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The primary goal of the study was to determine the prevalence and various bacterial risks of lower urinary tract infections (UTI) in diseased and seemingly healthy pet animals with and without urine retention whether they were catheterized or not. The bacterial isolates were in vitro tested for their antibiotic resistance and antibiotic resistance genes were investigated. Between October 2020 and January 2022, 128 urine samples were randomly collected from pets recruited to veterinary hospitals and clinics in Cairo and Giza. Samples were cultivated for bacteriological isolation. Escherichia coli (E. coli), Staphylococcus aureus (S. aureus) and Klebsiella spp. were found to be the most common bacterial causes of urinary tract infections in pets, with prevalence rates of 32.9%, 28%, and 19.5%, respectively followed by Proteus mirabilis (P. mirabilis) and Pseudomonas aeruginosa (P. aeruginosa) with incidences of 18.2% and 1.2%, respectively. Based on bacterial types and their virulence genes, antibiotic resistance and multi-drug resistance (MDR) behaviour varied. Epidemiology, diagnosis, and control of the urinary tract infection would benefit from the identification and characterization of isolated bacterial species. [ABSTRACT FROM AUTHOR]

Most animal feeds are set from protein-rich raw materials. These protein constituents may possess various hazards, particularly highly drug-resistant pathogens, causing a bad impact not only on the pet’s health, but also on their owners. In the current study, a total of 2100 pet food and 100 pets’ fecal swabs were collected and bacteriologically examined from 2017 to 2020. It was revealed that the percentage of Gram-negative bacteria isolated from pet food and fecal swabs was 49% and 56% respectively. E. coli, Proteus sp., and K. pneumoniae were the most isolated bacteria in percentages of 12.4%, 8.4%, and 4.9% respectively from Pet food and 25%, 7%, 12% respectively from pet fecal swabs. In addition, Enterobacter cloacae, P. aeruginosa, Aeromonas hydrophila, Citrobacter sp., P. fluorecens, and Y. enterocolitica were isolated from pet food in an order of 3.8%, 3.5%, 3.2%, 2.6%, 2.6% and 2.1% respectively. Salmonella sp. isolated from pet food was 0.6% while it was 5% from pet fecal swabs. The most predominant Salmonella serotype isolated from pet food and pet fecal swabs was S. Typhimurium. Furthermore, S. Virchow, S. Anatum, S. Kentucky, S. Kedougou and S. Infantis were isolated serotypes from Pet food in percentages of 15.7%, 23.1%, 15.4%, 7.7%, and 7.7% respectively. While S. Nitra, S. Ibargi, S. Enteritidis and S. Boecker were isolated from pet fecal swabs at a percentage of 20% for each. On the other hand, O158 was the most predominant E. coli serogroup isolated from pet food and pet fecal swabs in percentages of 30.4% and 30.8% respectively followed by O157 in percentages of 21.7% and 26.9% respectively. O26 was isolated from pet food and pet fecal swabs in percentages of 13% and 7.7% for each. O119 was isolated from pet food and pet fecal swabs in percentages of 4.3% and 3.8% respectively. O86, O27, O44, O55, and O78 were isolated from pet food in the percentage of 4.3%, 8.7%, 4.3%, 4.3%, and 8.7%respectively. While O114, O111, and O125 were isolated serotypes from pet fecal swabs in percentages of 15.4%, 3.8%, and 11.5% respectively. This study revealed that the antimicrobial sensitivity test of 80% of Salmonellae were resistant to Cefotaxime and Colistin sulphate while 50%, 30, and 20% of isolates were resistant to Gentamicin, Tetracycline, and Cefepime respectively, while 40% of Salmonellae were resistant to Chloramphenicol, Enrofloxacin, and Amoxicillin-clavulanate. Also 60% of Salmonellae showed resistance to Trimethoprim sulfamethoxazole and Ciprofloxacin. Detection of Extended-spectrum ß-lactamase resistance genes (blaTEM, blaSHV, and blaCTX-M) in Pets using Polymerase chain reaction (PCR) showed the presence of blaTEM and blaSHV genes in all tested isolates in 12 samples out of 12 (100%) and has shown that the ratio of blaCTX-M is 5 out of 12samples (41.6 %). It could be concluded that ESBLs are widely present in pets’ food and feces, which may be a potential reservoir of antimicrobial resistance, increasing the risk to the public and animals. [ABSTRACT FROM AUTHOR]

Untreated poultry manure/droppings were used in integrated fish ponds as organic fertilizers. This process could put an additional complexity on the bacterial load within fish's ponds ecosystem. Arcobacter species is one of the most important food-borne zoonotic pathogens that infect humans, animals, fish, and fowl. This study aimed to examine if raw poultry manure could possibly enhance Arcobacter propagation among the cohabitant Nile tilapia. In addition, the comparative phenotypic and molecular characterizations among various Arcobacter spp. retrieved from two diverse animal hosts (the Nile tilapia and fowl) with special reference to antibiotic-resistant and virulence genes traits were also studied. Clinically, the examined Nile tilapias exhibited darkness, fin rot, and skin hemorrhages. Internally, the Nile tilapias displayed severe congestion in internal organs, catarrhal enteritis, and swollen gall bladder. The moribund chickens exhibited mild diarrhea, anorexia, and ruffled feathers. Internally, chickens displayed enlarged spleen and liver, enteritis, and kidney congestion. The bacterial colonies on Arcobacter selective agar appeared small and non-pigmented with an intact edge. The recovered bacterial isolates were identified as Arcobacter spp. depending on the phenotypic characters and PCR. Sequencing of 16S rRNA gene confirmed the identity of Arcobacter butzleri (A. butzleri), A. skirrowii, and A. cryaerophilus in both fish and fowl, while A. cloacae was confirmed in fish. PCR confirmed the occurrence of two virulence genes (pldA and tlyA) in most fish and chicken Arcobacter isolates. All chicken Arcobacter isolates showed resistance against ampicillin, ampicillin-sulbactam, and cefotaxime, and variable susceptibility to ciprofloxacin, aztreonam, imipenem, and amikacin. Fish Aeromonads were sensitive to ciprofloxacin, sulpha-trimethoprim, and amikacin. [ABSTRACT FROM AUTHOR]