Mosquito-borne diseases continue to pose a major public health challenge worldwide. According to global health estimates, vector-borne diseases account for over 17% of all infectious diseases and cause more than 700,000 deaths each year. Among these, mosquito-transmitted illnesses such as malaria, dengue, chikungunya, and Zika represent a large share of the global burden. As governments and public health agencies intensify prevention efforts, growing focus on surveillance, prevention technologies, and sustainable interventions is also driving expansion in the Mosquito Control Market globally.
Malaria is responsible for 249 million cases and over 608,000 deaths every year. Children under the age of five are the most affected. Meanwhile, dengue fever is also on the rise. It puts 3.9 billion people in 132-plus countries at risk of contracting dengue. Every year, 96 million people suffer from symptoms of dengue, resulting in 40,000 deaths.
Globalization, climate change, and urbanization are contributing to the increased rate of mosquito populations. Climate changes include increased temperatures and rainfall variations. Such changes provide an ideal environment for mosquitoes like Aedes aegypti and Anopheles to thrive. They are expanding their territory to new geographic regions.
(Source: World Health Organization)
What is Integrated Mosquito Management
Integrated Mosquito Management (IMM), also called Integrated Vector Management (IVM), is a holistic approach that utilizes different methods for mosquito management instead of a single method. Environmental management, biological management, chemical management, community management, and surveillance are all included in Integrated Mosquito Management.
Integrated Mosquito Management is based on evidence-based decision-making and collaboration between different sectors in society. It is a rational approach to mosquito management that uses available resources in an optimized manner and integrates different methods for sustainable mosquito management.
Quantifiable Impact of Integrated Strategies
Evidence is now showing that these methods can greatly reduce the spread of mosquito-borne diseases. In field tests carried out in Singapore, the release of infected male mosquitoes carrying the bacteria Wolbachia was able to reduce the incidence of dengue fever by 57% overall, including a 64% reduction in “clustered” outbreaks in populations of more than 600,000 people.
Other combinations of methods, such as the use of insecticide-treated bed nets, indoor residual sprays, and source reduction, have also proven successful in reducing malaria transmission in endemic countries. These methods enable the public health authorities to attack the mosquitoes at all stages of their life cycle.
Large-scale outbreaks of mosquito-borne diseases have also underscored the need for these methods. In Sri Lanka, for example, over 186,000 dengue cases were reported in 2017.
(Sources: Arxiv, Academic.OuP)
Technological Advancements Supporting Integrated Management
Another factor driving the expansion of integrated mosquito management practices is technological innovation. Digital surveillance technologies, Internet of Things, and artificial intelligence technologies have been deployed to monitor mosquito populations and track outbreaks.
