Harnessing AI to Combat Malaria

Harnessing AI to Combat Malaria

Researchers at the University of South Florida (USF) are harnessing the power of artificial intelligence (AI) to revolutionize mosquito surveillance and combat malaria in Africa and beyond. With a $3.6 million grant from the National Institute of Allergy and Infectious Diseases, this international effort aims to optimize mosquito surveillance and prevent the urban spread of malaria.

In collaboration with the National Science Foundation, USF researchers developed a mosquito-tracking dashboard last year. By crowd-sourcing photos of mosquitoes, the team used AI algorithms to identify different species and assess their potential for carrying malaria. Now, they are taking this technology a step further by creating an AI-enabled smart trap that not only captures mosquitoes but also takes photos of them to identify their species.

Sriram Chellappan, a professor in the Department of Computer Science and Engineering at USF, explains that their goal is to optimize mosquito surveillance, which is currently a manual process. By automating the identification of mosquito species through AI, they hope to streamline efforts and enhance efficiency.

Malaria poses a significant threat in Africa, where the continent accounted for 95% of all malaria deaths in 2022. Chellappan points out that the emergence of the Anopheles Stephensi mosquito, which can carry malaria, is of particular concern. This mosquito is an urban vector, meaning it has adapted to densely populated areas. Its introduction to Africa could have devastating consequences, as millions of urban dwellers could be at risk.

The team plans to test their AI-enabled smart traps locally before deploying them in Africa within the next six months. While the immediate focus is on Africa, USF researchers believe that the technology developed through this project carries significant implications for the United States as well. With Florida’s conducive climate and high rate of international travel, the state is vulnerable to mosquito-borne illnesses. By effectively monitoring and controlling mosquito populations, the spread of diseases can be prevented.

The potential impact of this research is substantial. Ryan Carney, one of the USF researchers, emphasizes the gravity of the situation, stating, “When you think about it, the mosquito, that’s the deadliest animal on the planet.” With its ability to cause over 700 million infections and nearly one million deaths, the mosquito’s impact cannot be underestimated.

By combining the power of AI and mosquito surveillance, the USF team is making significant strides in the fight against malaria. Their innovation has the potential to save countless lives in Africa and beyond. With the deployment of AI-enabled smart traps, they hope to detect and destroy mosquito breeding grounds, control the population, and ultimately prevent the spread of disease.

As the threat of mosquito-borne illnesses persists, the use of AI in mosquito surveillance offers a promising solution. This research serves as a testament to the power of technology in addressing global public health challenges. Through continuous innovation and collaboration, we can confront the deadliest animals on the planet and safeguard the well-being of communities around the world.


Written By

Jiri Bílek

In the vast realm of AI and U.N. directives, Jiri crafts tales that bridge tech divides. With every word, he champions a world where machines serve all, harmoniously.