Receptor recognition of antimicrobial peptides is important for Salmonellae to survive inside macrophages and cause disease.

Real-time visualization of Salmonella enterica and polarized macrophage interaction in the living host identifies an anti-inflammatory, pro-regenerative, and motionless macrophage subset as a survival niche during persistent infection.

A response regulator acquired via lateral gene transfer has rewired an ancestral genetic circuitry and regulates alternative pathogenic lifestyles.

An analysis of the largest Salmonella Typhi genome collection to date (n=13,000) provides an updated overview of global genome diversity and antimicrobial resistance trends over time to inform public health action.

Zinc transporter Slc30a1 mediates antibacterial defense in macrophages.

Application of hierarchical machine learning to the geographical source attribution of Salmonella enteritidis indicates high utility for the rapid translation of raw pathogen genome sequencing data into accurate and actionable information for disease management in public health.

Newly produced genomic data, as well as available datasets, reveal the pathogen's global transmission history along with the live poultry trade and pinpoint mobile element-driven local Salmonella adaptation.

The combination therapy of colistin, artesunate, and EDTA could serve as a promising approach to combat colistin-resistant Salmonella infections by disrupting bacterial membranes, collapsing proton motive force, and increasing reactive oxygen species levels.

A single conserved residue – histidine 12 – confers pH-sensitive DNA binding to the Salmonella Typhimurium SPI-2 transcriptional regulator SsrB, thereby regulating Salmonella virulence.

SafDAA-SafDAA structure and functional characterizations reveal a pili-mediated inter-cellular oligomerization mechanism for bacterial aggregation and biofilm formation in Salmonella enterica.