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Published on: September 7, 2015
Predicting dry matter intake in cattle at scale using gradient boosting regression techniques and Gaussian process
K E ArunKumar1,2, Nathan E Blake1,2, Matthew Walker2,3,4
1School of Agriculture and Food Systems, Davis College of Agriculture and Natural Resources, West Virginia University, Morgantown, WV, USA.
Accurately predicting beef cattle dry matter intake (DMI) using machine learning (ML) is now possible. Gaussian process boosting models offer a reliable solution for livestock management and ecosystem service credits.
Area of Science:
- Agricultural Science
- Machine Learning
- Animal Science
Background:
- Dry matter intake (DMI) is crucial for livestock management, but accurate measurement of grazing cattle is challenging.
- Existing methods for dry lot DMI quantification are expensive and not applicable to grazing systems.
- Machine learning (ML) offers a potential solution for predicting DMI, improving efficiency and enabling participation in ecosystem service programs.
Purpose of the Study:
- To develop and evaluate machine learning models for predicting individual dry matter intake (DMI) in beef cattle.
- To compare the performance of various gradient boosting approaches against baseline models.
- To establish a scalable and reproducible ML workflow for DMI prediction.
Main Methods:
- Utilized a dataset of 12,056 daily records from 178 beef cattle at West Virginia University (2019-2020).
- Explored gradient boosting regression (GBR), LightGBM (LGB), XGBoost (XGB), and Gaussian Process Boosting (GPBoost) models.
- Developed an end-to-end MLOps pipeline using MLflow and Docker for streamlined ML operations and deployment.
Main Results:
- Gaussian Process Boosting (GPBoost) models demonstrated superior performance with the best bias and variance compared to other models.
- Optimized GPBoost models achieved RMSE values ranging from 1.18 to 1.54 kg on test data.
- GPBoost models achieved R-squared values of 0.58 (training) and 0.55 (testing), with MAE values of 0.92 kg (training) and 0.90 kg (testing), indicating good generalization.
Conclusions:
- GPBoost models provide a reliable and accurate method for predicting beef cattle DMI, outperforming traditional and other ML approaches.
- The developed MLOps pipeline ensures reproducibility, scalability, and seamless deployment of the DMI prediction model.
- Accurate DMI prediction using ML can enhance livestock management efficiency and facilitate producer participation in ecosystem service credit programs.
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