Roadmap for Vector Transmission Control (VTC)
Download Vector-Transmisson-Control-Roadmap3
Vector Feeding
Dependencies
Next steps
Research Question
What are we trying to achieve and why? What is the problem we are trying to solve?
Gain a fuller understanding of vector feeding
Research Gaps and Challenges
What are the scientific and technological challenges (knowledge gaps needing to be addressed)?
Determining possible changes in components of vector saliva during feeding on the host
Determining if there are differences in the saliva of male and female ticks
Determining whether artificially collected saliva fully reflects what is secreted during vector feeding
Determining whether infected vectors feed more than uninfected vectors
Determining if pathogens acquired with blood meals kill vector if the vector immune system such as the TLRs are inactivated?
Solution Routes
What approaches could/should be taken to address the research question?
Establish the constituents of vector saliva and how they aid feeding and influence pathogen uptake or survival in the vector
Improve understanding of the inflammatory response at vector feeding sites and how this affects uptake of blood meal
Dependencies
What else needs to be done before we can solve this need?
Improved understanding of vector physiology
State Of the Art
Existing knowledge including successes and failures
At Washington State University they have established a very effective artificial feeding system for colony-maintained vectors and experimentation of drugs, chemicals and antibody effects on ticks
Projects
What activities are planned or underway?
A randomized controlled trial of Tickoff® (Metarhizium anisopliae ICIPE 7) for control of tick infestations and transmission of tick-borne infections in extensively grazed zebu cattle in coastal Kenya
Planned Completion date 01/01/2024
Netherlands
impact of cattle on the abundance of indoor and outdoor resting malaria vectors in southern malawi
Planned Completion date 26/08/2021
Netherlands