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Multi-Sensor Integration and Machine Learning for High-Resolution Classification of Herbivore Foraging Behavior

dataset
posted on 2025-04-05, 00:14 authored by Iddy Muzzo, Kelvyn Bladen, Andres Perea, Shelemia Nyamuryekung'e, Juan J. Villalba

The study used Random Test-Split (RTS) and Cross-Validation (CV) machine learning methods to test different models to classify cattle behavior foraging behaviors states, foraging activities, posture, and activity by posture, using GPS coupled accelerometer data with 12-hour / days continuous recording observation as supporting ground truth. RTS in XGBoost performing best for general activity state classification, while CV in Random Forest excelled in more detailed foraging activities and activity-posture classifications. Key movement indicators like speed, Actindex and sensor values (x, y, and z) were vital in predicting behaviors, suggesting specific sensors for tracking behaviors of interest to ranchers. The results highlight the benefits of continuous monitoring and advanced data analysis for real-time livestock tracking, leading to better grazing management, improved animal welfare, and more sustainable land use.

Funding

Using Smart Foodscapes to Enhance the Sustainability of Western Rangelands

National Institute of Food and Agriculture

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History

Data contact name

Muzzo, Iddy

Data contact email

iddy.muzzo@usu.edu

Publisher

Ag Data Commons

Intended use

The intended use of this information is to advance the understanding and application of machine learning techniques in livestock behavior monitoring. Specifically, the study's findings are aimed at: -Improving Livestock Management: By providing accurate classification of cattle behaviors, ranchers can make informed decisions about grazing management, improving animal welfare and optimizing land use. -Promoting Sustainable Agriculture: The ability to monitor and predict cattle behavior in real-time supports sustainable grazing practices by reducing overgrazing and enhancing pasture management. -Enhancing Technological Adoption in Agriculture: The study demonstrates the practical utility of GPS and accelerometer data, coupled with machine learning models like XGBoost and Random Forest, encouraging the adoption of advanced technologies for livestock tracking. -Supporting Research and Development: The results contribute to the broader field of precision agriculture, offering a foundation for further research into sensor-based livestock monitoring systems. -Providing Practical Tools for Ranchers: By identifying key movement indicators (e.g., speed, Actindex, sensor values), the study suggests specific sensors and methodologies that ranchers can use to track behaviors of interest effectively. In summary, this information is intended to bridge the gap between advanced data analysis techniques and practical applications in livestock management, fostering innovation and sustainability in agriculture.

Temporal Extent Start Date

2021-09-21

Temporal Extent End Date

2026-08-31

Frequency

  • asNeeded

Theme

  • Geospatial

Geographic Coverage

{"type":"FeatureCollection","features":[{"geometry":{"type":"Point","coordinates":[-111.8368798,41.6939214]},"type":"Feature","properties":{}}]}

Geographic location - description

USU Richmond Research farm (41.9227° N, 111.8136° W) Richmond, Utah, United States of America

ISO Topic Category

  • environment
  • farming
  • geoscientificInformation
  • location

National Agricultural Library Thesaurus terms

artificial intelligence; models; cattle; foraging; global positioning systems; accelerometers; ranchers; monitoring; grazing management; animal welfare; sustainable land management; herbivores; livestock husbandry; land use; sustainable agriculture; overgrazing; pasture management; precision agriculture

OMB Bureau Code

  • 005:20 - National Institute of Food and Agriculture

OMB Program Code

  • 005:037 - Research and Education

Pending citation

  • Yes

Public Access Level

  • Public