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Prediction of field-dependent rheological properties of magnetorheological grease using extreme learning machine method

机译:用极限学习机方法预测磁流变润滑脂的场变流变性能

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摘要

Magnetorheological grease is seen as a promising material for replacing the magnetorheological fluid owing to its higher stability and the lesser production of leakage. As such, it is important that the rheological properties of the magnetorheological grease as a function of a composition are conducted in the modeling studies of a magnetorheological grease model so that its optimum properties, as well as the time and cost reduction in the development process, can be achieved. Therefore, this article had proposed a machine learning method-based simulation model via the extreme learning machine and backpropagation artificial neural network methods for characterizing and predicting the relationship of the magnetorheological grease rheological properties with shear rate, magnetic field, and its compositional elements. The results were then evaluated and compared with a constitutive equation known as the state transition equation. Apart from the shear stress results, where it had demonstrated the extreme learning machine models as having a better performance than the other methods with R-2 more than 0.950 in the training and testing data, the predicted rheological variables such as shear stress, yield stress, and apparent viscosity were also proven to have an agreeable accuracy with the experimental data.
机译:磁流变润滑脂由于其较高的稳定性和较少的泄漏而被视为替代磁流变流体的有前途的材料。因此,重要的是在磁流变润滑脂模型的建模研究中进行磁流变润滑脂的流变特性随组成的变化,以使其最佳性能以及开发过程中的时间和成本减少,可以实现。因此,本文通过极限学习机和反向传播人工神经网络方法,提出了一种基于机器学习方法的仿真模型,用于表征和预测磁流变润滑脂流变性能与剪切速率,磁场及其组成元素之间的关系。然后评估结果,并将其与称为状态转换方程的本构方程进行比较。除了剪切应力结果外,它在训练和测试数据中还证明了极限学习机模型的性能优于R-2大于0.950的其他方法,并预测了流变学变量,例如剪切应力,屈服应力,表观粘度也被证明与实验数据具有令人满意的精度。

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