利用反热传导问题法确定从带状加热器到管道的热流特性

0 ENGINEERING, MECHANICAL ASME journal of heat and mass transfer Pub Date : 2024-02-13 DOI:10.1115/1.4064731
Ramon Peruchi Pacheco da Silva, K. Woodbury, F. Samadi, Joseph Carpenter
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引用次数: 0

摘要

我们建造了一个实验装置,用于关联外部带状加热器下的水流量和温升。由于带状加热器的物理特性,其瞬态加热行为尚不清楚。本文研究了逆热传导问题 (IHCP) 方法的应用,以确定来自带状加热器的热通量的特征。进行了三次不同加热时间(5 秒、10 秒和 20 秒)和无流速的实验,以测量 400 W 带状加热器下的瞬态温度。T 型热电偶测量带状加热器中心线的表面温度。实验结果通过五种不同的热传导模型计算得出。选择这些模型是为了确定从简化模型到现实模型的热通量响应是如何变化的。此外,每个模型的实验热通量结果都与制造商提供的带状加热器数据(58.9 kW/m2)进行了比较。加热器完全启动系统所需的最短时间为 10 至 12 秒。对每个模型的残差进行了分析,并用于评估五个不同模型的适当性。结果表明,使用较简单的模型可以获得与复杂模型类似的结果,而且时间和计算成本更低。
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Heat Flux Characterization From a Band Heater to Pipe Using Inverse Heat Conduction Problem Method
An experimental apparatus was constructed to correlate water flow rate and temperature rise under an external band heater. Due to the physical characteristics of the band heater, its transient heating behavior is unknown. This paper investigates the application of Inverse Heat Conduction Problem (IHCP) methods to characterize the heat flux from the band heater. Three experiments with different heating times (5, 10, and 20 seconds) and no flow rate were conducted to measure the transient temperature under the 400 W band heater. Type-T thermocouples measure surface temperature at the centerline of the band heater. The experimental results are computed with five different heat conduction models. The models are chosen to identify how the heat flux response varies from a simplified to a realistic model. Additionally, the results of the experimental heat flux are compared to the manufacturer band heater data (58.9 kW/m2) for each model. The minimum time needed for the heater to fully energize the system is from 10 to 12 seconds. The residuals for each model are analyzed and used to evaluate the appropriateness of the five different models. The results show that the use of simpler models can achieve results similar to those of complex models, with less time and computational cost.
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