An autonomous robotic system that uses deep learning to detect, map, and surgically treat Navel Orangeworm infestations in almond orchards. The platform combines pheromone-based scouting with variable-height actuators and AI-driven image recognition to enable site-specific spraying, reducing pesticide use and potentially saving growers $50K–$500K.
The Intelligent Bugs Mapping and Wiping (iBMW) system is an autonomous robotic platform designed to monitor and manage Navel Orangeworm (NOW) populations in almond orchards. NOW is one of the most damaging pests in almond production, and current management practices rely on broad, calendar-based pesticide applications that increase costs, raise environmental concerns, and often treat areas that do not need intervention. The iBMW replaces this blanket approach with precision scouting and targeted spraying, enabling growers to apply treatment only where pest pressure is confirmed.
The system integrates pheromone traps mounted on an adjustable rod actuator, high-resolution imaging, and deep learning algorithms to recognize and count NOW moths in the field. By mapping infestations both spatially and temporally, the iBMW helps growers and crop advisors make data-driven decisions about treatment timing, location, and intensity. The result is reduced chemical input, lower operational costs, and improved sustainability for almond production.
Key features:
How it works:
The iBMW moves through the orchard while the pheromone traps attract NOW moths. High-resolution cameras capture images of the traps, and deep learning neural networks running on the onboard Jetson TX2 processor identify and count moths. The system generates a spatial and temporal map of pest pressure, identifies high-risk zones, and triggers the sprayer module to deliver targeted treatment only where needed.
The iBMW is currently in active development and field validation. The core cognition mechanism, including deep learning-based NOW recognition, has been demonstrated on the Jetson TX2 platform. The team is conducting ongoing field trials in a commercial almond orchard in Merced, California, planted with Nonpareil, Carmel, and Monterey varieties on Lovell peach rootstock. Multiple field visits have been completed to collect video and image data for training and refining the deep learning models. Current work focuses on optimizing recognition accuracy, validating the precision spraying module, and demonstrating end-to-end mapping and treatment workflows under real orchard conditions. The system is positioned for continued pilot-scale validation before broader commercial deployment.
Texas A&M University in College Station is a comprehensive public research university and the flagship of The Texas A&M University System, combining broad academic strengths with a strong applied‑research culture. Industry collaborates on the Texas A&M‑RELLIS campus—an integrated education, research and testing environment that supports large‑scale experimentation and proving grounds—and through the Texas A&M Transportation Institute’s facilities in Bryan‑College Station. A statewide extension network connects university expertise to companies and communities across all Texas counties, enabling rapid piloting and deployment. Research is supported by competitive federal funding from agencies such as NSF, NIH, DOE, USDA and DoD, alongside state and industry sponsorship. Texas A&M Innovation provides IP management, licensing and commercialization pathways across the system.