2017
DOI: 10.1071/cp16383
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Use of sensor-determined behaviours to develop algorithms for pasture intake by individual grazing cattle

Abstract: Practical and reliable measurement of pasture intake by individual animals will enable improved precision in livestock and pasture management, provide input data for prediction and simulation models, and allow animals to be ranked on grazing efficiency for genetic improvement. In this study, we assessed whether pasture intake of individual grazing cattle could be estimated from time spent exhibiting behaviours as determined from data generated by on-animal sensor devices. Variation in pasture intake was create… Show more

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Cited by 58 publications
(29 citation statements)
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“…The proposed algorithms did not consider ruminating behaviour and they also required a high sampling rate (50 Hz). Other studies (Greenwood et al, 2017;Kasfi et al, 2016;Martiskainen et al, 2009b;Smith et al, 2016) used algorithms with high computational load (e.g., multi-class binary classification, random forest, SVM, and neural networks), which could not be implemented on the on-cow nodes.…”
Section: Introductionmentioning
confidence: 99%
“…The proposed algorithms did not consider ruminating behaviour and they also required a high sampling rate (50 Hz). Other studies (Greenwood et al, 2017;Kasfi et al, 2016;Martiskainen et al, 2009b;Smith et al, 2016) used algorithms with high computational load (e.g., multi-class binary classification, random forest, SVM, and neural networks), which could not be implemented on the on-cow nodes.…”
Section: Introductionmentioning
confidence: 99%
“…Real-time estimation of pasture intake by individual cows in a herd is also now possible with sensor and wireless-sensor networks that relate specific behaviour to intake of pasture. For example, Greenwood et al (2017) developed reliable algorithms that predict intake of pasture when forage is not limiting, but concluded that further refinement of the algorithms is needed to account for variation within and among pastures and use of different sensor types that enable more specific classification of ingestive behaviours such as bite size, eating time, number of chews and eating rate. With real-time information on nutrient intake, mechanistic nutrition models may provide a supplementary-feed solution allowing optimal milk production that has a reduced impact on the environment.…”
Section: Integrating New Technologies To Optimise Nutrient Intake In mentioning
confidence: 99%
“…Other authors have assessed rumination and activity patterns by using accelerometers. For example, rumination, feeding, activity, and animal temperature [54], feeding, ruminating, active, and resting [55], rumination time, chewing cycles, and rumination bouts [53], lying time, neck activity, reticulorumen temperature, and rumination time [58], grazing, searching, ruminating, resting, and scratching [56], level of activity and rumination [60], grazing, ruminating, walking, resting behaviors to develop algorithms for pasture intake by individual grazing cattle [61], rumination and its relationship to feeding and lying behavior in Holstein dairy cows] [62]. In [63], GPS locations were recorded to calculate mean slope, elevation, distance from water, distance traveled per day, and elevation for each cow.…”
Section: Foraging Ecologymentioning
confidence: 99%