Conor McMenimanView profile
Associate Professor
Conor McMeniman is an Associate Professor in the W. Harry Feinstone Department of Molecular Microbiology and Immunology at the Johns Hopkins Bloomberg School of Public Health, where he leads a research laboratory focused on mosquito sensory biology and neurogenetics. He is a member of the Johns Hopkins Malaria Research Institute and contributes to the Neuroscience Training Program and Molecular Microbiology and Immunology Graduate Program. His research centers on understanding the molecular and neural mechanisms that drive mosquito attraction to humans. By combining analytical chemistry, genome engineering, and functional imaging , his lab investigates how human scent is detected by the mosquito olfactory system and how internal physiological states—such as pathogen infection—influence host-seeking behavior. Key research areas include: Neural circuits underlying mosquito olfaction Genetic basis of host preference in Aedes aegypti and Anopheles gambiae Integration of olfactory and thermal cues in host detection Development of neurogenetic tools for mosquito neuroscience The lab's recent publications (2014–2025) reflect a strong trajectory in mosquito neurobiology, genetic tool development, and host-seeking behavior . Studies increasingly focus on naturalistic conditions and multimodal sensory integration, suggesting a shift toward translational applications for vector control. The work bridges fundamental neuroscience with public health goals of reducing vector-borne disease transmission. Scientific awards and honors are not listed in the provided text. Dr. McMeniman advises multiple graduate students and hosts postdoctoral researchers, contributing to training the next generation of vector biologists. While specific grants are not mentioned, the sustained output and technical innovation imply active funding support. His lab collaborates with experts in genetics, chemical ecology, and imaging. The McMeniman Lab is equipped to perform advanced functional imaging, genetic manipulation, and behavioral assays under controlled and naturalistic conditions. It plays a key role in advancing the neuroethology of mosquito host-seeking, with potential applications in developing novel repellents, lures, and genetic control strategies.








