Using the wax moth larva Galleria mellonella infection model to detect emerging bacterial pathogens.
Rafael J HernandezElze HesseAndrea J DowlingNicola M CoyleEdward J FeilWill H GazeMichiel VosPublished in: PeerJ (2019)
Climate change, changing farming practices, social and demographic changes and rising levels of antibiotic resistance are likely to lead to future increases in opportunistic bacterial infections that are more difficult to treat. Uncovering the prevalence and identity of pathogenic bacteria in the environment is key to assessing transmission risks. We describe the first use of the Wax moth larva Galleria mellonella, a well-established model for the mammalian innate immune system, to selectively enrich and characterize pathogens from coastal environments in the South West of the UK. Whole-genome sequencing of highly virulent isolates revealed amongst others a Proteus mirabilis strain carrying the Salmonella SGI1 genomic island not reported from the UK before and the recently described species Vibrio injenensis hitherto only reported from human patients in Korea. Our novel method has the power to detect bacterial pathogens in the environment that potentially pose a serious risk to public health.
Keyphrases
- climate change
- public health
- gram negative
- end stage renal disease
- healthcare
- human health
- endothelial cells
- antimicrobial resistance
- chronic kidney disease
- immune response
- ejection fraction
- primary care
- escherichia coli
- cross sectional
- mental health
- risk factors
- peritoneal dialysis
- multidrug resistant
- single cell
- heavy metals
- cystic fibrosis
- prognostic factors
- gene expression
- patient reported outcomes
- pseudomonas aeruginosa
- induced pluripotent stem cells
- pluripotent stem cells