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首页> 外文期刊>Energy Conversion & Management >Numerical study of cullet glass subjected to microwave heating and SiC susceptor effects. Part I: Combined electric and thermal model
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Numerical study of cullet glass subjected to microwave heating and SiC susceptor effects. Part I: Combined electric and thermal model

机译:碎玻璃受到微波加热和SiC感受器效应的数值研究。第一部分:电热模型组合

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A numerical study of energy conversion during microwave heating of cullet glass is presented by means of a combined electric and thermal model. Ceramic materials, such as glass, poorly absorb microwave radiation at temperatures below 300 degrees C. Thus, in order to obtain the simulation of microwave heating from room temperatures, the effects of a SiC susceptor were studied. Four different positions of the susceptor were simulated to improve that heating process. The numerical simulation of cullet glass and susceptor behavior under an electromagnetic field was analyzed by applying transient Maxwell's equations, which were solved by the finite difference time domain (FDTD) method. Once the electromagnetic field in the waveguide and microwave cavity was computed, temperature inside of the applicator was determined by solving the heat transfer equations including microwave absorption, conduction and internal radiation terms. Parametric simulations showed that the susceptor position changed the electromagnetic and heat transfer patterns, and then the temperature field inside of the cullet glass. Therefore, energy consumption of heated cullet glass was also affected. (C) 2015 Elsevier Ltd. All rights reserved.
机译:结合电热模型,对碎玻璃进行微波加热过程中的能量转换进行了数值研究。陶瓷材料(例如玻璃)在300摄氏度以下的温度下吸收微波辐射的能力很差。因此,为了获得从室温进行微波加热的模拟,研究了SiC基座的作用。模拟基座的四个不同位置以改善加热过程。应用瞬态麦克斯韦方程,分析了玻璃碎玻璃和基座在电磁场下的行为,并通过时域有限差分法(FDTD)对其进行了求解。一旦计算了波导和微波腔中的电磁场,就可以通过求解包括微波吸收,传导和内部辐射项在内的传热方程来确定施涂器内部的温度。参数模拟表明,基座位置改变了电磁和传热模式,进而改变了碎玻璃内部的温度场。因此,加热的碎玻璃的能量消耗也受到影响。 (C)2015 Elsevier Ltd.保留所有权利。

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