
PLoS ONE,
Vol. 7,
Issue. 12,
p.
e51905.
Harvey, Cameron W.
Du, Huijing
Xu, Zhiliang
Kaiser, Dale
Aranson, Igor
Alber, Mark
and
Shvartsman, Stanislav
2012.
Interconnected Cavernous Structure of Bacterial Fruiting Bodies.
PLoS Computational Biology,
Vol. 8,
Issue. 12,
p.
e1002850.
Hu, Wei
Yang, Zhe
Lux, Renate
Zhao, Minglei
Wang, Jing
He, Xuesong
and
Shi, Wenyuan
2012.
Direct visualization of the interaction between pilin and exopolysaccharides of Myxococcus xanthus with eGFP-fused PilA protein.
FEMS Microbiology Letters,
Vol. 326,
Issue. 1,
p.
23.
Hu, Wei
Wang, Jing
McHardy, Ian
Lux, Renate
Yang, Zhe
Li, Yuezhong
and
Shi, Wenyuan
2012.
Effects of exopolysaccharide production on liquid vegetative growth, stress survival, and stationary phase recovery in Myxococcus xanthus.
The Journal of Microbiology,
Vol. 50,
Issue. 2,
p.
241.
Müller, Frank D.
Schink, Christian W.
Hoiczyk, Egbert
Cserti, Emöke
and
Higgs, Penelope I.
2012.
Spore formation in Myxococcus xanthus is tied to cytoskeleton functions and polysaccharide spore coat deposition.
Molecular Microbiology,
Vol. 83,
Issue. 3,
p.
486.
Kimura, Yoshio
Kato, Takuya
and
Mori, Yumi
2012.
Function analysis of a bacterial tyrosine kinase, BtkB, inMyxococcus xanthus.
FEMS Microbiology Letters,
Vol. 336,
Issue. 1,
p.
45.
Hu, Wei
Lux, Renate
and
Shi, Wenyuan
2013.
Bacterial Cell Surfaces.
Vol. 966,
Issue. ,
p.
121.
Gibiansky, Maxsim L.
Hu, Wei
Dahmen, Karin A.
Shi, Wenyuan
and
Wong, Gerard C. L.
2013.
Earthquake-like dynamics in
Myxococcus xanthus
social motility
.
Proceedings of the National Academy of Sciences,
Vol. 110,
Issue. 6,
p.
2330.
Kaiser, Dale
2014.
Chemical Communication among Bacteria.
p.
51.
Smaldone, Gregory T.
Jin, Yujie
Whitfield, Damion L.
Mu, Andrew Y.
Wong, Edward C.
Wuertz, Stefan
Singer, Mitchell
and
Spormann, A. M.
2014.
Growth of Myxococcus xanthus in Continuous-Flow-Cell Bioreactors as a Method for Studying Development.
Applied and Environmental Microbiology,
Vol. 80,
Issue. 8,
p.
2461.
Hu, Wei
Gibiansky, Maxsim L.
Wang, Jing
Wang, Chuandong
Lux, Renate
Li, Yuezhong
Wong, Gerard C. L.
and
Shi, Wenyuan
2016.
Interplay between type IV pili activity and exopolysaccharides secretion controls motility patterns in single cells of Myxococcus xanthus.
Scientific Reports,
Vol. 6,
Issue. 1,
Zhou, Tianyi
and
Nan, Beiyan
2017.
Exopolysaccharides promote Myxococcus xanthus social motility by inhibiting cellular reversals.
Molecular Microbiology,
Vol. 103,
Issue. 4,
p.
729.