Host recognition by lactic acid bacterial phages.
暂无分享,去创建一个
[1] C. Cambillau,et al. Evolved distal tail carbohydrate binding modules of Lactobacillus phage J‐1: a novel type of anti‐receptor widespread among lactic acid bacteria phages , 2017, Molecular microbiology.
[2] I. De Noni,et al. Streptococcus thermophilus urease activity boosts Lactobacillus delbrueckii subsp. bulgaricus homolactic fermentation. , 2017, International journal of food microbiology.
[3] M. Ventura,et al. Phage Biodiversity in Artisanal Cheese Wheys Reflects the Complexity of the Fermentation Process , 2017, Viruses.
[4] H. Neve,et al. Genetic and functional characterisation of the lactococcal P335 phage-host interactions , 2017, BMC Genomics.
[5] A. Neves,et al. Novel Variants of Streptococcus thermophilus Bacteriophages Are Indicative of Genetic Recombination among Phages from Different Bacterial Species , 2016, Applied and Environmental Microbiology.
[6] E. Vinogradov,et al. Structural studies of the rhamnose-rich cell wall polysaccharide of Lactobacillus casei BL23. , 2016, Carbohydrate research.
[7] D. Sinderen,et al. Functional and structural dissection of the tape measure protein of lactococcal phage TP901-1 , 2016, Scientific Reports.
[8] G. Comi,et al. Lactococcus lactis and Lactobacillus sakei as bio-protective culture to eliminate Leuconostoc mesenteroides spoilage and improve the shelf life and sensorial characteristics of commercial cooked bacon. , 2016, Food microbiology.
[9] Yingzhou Wu,et al. Baseplate assembly of phage Mu: Defining the conserved core components of contractile-tailed phages and related bacterial systems , 2016, Proceedings of the National Academy of Sciences.
[10] S. Sivaprakasam,et al. Optimization and effect of dairy industrial waste as media components in the production of hyaluronic acid by Streptococcus thermophilus , 2016, Preparative biochemistry & biotechnology.
[11] G. A. Somkuti,et al. Bacteriocin production by Streptococcus thermophilus in complex growth media , 2016, Biotechnology Letters.
[12] B. Beck,et al. Distinct immune tones are established by Lactococcus lactis BFE920 and Lactobacillus plantarum FGL0001 in the gut of olive flounder (Paralichthys olivaceus). , 2016, Fish & shellfish immunology.
[13] Charles A. Bowman,et al. Characterization of prophages containing “evolved” Dit/Tal modules in the genome of Lactobacillus casei BL23 , 2016, Applied Microbiology and Biotechnology.
[14] H. Neve,et al. Identification and Analysis of a Novel Group of Bacteriophages Infecting the Lactic Acid Bacterium Streptococcus thermophilus , 2016, Applied and Environmental Microbiology.
[15] S. Fukiya,et al. Structural diversity and biological significance of lipoteichoic acid in Gram-positive bacteria: focusing on beneficial probiotic lactic acid bacteria , 2016, Bioscience of microbiota, food and health.
[16] H. Stahlberg,et al. Structure of the T4 baseplate and its function in triggering sheath contraction , 2016, Nature.
[17] Michel-Yves Mistou,et al. Bacterial glycobiology: rhamnose-containing cell wall polysaccharides in Gram-positive bacteria , 2016, FEMS microbiology reviews.
[18] D. van Sinderen,et al. Phage-Host Interactions of Cheese-Making Lactic Acid Bacteria. , 2016, Annual review of food science and technology.
[19] Aldert L. Zomer,et al. Comparative genomics and functional analysis of the 936 group of lactococcal Siphoviridae phages , 2016, Scientific Reports.
[20] S. Lortal,et al. Streptococcus thermophilus, an emerging and promising tool for heterologous expression: Advantages and future trends. , 2016, Food microbiology.
[21] M. Dawood,et al. Effects of dietary supplementation of Lactobacillus rhamnosus or/and Lactococcus lactis on the growth, gut microbiota and immune responses of red sea bream, Pagrus major. , 2016, Fish & shellfish immunology.
[22] A. Desmyter,et al. The Atomic Structure of the Phage Tuc2009 Baseplate Tripod Suggests that Host Recognition Involves Two Different Carbohydrate Binding Modules , 2016, mBio.
[23] C. Cambillau,et al. Lactococcus lactis phage TP901–1 as a model for Siphoviridae virion assembly , 2016, Bacteriophage.
[24] Robert D. Finn,et al. The Pfam protein families database: towards a more sustainable future , 2015, Nucleic Acids Res..
[25] W. Randazzo,et al. Transfer, composition and technological characterization of the lactic acid bacterial populations of the wooden vats used to produce traditional stretched cheeses. , 2015, Food microbiology.
[26] C. Cambillau. Bacteriophage module reshuffling results in adaptive host range as exemplified by the baseplate model of listerial phage A118. , 2015, Virology.
[27] Wenjun Liu,et al. Expanding the biotechnology potential of lactobacilli through comparative genomics of 213 strains and associated genera , 2015, Nature Communications.
[28] D. van Sinderen,et al. Structural investigation of cell wall polysaccharides of Lactobacillus delbrueckii subsp. bulgaricus 17. , 2015, Carbohydrate research.
[29] C. Cambillau,et al. Structure and Assembly of TP901-1 Virion Unveiled by Mutagenesis , 2015, PloS one.
[30] J. Reinheimer,et al. Phages of dairy Leuconostoc mesenteroides: genomics and factors influencing their adsorption. , 2015, International journal of food microbiology.
[31] C. Cambillau,et al. The targeted recognition of Lactococcus lactis phages to their polysaccharide receptors , 2015, Molecular microbiology.
[32] Douwe van Sinderen,et al. Next-generation sequencing as an approach to dairy starter selection , 2015, Dairy science & technology.
[33] H. Neve,et al. Lactococcal 949 Group Phages Recognize a Carbohydrate Receptor on the Host Cell Surface , 2015, Applied and Environmental Microbiology.
[34] H. Neve,et al. Novel Phage Group Infecting Lactobacillus delbrueckii subsp. lactis, as Revealed by Genomic and Proteomic Analysis of Bacteriophage Ldl1 , 2014, Applied and Environmental Microbiology.
[35] Charles A. Bowman,et al. Exposing the Secrets of Two Well-Known Lactobacillus casei Phages, J-1 and PL-1, by Genomic and Structural Analysis , 2014, Applied and Environmental Microbiology.
[36] S. Kulakauskas,et al. Cell wall structure and function in lactic acid bacteria , 2014, Microbial Cell Factories.
[37] D. van Sinderen,et al. Progress in lactic acid bacterial phage research , 2014, Microbial Cell Factories.
[38] S. Sørensen,et al. Complete Genome Sequences of Four Novel Lactococcus lactis Phages Distantly Related to the Rare 1706 Phage Species , 2014, Genome Announcements.
[39] H. Neve,et al. Molecular Characterization of Three Lactobacillus delbrueckii subsp. bulgaricus Phages , 2014, Applied and Environmental Microbiology.
[40] C. Cambillau,et al. Cryo-Electron Microscopy Structure of Lactococcal Siphophage 1358 Virion , 2014, Journal of Virology.
[41] C. Cambillau,et al. Differences in Lactococcal Cell Wall Polysaccharide Structure Are Major Determining Factors in Bacteriophage Sensitivity , 2014, mBio.
[42] Luca Settanni,et al. New trends in technology and identity of traditional dairy and fermented meat production processes: preservation of typicality and hygiene. , 2014 .
[43] H. Neve,et al. Bacteriophages of Leuconostoc, Oenococcus, and Weissella , 2014, Front. Microbiol..
[44] S. Sørensen,et al. Sequence and comparative analysis of Leuconostoc dairy bacteriophages. , 2014, International journal of food microbiology.
[45] C. Cambillau,et al. Molecular Insights on the Recognition of a Lactococcus lactis Cell Wall Pellicle by the Phage 1358 Receptor Binding Protein , 2014, Journal of Virology.
[46] Christian Cambillau,et al. Structures and host-adhesion mechanisms of lactococcal siphophages , 2014, Front. Microbiol..
[47] D. van Sinderen,et al. Current taxonomy of phages infecting lactic acid bacteria , 2013, Front. Microbiol..
[48] S. Lortal,et al. Structural studies of the cell wall polysaccharides from three strains of Lactobacillus helveticus with different autolytic properties: DPC4571, BROI, and LH1. , 2013, Carbohydrate research.
[49] M. van Heel,et al. Structure, Adsorption to Host, and Infection Mechanism of Virulent Lactococcal Phage p2 , 2013, Journal of Virology.
[50] H. Neve,et al. Biodiversity of lactococcal bacteriophages isolated from 3 Gouda-type cheese-producing plants. , 2013, Journal of dairy science.
[51] D. Veesler,et al. Structure and Functional Analysis of the Host Recognition Device of Lactococcal Phage Tuc2009 , 2013, Journal of Virology.
[52] H. Neve,et al. Investigation of the Relationship between Lactococcal Host Cell Wall Polysaccharide Genotype and 936 Phage Receptor Binding Protein Phylogeny , 2013, Applied and Environmental Microbiology.
[53] H. Neve,et al. Identification of a New P335 Subgroup through Molecular Analysis of Lactococcal Phages Q33 and BM13 , 2013, Applied and Environmental Microbiology.
[54] H. Neve,et al. The Lactococcal Phages Tuc2009 and TP901-1 Incorporate Two Alternate Forms of Their Tail Fiber into Their Virions for Infection Specialization* , 2013, The Journal of Biological Chemistry.
[55] M. van Heel,et al. Visualizing a Complete Siphoviridae Member by Single-Particle Electron Microscopy: the Structure of Lactococcal Phage TP901-1 , 2012, Journal of Virology.
[56] D. van Sinderen,et al. Structural Aspects of the Interaction of Dairy Phages with Their Host Bacteria , 2012, Viruses.
[57] D. Veesler,et al. Structure of the phage TP901-1 1.8 MDa baseplate suggests an alternative host adhesion mechanism , 2012, Proceedings of the National Academy of Sciences.
[58] Geert Huys,et al. Food fermentations: microorganisms with technological beneficial use. , 2012, International journal of food microbiology.
[59] R. P. Ross,et al. A new phage on the 'Mozzarella' block: Bacteriophage 5093 shares a low level of homology with other Streptococcus thermophilus phages , 2011 .
[60] Christian Cambillau,et al. A Common Evolutionary Origin for Tailed-Bacteriophage Functional Modules and Bacterial Machineries , 2011, Microbiology and Molecular Reviews.
[61] M. van Heel,et al. Structure and Molecular Assignment of Lactococcal Phage TP901-1 Baseplate* , 2010, The Journal of Biological Chemistry.
[62] G. Sciara,et al. Solution and electron microscopy characterization of lactococcal phage baseplates expressed in Escherichia coli. , 2010, Journal of structural biology.
[63] D. Veesler,et al. Crystal Structure of Bacteriophage SPP1 Distal Tail Protein (gp19.1) , 2010, The Journal of Biological Chemistry.
[64] S. Moineau,et al. Characterization of Lactococcus lactis Phage 949 and Comparison with Other Lactococcal Phages , 2010, Applied and Environmental Microbiology.
[65] Guillaume Andre,et al. Imaging the nanoscale organization of peptidoglycan in living Lactococcus lactis cells , 2010, Nature communications.
[66] G. Sciara,et al. Structure of lactococcal phage p2 baseplate and its mechanism of activation , 2010, Proceedings of the National Academy of Sciences.
[67] C. Péchoux,et al. Cell Surface of Lactococcus lactis Is Covered by a Protective Polysaccharide Pellicle* , 2010, The Journal of Biological Chemistry.
[68] Andreas Plückthun,et al. Crystal Structure and Function of a DARPin Neutralizing Inhibitor of Lactococcal Phage TP901-1 , 2009, The Journal of Biological Chemistry.
[69] C. Cambillau,et al. Structure and function of phage p2 ORF34p2, a new type of single‐stranded DNA binding protein , 2009, Molecular microbiology.
[70] Sylvain Moineau,et al. Evolution of Lactococcus lactis Phages within a Cheese Factory , 2009, Applied and Environmental Microbiology.
[71] N. Belyasova,et al. Biodiversity of Lactococcus lactis bacteriophages in the Republic of Belarus. , 2009, International journal of food microbiology.
[72] Sylvain Moineau,et al. Crystal Structure of ORF12 from Lactococcus lactis Phage p2 Identifies a Tape Measure Protein Chaperone , 2008, Journal of bacteriology.
[73] G. Sciara,et al. A Topological Model of the Baseplate of Lactococcal Phage Tuc2009* , 2008, Journal of Biological Chemistry.
[74] T. Hartung,et al. Molecular Interaction between Lipoteichoic Acids and Lactobacillus delbrueckii Phages Depends on d-Alanyl and α-Glucose Substitution of Poly(Glycerophosphate) Backbones , 2007, Journal of bacteriology.
[75] C. Cambillau,et al. Crystal Structure of the Receptor-Binding Protein Head Domain from Lactococcus lactis Phage bIL170 , 2006, Journal of Virology.
[76] M. Ventura,et al. Sequence and comparative genomic analysis of lactococcal bacteriophages jj50, 712 and P008: evolutionary insights into the 936 phage species. , 2006, FEMS microbiology letters.
[77] H. Deveau,et al. Biodiversity and Classification of Lactococcal Phages , 2006, Applied and Environmental Microbiology.
[78] H. Neve,et al. Anatomy of a Lactococcal Phage Tail , 2006, Journal of bacteriology.
[79] Sylvain Moineau,et al. Modular Structure of the Receptor Binding Proteins of Lactococcus lactis Phages , 2006, Journal of Biological Chemistry.
[80] A. Desmyter,et al. Receptor-Binding Protein of Lactococcus lactis Phages: Identification and Characterization of the Saccharide Receptor-Binding Site , 2006, Journal of bacteriology.
[81] S. Moineau,et al. Characterization of Streptococcus thermophilus Host Range Phage Mutants , 2006, Applied and Environmental Microbiology.
[82] H. Neve,et al. Identification of the Lower Baseplate Protein as the Antireceptor of the Temperate Lactococcal Bacteriophages TP901-1 and Tuc2009 , 2006, Journal of bacteriology.
[83] Johannes Söding,et al. The HHpred interactive server for protein homology detection and structure prediction , 2005, Nucleic Acids Res..
[84] B. Nga. Genome analysis of lactic acid bacteria in food fermentations and biotechnological applications. , 2005, Current opinion in microbiology.
[85] H. Neve,et al. Identification of the Receptor-Binding Protein in 936-Species Lactococcal Bacteriophages , 2004, Applied and Environmental Microbiology.
[86] F. Vogensen,et al. Identification of Lactococcus lactis Genes Required for Bacteriophage Adsorption , 2004, Applied and Environmental Microbiology.
[87] T. Alatossava,et al. Characterization of Lipoteichoic Acids as Lactobacillus delbrueckii Phage Receptor Components , 2004, Journal of bacteriology.
[88] D. van Sinderen,et al. Bacteriophage Tuc2009 Encodes a Tail-Associated Cell Wall-Degrading Activity , 2004, Journal of bacteriology.
[89] S. Liu. Practical implications of lactate and pyruvate metabolism by lactic acid bacteria in food and beverage fermentations. , 2003, International journal of food microbiology.
[90] T. Alatossava,et al. A Conserved C-Terminal Region in Gp71 of the Small Isometric-Head Phage LL-H and ORF474 of the Prolate-Head Phage JCL1032 Is Implicated in Specificity of Adsorption of Phage to Its Host, Lactobacillus delbrueckii , 2002, Journal of bacteriology.
[91] S. Moineau,et al. Identification of a genetic determinant responsible for host specificity in Streptococcus thermophilus bacteriophages , 2001, Molecular microbiology.
[92] L. Walsh,et al. Two groups of bacteriophages infecting Streptococcus thermophilus can be distinguished on the basis of mode of packaging and genetic determinants for major structural proteins , 1997, Applied and environmental microbiology.
[93] R. Lancefield. A SEROLOGICAL DIFFERENTIATION OF HUMAN AND OTHER GROUPS OF HEMOLYTIC STREPTOCOCCI , 1933, The Journal of experimental medicine.
[94] S. Moineau,et al. Bacteriophages of lactobacillus. , 2009, Frontiers in bioscience.
[95] Johannes Söding,et al. Fast and accurate automatic structure prediction with HHpred , 2009, Proteins.
[96] Sylvain Moineau,et al. Lactococcal bacteriophage p2 receptor-binding protein structure suggests a common ancestor gene with bacterial and mammalian viruses , 2006, Nature Structural &Molecular Biology.