Noah H. Rose

The paper analyzes the transcriptomes of dengue mosquito neurons to show that olfactory receptors are coexpressed within families but not across families, revealing evolutionary patterns in olfactory systems.

The paper documents rapid genomic and behavioral shifts toward human specialization in urban Aedes aegypti populations in West Africa over five years.

The paper develops a predictive model for human specialist behavior in Aedes aegypti by integrating population genomics and ecological factors.

This study examines how coral genomes adapt and recover after a mass mortality event, showing host genetics influences survival and that allele frequency shifts are habitat-specific.

This study examines how drought tolerance of Aedes aegypti mosquito eggs varies with climate conditions and human association, finding urban mosquitoes have higher survival under arid conditions.

This study examines the thermotolerance of mosquito eggs and adults from Aedes species, finding that human-associated lineages have higher egg viability under high-temperature stress.

This study identifies chromosomal inversions in Aedes aegypti using Hi-C, revealing geographic distribution patterns and potential roles in host choice and disease transmission.

This study compares activity and sleep levels across 17 Ae. aegypti lines, finding population differences linked to host preference, ancestry, and human population density.

This study sequenced 1,206 Aedes aegypti genomes to trace the origin and global spread of the species, revealing its evolution from a forest-dwelling to an urban, human-biting form and its impact on dengue risk.

The paper identifies novel persistent viruses in Aedes aegypti mosquitoes using small RNA sequencing and confirms their replication and transmissibility in cell lines.

This study investigates dengue virus susceptibility in African Aedes aegypti populations and finds significant variation and strain-specific interactions.

This study generates whole genome sequencing data from Aedes albopictus populations to analyze genetic differentiation and variability across tropical and temperate regions.

The paper investigates mechanisms of ecological divergence with gene flow in corals by combining genomic, transcriptomic, and symbiont analyses to understand adaptation to environmental stress.

The paper presents an improved Aedes aegypti genome assembly, AaegL5, which enhances biological understanding and vector control efforts by resolving key genomic features and identifying new targets for intervention.