Projekt
Mosquito-virus matchmaking: Elucidating the biological basis of compatibility between viruses and mosquitoes
Half of the worlds population is at risk for mosquito-borne diseases. Yet, less than 3% of the mosquito species on earth can transmit pathogens to humans. Even within a species that specializes in biting humans and is the major vector for dengue virus (Aedes aegypti), mosquito populations on the globe transmit DENV wi…
Half of the worlds population is at risk for mosquito-borne diseases. Yet, less than 3% of the mosquito species on earth can transmit pathogens to humans. Even within a species that specializes in biting humans and is the major vector for dengue virus (Aedes aegypti), mosquito populations on the globe transmit DENV with a wide range of efficiencies. Thus, some virus-mosquito pairs match with each other, and enable viral transmission, while others dont.
Understanding the biological processes that determine virus-mosquito compatibility is a longstanding question that has not yet been addressed, mostly owing to a lack of appropriate methods. Here, I propose to leverage advances in single-cell technology, gene editing and computational tools to understand the basis of virus-mosquito matchmaking. I will address three related challenges:
1 Obtain single-cell transcriptional and epigenetic atlases for key organs of matched or unmatched virus-mosquito pairs.
To be retransmitted, a virus needs to infect and transit through key organs in a mosquitos body. Unknown factors that interfere with viral infection and impact further transmission exist in mosquito cells. They will be detected with single-cell technologies.
2 Identify the key drivers of virus-mosquito matchmaking.
Using cutting-edge single-cell data analysis methods, I will determine which genetic or epigenetic processes are associated with matched and unmatched virus-mosquito pairs.
3- Reprogram virus-mosquito matchmaking using genome editing.
With key factors of matchmaking identified, I will genetically interfere with their function and determine whether virus-mosquito pairs can artificially be matched or unmatched.
ITSaMATCH will combine new technologies to unravel the basis for virus-mosquito matchmaking. The project has the potential to substantially advance our understanding of virus-mosquito interactions and inform novel disease control strategies.
Technologien
- Biotechnologie Biotechnologie – Überblick über Forschungsprojekte, Patente und Akteure im TechnologieAtlas.
Hochschulen
- INSTITUT PASTEUR INSTITUT PASTEUR – Hochschule bzw. Forschungseinrichtung mit Aktivitäten in Forschung und Innovation.
- CENTRE NATIONAL DE LA RECHERCHE SCIENTIFIQUE CNRS CENTRE NATIONAL DE LA RECHERCHE SCIENTIFIQUE CNRS – Hochschule bzw. Forschungseinrichtung mit Aktivitäten in…