🤖 AI Summary
Incomplete meteorological data undermines the reliability of agricultural digital twin systems. Method: This paper proposes Cerealia, a modular framework integrating dynamic virtual agricultural modeling with a multi-source data consistency verification mechanism. It employs a lightweight neural network for real-time anomaly detection, deployed on an NVIDIA Jetson Orin edge platform to enable on-device sensor data comparison and meteorological anomaly identification. Crucially, it achieves proactive inconsistency awareness under non-ideal input conditions—e.g., missing or noisy weather data—enhancing decision robustness. Contribution/Results: Evaluated on a commercial orchard’s in-situ weather network and public datasets, Cerealia achieves high anomaly detection accuracy (F1-score > 0.92) and demonstrates consistent performance across real-world deployments and cross-domain data. It provides a deployable, resource-efficient solution for precision agriculture automation in constrained-edge environments.
📝 Abstract
By offering a dynamic, real-time virtual representation of physical systems, digital twin technology can enhance data-driven decision-making in digital agriculture. Our research shows how digital twins are useful for detecting inconsistencies in agricultural weather data measurements, which are key attributes for various agricultural decision-making and automation tasks. We develop a modular framework named Cerealia that allows end-users to check for data inconsistencies when perfect weather feeds are unavailable. Cerealia uses neural network models to check anomalies and aids end-users in informed decision-making. We develop a prototype of Cerealia using the NVIDIA Jetson Orin platform and test it with an operational weather network established in a commercial orchard as well as publicly available weather datasets.