Acta Veterinaria Hungarica · 2003 · 40 citations · 19 references
Life SciencesMicrobiologyVeterinary MicrobiologyAntimicrobial ResistanceAntimicrobial Resistance EpidemiologyMedical MicrobiologyAntibacterial ResistanceAntibiotic ResistanceAntibiotic Resistance MechanismsBacterial InfectionsResistance EpidemiologyResistance SurveillanceAntibiotic Resistance GenesAntibiotic Resistance ProfilingMethicillin ResistanceMethicillin-resistant Staphylococcus Aureus SurveillancePenicillin ResistanceResistance Mechanisms In StaphylococciTetracycline Resistance Genes
Based on data of the Hungarian resistance monitoring system the antibiotic resistance of Staphylococcus strains of human and animal origin was studied. No methicillin-resistant staphylococci harbouring mecA gene were isolated from animals in 2001. Penicillin resistance, mediated by penicillinase production, was the most frequent among Staphylococcus aureus strains isolated from humans (96%), from bovine mastitis (55%), from foods (45%) and from dogs. In staphylococci isolated from animals low resistance percentages to aminoglycosides (0-2%), fluoroquinolones (0.5-3%) and sulphonamides (0.5-4%) were found but in strains isolated humans these figures were higher (1-14%, 5-18% and 3-31%, respectively). The most frequent antibiotic resistance profiles of strains isolated from animals and food were penicillin/tetracycline, penicillin/lincomycin and penicillin/lincomycin/tetracycline. Penicillin/tetracycline resistance was exhibited by strains from mastitis (3), samples from the meat industry (31), poultry flocks (1), poultry industry (1), noodle (1) and horses (2). Penicillin/lincomycin resistance was found in 10 Staphylococcus strains from mastitis, 1 from the dairy industry, 1 from the meat industry and 6 from dogs. Isolates from mastitis (2), from the dairy industry (2), from pigs (1), from the meat industry (1) and from poultry (1) harboured penicillin/lincomycin/tetracycline resistance pattern. Multiresistant strains were usually isolated only from one and sometimes from two animal species; therefore, the spread of defined resistant strains (clones) among different animal species could not be demonstrated. These results also suggest that the transfer of antibiotic resistance of S. aureus from animals to humans probably occurs less frequently than is generally assumed.
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Yuki Katayama, Teruyo Ito, Keiichi Hiramatsu · Antimicrobial Agents and Chemotherapy · 2000 · 1K citations · Full text
Ad C. Fluit, C. L. C. Wielders, J. Verhoef et al. · Journal of Clinical Microbiology · 2001 · 287 citations · Full text
Life Sciences, Infectious Diseases, Antimicrobial Resistance +12
Jennifer C. Seguin, Robert D. Walker, John P. Caron et al. · Journal of Clinical Microbiology · 1999 · 270 citations · Full text
Veterinary Medicine, Infectious Diseases, Veterinary Microbiology +16