Proprietary machine learning models turning raw pixels and sensor voltages into prescriptive agronomic intelligence — validated in the field at 70-85% detection accuracy across active pilot deployments.
Technique: CNN (EfficientNet)
Transfer learning on labeled regional crop datasets identifies specific disease or pest types directly from high-resolution canopy imagery.
Technique: U-Net / Mask R-CNN
Semantic segmentation maps the exact affected area within a field for highly accurate severity scoring and boundary definition.
Technique: NDVI/NDRE + Regression
Multispectral index modeling combined with regression detects water and nutrient stress early by analyzing non-visible light spectrums.
Technique: Spatiotemporal Modeling
Combines micro-weather data (wind, humidity) and detection history to predict exactly how fast and in what direction an issue will spread.
Technique: Gradient-Boosted Trees
Fuses imagery data, historical performance, and current stress levels to forecast final harvest yield under current interventions.
Technique: Rule-Based Logic
Translates complex model outputs into standardized variable-rate prescription maps validated by expert agronomists.
We use AWS to host backend APIs, store user and product data securely, run AI workflows, manage authentication, deploy scalable databases, serve frontend assets, monitor performance, and support future machine learning features through Amazon Bedrock and related AWS AI services.
We plan to use NVIDIA technologies to accelerate AI model development, optimize inference, process visual/audio/data workloads, and improve real-time AI performance as the platform scales.
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