Mosquitoes with high levels of pyrethroid resistance reduce the ability of bednets to protect those using them and the wider community, which is predicted to substantially increase malaria cases.
A common chromosome inversion in African malaria mosquito (Anopheles gambiae) is associated with differences in malaria infection, adult resting behavior and ecology, and may aid the most efficient vectors to evade malaria control.
Delineation of the cuticular hydrocarbon biosynthetic pathway in malaria vectors is a key step in understanding how mosquitoes adapt to anthropogenic change and vector control interventions.
