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Temperature Prediction of Heating Furnace Based on Deep Transfer Learning

机译:基于深度转移学习的加热炉温度预测

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摘要

Heating temperature is very important in the process of billet production, and it directly affects the quality of billet. However, there is no direct method to measure billet temperature, so we need to accurately predict the temperature of each heating zone in the furnace in order to approximate the billet temperature. Due to the complexity of the heating process, it is difficult to accurately predict the temperature of each heating zone and each heating zone sensor datum to establish a model, which will increase the cost of calculation. To solve these two problems, a two-layer transfer learning framework based on a temporal convolution network (TL-TCN) is proposed for the first time, which transfers the knowledge learned from the source heating zone to the target heating zone. In the first layer, the TCN model is built for the source domain data, and the self-transfer learning method is used to optimize the TCN model to obtain the basic model, which improves the prediction accuracy of the source domain. In the second layer, we propose two frameworks: one is to generate the target model directly by using fine-tuning, and the other is to generate the target model by using generative adversarial networks (GAN) for domain adaption. Case studies demonstrated that the proposed TL-TCN framework achieves state-of-the-art prediction results on each dataset, and the prediction errors are significantly reduced. Consistent results applied to each dataset indicate that this framework is the most advanced method to solve the above problem under the condition of limited samples.
机译:加热温度在坯料生产过程中非常重要,它直接影响坯料的质量。然而,没有直接测量坯料温度的方法,因此我们需要准确地预测炉中每个加热区的温度以近似坯料温度。由于加热过程的复杂性,难以准确地预测每个加热区的温度和每个加热区传感器数据,以建立模型,这将增加计算成本。为了解决这两个问题,第一次提出了一种基于时间卷积网络(TL-TCN)的双层传输学习框架,其将从源加热区中学到的知识传送到目标加热区。在第一层中,基于源域数据构建了TCN模型,并且自转移学习方法用于优化TCN模型以获得基本模型,从而提高源域的预测精度。在第二层中,我们提出了两个框架:一个是通过使用微调直接生成目标模型,另一个是通过使用生成的对抗网络(GaN)来生成目标模型来为域适应来生成目标模型。案例研究表明,所提出的TL-TCN框架在每个数据集上实现最先进的预测结果,并且预测误差显着降低。应用于每个数据集的一致结果表明该框架是在有限样本的条件下解决上述问题的最先进的方法。

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