A field-validated pest management solution using pheromone-baited insecticidal nets to reduce insecticide applications in non-GMO corn while supporting beneficial insect biodiversity. Targets fall armyworm, corn earworm, corn borers, and Japanese beetle through a sustainable alternative to conventional spray programs.
Non-GMO corn growers face significant pest pressure from fall armyworm, corn earworm, corn borers, and invasive species such as Japanese beetle, often requiring multiple insecticide applications beyond what GMO varieties demand. This approach replaces or supplements standard insecticide sprays with insecticidal nets baited with insect pheromones deployed along field borders. By attracting pests to a targeted control mechanism rather than broadcasting chemicals across the field, the technology aims to reduce overall insecticide use while protecting beneficial insect populations, including pollinators and natural enemies. The result is a pest management strategy that supports both economic premiums for non-GMO corn and improved biodiversity outcomes.
This solution is at an early-stage field validation phase. Prior research by the proposing lab established proof of concept for insecticidal nets in soybean systems. The current proposal seeks funding to extend that work into non-GMO corn, comparing pheromone-baited net deployment against grower-standard insecticide sprays across replicated commercial farm sites. Upon completion of one field season, the team will have empirical data on pest damage reduction, insecticide replacement potential, and biodiversity outcomes, positioning the technology for further development or partnership toward broader adoption.
Founded as Missouri’s flagship land‑grant, the University of Missouri–Columbia is a comprehensive public research university serving a large student body and partners statewide. Industry engages on campus through co‑located research cores, a research park and incubator in Columbia, and access to a high‑power university research reactor supporting isotope production and advanced testing. An integrated academic health system enables clinical studies and translation, while a statewide extension and agricultural research network links companies to field sites, producers, and community testbeds across Missouri. Research is supported by competitive federal funding from agencies such as NIH, NSF, USDA, and DOE. A dedicated tech transfer office supports IP, licensing, and sponsored‑research agreements.