Bettelheim, KA. The non-O157 Shiga-toxigenic (Verocytotoxigenic) Escherichia coli; under-rated pathogens. Critical Reviews in Microbiology
2007; 33: 67–87.
Mullner, P, et al.
Assigning the source of human campylobacteriosis in New Zealand: a comparative genetic and epidemiological approach. Infection Genetics and Evolution
2009; 9: 1311–1319.
Hsu, HY, et al.
Effect of high pressure processing on the survival of Shiga toxin-producing Escherichia coli (big six vs. O157:H7) in ground beef. Food Microbiology
2015; 48: 1–7.
Wilson, MW, Bettelheim, KA. Cytotoxic Escherichia coli serotypes. Lancet
1980; 1: 201.
European Food Safety Authority and European Centre for Disease Prevention and Control. The European Union summary report on trends and sources of zoonoses, zoonotic agents and food-borne outbreaks in 2011. European Food Safety Authority Journal
2013; 11: 3129.
D. Gilliss, , et al.
Incidence and trends of infection with pathogens transmitted commonly through food — foodborne diseases active surveillance network, 10 U.S. sites, 1996–2012.
Morbidity and Mortality Weekly Report
2013; 62: 283–287.
Jaros, P, et al.
A prospective case-control and molecular epidemiological study of human cases of Shiga toxin-producing Escherichia coli in New Zealand. BMC Infectious Diseases
2013; 13: 450.
Silva, J, et al.
Campylobacter spp. as a foodborne pathogen: a review. Frontiers in Microbiolgy
2011; 2: 1–12.
Sears, A, et al.
Marked campylobacteriosis decline after interventions aimed at poultry, New Zealand. Emerging Infectious Diseases
2011; 17: 1007–1015.
McBride, GB. Explaining differential sources of zoonotic pathogens in intensively farmed-catchment using kinemetic waves. Water Science & Technology
2011; 63: 695–703.
Wilcock, RJ, et al.
Land-use impacts and water quality targets in the intensive dairying catchment of the Toenepi Stream, New Zealand. New Zealand Journal of Marine and Freshwater Research
2006; 40: 123–140.
Stott, R, et al.
Differential behaviour of Escherichia coli and Campylobacter spp. in a stream draining dairy pasture. Journal of Water and Health
2011; 9: 59–69.
Perelle, S, et al.
Detection by 5′-nuclease PCR of Shiga-toxin producing Escherichia coli O26, O55, O91, O103, O111, O113, O145 and O157:H7, associated with the world's most frequent clinical cases. Molecular and Cellular Probes
2004; 18: 185–192.
Fratamico, PM, et al.
DNA sequence of the Escherichia coli O103 O antigen gene cluster and detection of enterohemorrhagic E. coli O103 by PCR amplification of the wzx and wzy genes. Canadian Journal of Microbiology
2005; 51: 515–522.
Fratamico, PM, et al.
PCR detection of enterohemorrhagic Escherichia coli O145 in food by targeting genes in the E. coli O145 O-antigen gene cluster and the Shiga toxin 1 and Shiga toxin 2 genes. Foodborne Pathogens and Disease
2009; 6: 605–611.
Wright, DJ, Chapman, PA, Siddons, CA. Immunomagnetic separation as a sensitive method for isolating Escherichia coli O157 from food samples. Epidemiology and Infection
1994; 113: 31–39.
Paton, AW, Paton, JC. Detection and characterization of Shiga toxigenic Escherichia coli by using multiplex PCR assays for stx1, stx2, eaeA, Enterohaemorrhagic E. colihlyA, rfbO111, and rfbO157. Journal of Clinical Microbiology
1998; 36: 598–602.
Inglis, GD, Kalischuk, LD. Use of PCR for direct detection of Campylobacter species in bovine fecest. Applied and Environmental Microbiology
2003; 69: 3435–3447.
Dingle, KE, et al.
Multilocus sequence typing system for Campylobacter jejuni
. Journal of Clinical Microbiology
2001; 39: 14–23.
Rosef, O, et al.
Serotyping of Campylobacter jejuni, Campylobacter coli, and Campylobacter laridis from domestic and wild animals. Applied and Environmental Microbiology
1985; 49: 1507–1510.
Garrett, N, et al.
Statistical comparison of Campylobacter jejuni subtypes from human cases and environmental sources. Journal of Applied Microbiology
2007; 103: 2113–2121.
McArdle, B, Anderson, M. Fitting multivariate models to community data: a comment on distance-based redundancy analysis. Ecology
2001; 82: 290–297.
Bonardi, S, et al.
Detection of Verocytotoxin-producing Escherichia coli serogroups O157 and O26 in the cecal content and lymphatic tissue of cattle at slaughter in Italy. Journal of Food Protection
2007; 70: 1493–1497.
Pearce, MC, et al.
Prevalence and virulence factors of Escherichia coli serogroups O26, O103, O111, and O145 shed by cattle in Scotland. Applied and Environmental Microbiology
2006; 72: 653–659.
O'Reilly, KM, et al.
Associations between the presence of virulence determinants and the epidemiology and ecology of zoonotic Escherichia coli
. Applied and Environmental Microbiology
2010; 76: 8110–8116.
Jaros, P, et al. Shedding of Escherichia coli O157:H7 and O26 STEC by slaughter cattle in New Zealand. 56th Annual Meeting of the New Zealand Microbiological Society. Palmerston North, New Zealand, 2011.
Ethelberg, S, et al.
Outbreak of non-O157 Shiga toxin-producing Escherichia coli infection from consumption of beef sausage. Clinical Infectious Diseases
2009; 48: E78–E81.
Baker, M, et al.
Emergence of Verotoxigenic Escherichia coli (VTEC) in New Zealand. New Zealand Public Health Report
1999; 6: 9–12.
Schmidt, H, et al.
Non-O157:H7 pathogenic shiga toxin-producing Escherichia coli: Phenotypic and genetic profiling of virulence traits and evidence for clonality. Journal of Infectious Diseases
1999; 179: 115–123.
Blanco, M, et al.
Distribution and characterization of faecal Verotoxin-producing Escherichia coli (VTEC) isolated from healthy cattle. Veterinary Microbiology
1997; 54: 309–319.
Geue, L, et al.
A long-term study on the prevalence of Shiga toxin-producing Escherichia coli (STEC) on four German cattle farms. Epidemiology and Infection
2002; 129: 173–185.
Bielaszewska, M, et al.
Shiga toxin-negative attaching and effacing Escherichia coli: Distinct clinical associations with bacterial phylogeny and virulence traits and inferred in-host pathogen evolution. Clinical Infectious Diseases
2008; 47: 208–217.
Whittam, TS, et al.
Clonal relationships among Escherichia coli strains that cause hemorrhagic colitis and infantile diarrhea. Infection and Immunity
1993; 61: 1619–1629.
Donnison, A, Ross, C. Survival and retention of Escherichia coli O157:H7 and Campylobacter in contrasting soils from the Toenepi catchment. New Zealand Journal of Agricultural Research
2009; 52: 133–144.
Faith, NG, et al.
Prevalence and clonal nature of Escherichia coli O157:H7 on dairy farms in Wisconsin. Applied and Environmental Microbiology
1996; 62: 1519–1525.
Gilpin, BJ, et al.
Comparison of Campylobacter jejuni genotypes from dairy cattle and human sources from the Matamata-Piako District of New Zealand. Journal of Applied Microbiology
2008; 105: 1354–1360.
Stanley, KN, et al.
The seasonal variation of thermophilic Campylobacters in beef cattle, dairy cattle and calves. Journal of Applied Microbiology
1998; 85: 472–480.
Bae, W, et al.
Prevalence and antimicrobial resistance of thermophilic Campylobacter spp. from cattle farms in Washington State. Applied and Environmental Microbiology
2005; 71: 169–174.
Nielsen, EM. Occurrence and strain diversity of thermophilic campylobacters in cattle of different age groups in dairy herds. Letters in Applied Microbiology
2002; 35: 85–89.
Giacoboni, GI, et al.
Comparison of fecal Campylobacter in calves and cattle of different ages and areas in Japan. Journal of Veterinary Medical Science
1993; 55: 555–559.
Nurmi, E, Rantala, M. New aspects of Salmonella infection in broiler production. Nature
1973; 241: 210–211.
Kuusi, M, et al.
A large outbreak of campylobacteriosis associated with a municipal water supply in Finland. Epidemiology and Infection
2005; 133: 593–601.
Carter, PE, et al.
Novel clonal complexes with an unknown animal reservoir dominate Campylobacter jejuni isolates from river water in New Zealand. Applied and Environmental Microbiology
2009; 75: 6038–6046.
Devane, ML, et al.
The occurrence of Campylobacter subtypes in environmental reservoirs and potential transmission routes. Journal of Applied Microbiology
2005; 98: 980–990.
Kwan, PSL, et al.
Molecular epidemiology of Campylobacter jejuni populations in dairy cattle, wildlife, and the environment in a farmland area. Applied and Environmental Microbiology
2008; 74: 5130–5138.
French, N, et al.
Evolution of Campylobacter species in New Zealand. In: Sheppard, S, Meric, G, eds. Campylobacter Ecology and Evolution. Wymondham, UK: Horizon Scientific Press, 2014.
Mullner, P, et al.
Source attribution of food-borne zoonoses in New Zealand: a modified Hald model. Risk Analysis
2009; 29: 970–984.
Mullner, P, et al.
Molecular and spatial epidemiology of human campylobacteriosis: source association and genotype-related risk factors. Epidemiology and Infection
2010; 138: 1372–1383.
Eyles, RF, et al.
Comparison of Campylobacter jejuni PFGE and Penner subtypes in human infections and in water samples from the Taieri River catchment of New Zealand. Journal of Applied Microbiology
2006; 101: 18–25.
Grove-White, DH, et al.
Molecular epidemiology and genetic diversity of Campylobacter jejuni in ruminants. Epidemiology and Infection
2011; 139: 1661–1671.