Genetic incompatibility combined with female-lethality is effective and robust in simulations of Aedes aegypti population control
Maciej MaselkoiD, Stephen C. HeinschiD, Siba R. DasiD, Michael J. SmanskiiD
Abstract
Recent reports of CRISPR/Cas9-based suppression gene drives in insects underscore the challenge of overcoming genetic resistance. Here we present results from agent-based simulation modeling of a novel Field-Amplified Male Sterility System (FAMSS) that outperforms suppression gene drives when challenged with genetic resistance. FAMSS combines a recently described synthetic genetic incompatibility approach with previously demonstrated female-lethality constructs. Our results suggest that FAMSS will be an effective strategy for temporally and spatially self-limited suppression of the disease vectoring mosquito, Aedes aegypti.
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