Mosquito-borne Viruses
Mosquito-borne Viruses - Related Videos
02:36
Isolation of Mosquito-Associated Virus from Mosquito Homogenate
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2026
Source: Huang, D., et al. Mosquito-Associated Virus Isolation from Field-Collected Mosquitoes. J. Vis. Exp. (2022).This video demonstrates the step-by-step procedure for the in vitro isolation of mosquito-associated viruses from mosquito homogenates using fibroblast-like mammalian cells.
10:35
Vector Competence Analyses on Aedes aegypti Mosquitoes using Zika Virus
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Cited by 3 •
2020
The presented protocol can determine the vector competence of Aedes aegypti mosquito populations for a given virus, such as Zika, in a containment setting.
07:23
Detection of Infectious Virus from Field-collected Mosquitoes by Vero Cell Culture Assay
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Cited by 19 •
2011
We describe a method to process and screen field-collected mosquitoes for a diversity of viruses by Vero cell culture assay. By employing this technique, we have detected 9 different viruses from 4 taxonomic families in mosquitoes collected in Connecticut.
02:44
The Born-Haber Cycle
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2020
Lattice Energy An ionic compound is stable because of the electrostatic attraction between its positive and negative ions. The lattice energy of a compound is a measure of the strength of this attraction. The lattice energy (ΔHlattice) of an ionic compound is defined as the energy required to separate one mole of the solid into its component gaseous ions. Here, the convention is used where the ionic solid is separated into ions, meaning the lattice energies will be endothermic (positive...
17:50
Preventing the Spread of Malaria and Dengue Fever Using Genetically Modified Mosquitoes
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Cited by 10 •
2007
In this candid interview, Anthony A. James explains how mosquito genetics can be exploited to control malaria and dengue transmission. Population replacement strategy, the idea that transgenic mosquitoes can be released into the wild to control disease transmission, is introduced as well as the concept of genetic drive and the design criterion for an effective genetic drive system. The ethical considerations of releasing genetically-modified organisms into the wild are also discussed.
FAQs
Transmission depends on more than a mosquito acquiring the pathogen. The virus must replicate in mosquito tissues and subsequently reach the salivary glands before a later feeding can expose another host. This sequence identifies biological stages that researchers can examine when studying transmission efficiency and opportunities for vector-control strategies.
Once infection is established, innate and adaptive immune responses shape what happens in the host. Their activity can influence disease severity and protection, making immune responses central to immunology and infection research. Comparing these responses across mosquito-borne viruses can help frame questions about host-pathogen interactions without treating all infections as identical.
These viruses provide a comparative framework for examining how host-pathogen interactions relate to disease and protection. Dengue, West Nile, Zika, and chikungunya are specifically identified as important examples, but the overview does not imply that they behave identically. Studying them together supports broader analysis of transmission, immunity, and emerging infectious disease risk.
Diagnostic testing is one practical outcome of studying these infections. Research connects the presence of a mosquito-borne pathogen with the host responses activated during infection, creating a scientific basis for testing efforts. Diagnostic work complements vaccine development, vector control, and outbreak surveillance by helping address disease in human and animal populations.
Vaccine development uses knowledge of both the pathogen and the immune protection it may elicit. For mosquito-borne viruses, this means considering how infection activates innate and adaptive responses and how those responses relate to protection. The goal is not simply to study transmission, but to translate host-pathogen and immune findings into preventive strategies.
Outbreak surveillance and vector control address different parts of the transmission cycle. Surveillance follows disease patterns and emerging infectious disease risk, whereas vector-control strategies target the mosquito-associated stages that allow viruses to move between hosts. Using both perspectives can connect population-level monitoring with biological understanding of transmission and support more informed responses.