Synexis’ DHP technology will be offered through Zee Company as an additional intervention that food and beverage processors can incorporate alongside existing sanitation and pathogen control programs.
This article explores how rapid detection technologies are transforming environmental monitoring programs for L. monocytogenes in dairy plants. It also discusses how faster detection supports quicker sanitation verification, improved risk-based monitoring, and more effective decision-making during contamination events.
This article discusses the limits of "dry" sanitizers in low-moisture environments in terms of performance, cost, employee safety, and the hidden risks of moisture in hard-to-clean niches.
Longer application times, shorter nozzle distances, and spray patterns that deliver sufficient physical force to surfaces may contribute to improved microbial reduction. Sanitizer efficacy experiments could misrepresent real-world sanitation outcomes when shear stress and application time are not considered.
This episode of Food Safety Five discusses new research on avocado oil authenticity in processed foods, the effects of nanoplastics on bacterial biofilms in drinking water systems, factors influencing Listeria monocytogenes persistence on plastic food contact surfaces, and stress-adaptation traits that may help E. coli persist from farm to fork.
Transport cages are recognized as a potential source of cross-contamination in poultry slaughterhouses. The optimal washing water temperature and detergent concentration completely eliminated detectable Salmonella while greatly reducing indicator organisms. The identified parameters may improve food safety and operational efficiency.
Modern food facilities are spaces where small structural gaps around utilities and loading areas can create hidden rodent pathways, making exclusion and digital monitoring necessary.
Intended for professional sanitarians, food safety leaders, hygienic design specialists, and managers working in low-moisture food manufacturing, the event will take place October 26–27, 2026 in Beloit, Wisconsin.
The findings suggest that pathogen persistence on plastic food contact surfaces is governed by the combined effects of material composition, engineered surface topography, and microbial ecology rather than any single factor.
A new hypothesis suggests Listeria monocytogenes persists by colonizing nutrient-rich voids left behind when Gram-negative bacterial biofilms disperse. If the theory is validated, the authors suggest shifting food safety strategies toward managing biofilm ecology and ecological succession, rather than focusing solely on pathogen detection.