Identification of Salmonella enterica genes with a role in persistence on lettuce leaves during cold storage by recombinase-based in vivo expression technology

Keyphrases

• Cold Storage 100%
• Lettuce 100%
• Salmonella Enterica 100%
• Lettuce Leaves 100%
• Recombinase 100%
• In Vivo Expression Technology 100%
• MisL 100%
• Salmonella 66%
• BcsA 66%
• Molecular Interactions 33%
• Biofilm Formation 33%
• Knock-in mutation 33%
• Adhesion 33%
• Effective Approach 33%
• Plant Tissue 33%
• Fibronectin 33%
• Human Pathogens 33%
• Upregulated Genes 33%
• Outer Membrane 33%
• Enteric Infections 33%
• GTP-binding Proteins 33%
• Adhesin 33%
• Autotransporter 33%
• Animal Hosts 33%
• Attachment Factor 33%
• Plant-pathogen Interaction 33%
• Cellulose Synthase Catalytic Subunit 33%
• Leafy Vegetables 33%
• Recurrent Outbreaks 33%
• Fimbrial 33%
• SPI1 33%
• Foodborne Pathogens 33%
• Decontaminating 33%

Biochemistry, Genetics and Molecular Biology

• Cryopreservation 100%
• Salmonella 100%
• Recombinase 100%
• Salmonella enterica 100%
• Infectious Agent 66%
• Molecular Interaction 33%
• Adenosine Triphosphate 33%
• Synthase 33%
• Cellulose 33%
• Pathogenicity Island 33%
• Outer Membrane 33%
• Enzyme Active Site 33%
• Autotransporter 33%
• Plant Pathogen Interaction 33%
• Biofilm 33%
• Fibronectin 33%
• G Protein 33%

Immunology and Microbiology

• Cryopreservation 100%
• Salmonella enterica 100%
• Salmonella 100%
• Infectious Agent 66%
• Protein Binding 33%
• Biofilm 33%
• Enzyme Active Site 33%
• Plant Tissue 33%
• Human Pathogen 33%
• Pathogenicity Island 33%
• Outer Membrane 33%
• Fibronectin 33%
• Molecular Interaction 33%