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An Explainable AI based approach for Monitoring Animal Health

Created by
  • Haebom

Author

Rahul Jana, Shubham Dixit, Mrityunjay Sharma, Ritesh Kumar

Outline

This paper presents a data-driven farming approach based on explainable machine learning (Explainable ML) to address the challenges of cow health monitoring and yield optimization in dairy farms. Continuous data collection using a 3-axis accelerometer sensor and robust ML methodologies and algorithms provide actionable insights into cow activity and behavior, empowering farmers to make informed decisions and adopt sustainable practices. Bluetooth-enabled IoT devices and 4G networks facilitate data transmission, analysis, and inference generation, and model performance is explained through an explainability framework. Focusing on accelerometer time-series data preprocessing (statistical feature extraction, signal processing techniques, and delay-based feature extraction using a sliding window technique), various hyperparameter-optimized ML models are evaluated for activity classification across various window lengths. The k-nearest neighbor classifier achieves the best performance (mean AUC of 0.98 on the training set, standard deviation of 0.0026, and AUC of 0.99 on the test set). Using an explainable AI framework like SHAP, we interpret feature importance in a way that practitioners can understand and use. We develop explainable and practical ML models to support sustainable livestock management through detailed comparison of key features and stability analysis of selected features.

Takeaways, Limitations

Takeaways:
A new data-driven agricultural approach that leverages explainable machine learning to analyze cattle activity and behavior and support farm decision-making.
Presents the possibility of building a real-time data collection and analysis system utilizing IoT devices and 4G networks.
The effectiveness of the system was verified through the high prediction accuracy (AUC 0.99) of the k-nearest neighbor classifier.
Ensuring model transparency and reliability through a SHAP-based explainability framework.
Contribute to the development of practical and explainable ML models for sustainable livestock management.
Limitations:
Because the results of this study are based on data from a specific farm, generalizability to other environments or breeds of cattle may be limited.
Additional validation in various environments is needed, as the type and performance of sensors and networks used may affect the results.
Long-term data collection and analysis are required to evaluate the model's stability and long-term predictive performance.
Because the interpretation results of the explainability framework can be subjective, comparison and review of various interpretation methods are necessary.
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