AgriSciense is an AI-powered early-warning and decision-support platform for high-value tree crops. It combines acoustic sensing, volatile organic compound (VOC) signals, microclimate data, and 360-degree visual monitoring to detect hidden pest activity weeks before visible symptoms appear. Multimodal AI models assess tree health, identify infestation risk, and guide precise, tree-level interventions. This approach reduces tree mortality, unnecessary pesticide use, and crop losses, and supports orchards, plantations, and forests. Field trials demonstrate 84% early-detection accuracy, with future applications planned for household and structural pest monitoring.
AgriSciense is an AI-based early-warning and decision-support system for protecting high-value tree crops. It combines multiple sensing modalities to detect hidden pest activity before visible symptoms emerge, giving growers a practical window to intervene early. By shifting pest management away from blanket spraying and reactive scouting toward predictive, precision protection, the platform helps reduce tree mortality, unnecessary pesticide use, and economic losses.
The system is designed as a scalable intelligence layer that can be used across orchards, plantations, and forests. Its modular architecture also makes it adaptable for smart traps, garden monitoring, and structural pest applications, broadening the long-term commercial value beyond field crops.
Core platform features:
Validation performance:
Planned next steps:
The system is currently at an advanced prototype stage. The core detection technology has been demonstrated in field trials, with strong early-detection accuracy. The next stage will involve broader pilot deployments to validate pest-specific identification, false-alarm rates, battery performance, and real-world usability. AgriSciense expects the path from validated prototype to commercial deployment to take roughly 3–5 years.
Key limitations at this stage include the need for additional labeled data for non-tree applications, hardware miniaturization for consumer-level production, and validation of long-term field performance before large-scale commercialization.