Possible STEC (stx+;eae+) in raw milk goat cheese from Belgium in Germany
STEC in beef carpaccio from the Netherlands in Belgium
Possible STEC (stx+;eae+) in raw milk goat cheese from Belgium in Germany
STEC in beef carpaccio from the Netherlands in Belgium
Posted in E.coli, eae, eaeA, RASFF, Raw Milk, raw milk cheese, STEC, STEC E.coli, STX 1, STX 2
STEC (stx+;eae+) in veal burger from Belgium in France, Italy Germany and Spain
Posted in eae, eaeA, food contamination, food handler, Food Hazard, Food Hygiene, Food Inspections, Food Micro Blog, Food Microbiology, Food Microbiology Blog, Food Microbiology Testing, Food Pathogen, Food Poisoning, food recall, Food Safety, Food Safety Alert, Food Safety Management, Food Testing, Food Toxin, RASFF, STEC, STEC E.coli, STX 1, STX 2
A survey on prevalence and number of Shiga toxin-producing Escherichia (E.) coli (STEC) in animal feed was carried out over a period of nine years in the Republic of Croatia. A total of 1688 feed samples were collected from feed factories and poultry farms. Analysis included two standard procedures: sample enrichment and (a) immunomagnetic separation and plating on two selective media; or (b) plating on two selective media. Confirmation of STEC included morphological examination, biochemical tests, serotyping, and polymerase chain reaction. Morphological and biochemical characterization revealed 629 E. coli strains. Further serological screening method revealed 78 STEC and EPEC serotypes, while only 27 strains were confirmed as STEC with PCR. All positive samples (1.6%) originated from poultry farms and contained combination of virulence genes: eaeA, stx1, and/or stx2. Since the presence of stx (especially stx2) and eae are identified as risk factors for development of severe diseases in humans, results of this survey indicate that avian sources of STEC infections might be one of those “undefined sources” of human illnesses. Further research is necessary for evaluation of risks posed by contaminated feed, poultry, and environment.
Posted in Animal Feed, Animal Feed Testing, eae, eaeA, Food Micro Blog, Food Microbiology, Food Microbiology Blog, Food Microbiology Research, Food Microbiology Testing, microbial contamination, Microbiological Risk Assessment, Microbiology, Microbiology Investigations, Microbiology Risk, Research, STEC, STEC E.coli, STX 1, STX 2
STEC (stx+;eae+) in minced meat from Belgium in Germany, Netherlands and UK
COLI STEC IN CARNE REFRIGERATA DALL’ARGENTINA in Italy
Posted in eae, food contamination, food handler, Food Hazard, Food Hygiene, Food Inspections, Food Micro Blog, Food Microbiology, Food Microbiology Blog, Food Microbiology Testing, Food Pathogen, Food Poisoning, food recall, Food Safety, Food Safety Alert, Food Safety Management, Food Testing, Food Toxin, RASFF, STEC, STEC E.coli, STX 1, STX 2
STEC (stx+;eae+) in bovine carcass from Belgium in France
Posted in eae, food contamination, food handler, Food Hazard, Food Hygiene, Food Inspections, Food Micro Blog, Food Microbiology, Food Microbiology Blog, Food Microbiology Testing, Food Pathogen, Food Poisoning, food recall, Food Safety, Food Safety Alert, Food Testing, Food Toxin, RASFF, STEC, STEC E.coli, STX 1, STX 2
STEC (stx+;eae+) in cow carcass from Belgium in France and the Netherlands
Posted in eae, food contamination, food handler, Food Hazard, Food Hygiene, Food Inspections, Food Micro Blog, Food Microbiology, Food Microbiology Blog, Food Microbiology Testing, Food Pathogen, Food Poisoning, food recall, Food Safety, Food Safety Alert, Food Testing, Food Toxin, RASFF, STEC, STEC E.coli, STX 1, STX 2
The food was found to have the pathogenic enteropathogenic bacterium Escherichia coli (EPEC), which causes watery diarrhea, vomiting and fever.
| Expiration date: | 8/31/2021 |
| Quantity of product in package: | 100 g |
| Producer: | Anebia food sro, Masarykovo namesti 2572/7, Ostrava |
| Sampling date: | 31. 8. 2021 |
| Reference number: | 21-000545-CAFIA-CZ |
Healthy cattle are considered the main reservoir of Shiga toxin-producing Escherichia coli (STEC) strains, so in some places in the world, products derived from beef are the most common source for disease outbreaks caused by these bacteria. Therefore, in order to guarantee that the beef produced by our slaughterhouses is safe, there is a need for continuous monitoring of these bacteria. In this study, 215 beef cuts were evaluated, including chilled vacuum-packed striploins (151 samples), rib eyes (30 samples), and knuckles (34 samples), from March to June, 2018. These meat samples were collected from the slaughter of unconfined cattle, being arbitrarily collected from eight meat-processing companies in São Paulo state, Brazil. Each sample was examined for the presence of STEC toxin type ( stx 1 and/or stx 2 genes) and also the E. coli attaching-and-effacing ( eae ) gene, which were determined by a multiplex PCR assay. Here we show that the major seven STEC strains (O serogroups O26, O45, O103, O111, O121, O145, and O157) are not detected in any of the analyzed beef cut samples; however, three of them presented the virulence eae gene. Therefore, the absence of STEC strains in the beef samples may be an indication of the low prevalence of this pathogen in the cattle herd on the farm, associated with good hygiene and handling practices adopted by the meat industry.
Escherichia albertii is an emerging foodborne pathogen. Owing to its distribution in river water, it is important to determine the presence of E. albertii in aquaculture-related foods. In this study, we investigated the distribution of E. albertii in retail oyster samples. A total of 427 raw oyster samples (385 Pacific oysters, and 42 Japanese rock oysters) were enriched in modified Escherichia coli broth (mEC) or mEC supplemented with novobiocin (NmEC) at 42 °C. The cultures were used for E. albertii -specific nested PCR assay, as well as for E. albertii isolation using deoxycholate hydrogen sulfide lactose agar (DHL), DHL supplemented with rhamnose and xylose (RX-DHL), and MacConkey agar supplemented with rhamnose and xylose (RX-MAC). The population of E. albertii in nested PCR-positive samples was determined using the most probable number (MPN) method. E. albertii isolates were subjected to biochemical and genetic characterization. E. albertii was detected in 5 of 315 (1.6%) Pacific oyster samples (one piece each), 2 of 70 (2.9 %) Pacific oyster samples (25 g each), and 2 of 42 (4.8 %) Japanese rock oyster samples procured from four geographically distant regions. A total of 64 E. albertii strains were isolated from eight of the nine nested PCR assay-positive oyster samples, and the MPN value was under the detection limit (< 3 MPN/10 g). A specific season or month for detecting E. albertii was not observed in this study, suggesting that the pathogen is present in seawater. All the E. albertii isolates, except one, were positive for the virulence factor eae, indicating that these isolates have the potential to infect humans.