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Environmental DNA from Fasciola Parasites as a Novel Biomarker to Improve Agriculture in the UK

Lead Research Organisation: Queen's University Belfast
Department Name: Sch of Biological Sciences

Abstract

Fasciola hepatica, usually termed "the temperate liver fluke", is found worldwide and causes disease known as fasciolosis. This infection caused by helminth parasites, primarily impacts on ruminant production, including within the UK and many other European countries. UK annual economic losses are estimated at £110 million, while internationally the impact is considerably larger, with as an example, India reports $4.8 billion (USD) in loses every year. Fasciolosis is also an important disease of humans, and is acknowledged by the World Health Organization (WHO).
All organisms shed DNA into their environment (eDNA). eDNA detection allows the classification of species diversity and abundance in an environment. The improved detection of this eDNA is the central basis of this project. While low levels of eDNA is expected in water or soil, or on plants, new innovative molecular methods will be used to overcome these issues. This will include the third generation technology- droplet digital, which greatly increases DNA detection sensitivity and reproducibility. ddPCR also as a fully quantitative method, simplifies the assay and provides better results.
The project will examine a range of environmental samples, including water, soil and grass for the presence of Fasciola parasite activity represented by their eDNA. These novel samples will be characterised by the highly sensitive ddPCR technology, in order to provide comprehensive quantitative measurements of parasite/vector (snail) eDNA. eDNA represents a less invasive and less labor intensive approach to disease monitoring.
In detecting parasitic infections earlier, the use of drugs (anthelmintics) can be reduced or avoided. This can be achieved through intelligent pasture management - rotating animals around pastures according to their age, species and season, relative to the perception of infection risk in those pastures. Future applications for the approaches, will allow farmers to make decisions more effectively through accessing improved, more relevant data from their own farms.

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Studentship Projects

Project Reference Relationship Related To Start End Student Name
BB/T008776/1 30/09/2020 29/09/2028
2624382 Studentship BB/T008776/1 30/09/2022 29/09/2026