粒子-水耦合快速感应加热系统的深入研究

IF 2.8 4区 工程技术 Q2 ENGINEERING, MECHANICAL
Junfeng Lu, Hao-Han Zhang
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引用次数: 0

摘要

研究了一种提高水电加热性能的颗粒感应加热方法。该方法将金属颗粒(我们选择镍颗粒)浸入水中,并使用射频振荡磁场加热颗粒床。电涡流在颗粒表面产生的热量进一步提高了水的温度。我们的实验结果表明,由于颗粒的散热面积巨大(在某些实验情况下,即使颗粒与水的体积比只有1:89,水也在几秒钟内沸腾),这一热过程的升温速度非常快。为了描述这一过程的物理性质,提出了一个数学模型。模型的数值模拟结果与实验数据吻合较好。然而,模型中使用的一些参数在工程应用中不容易获得。然后,为了预测加热过程的温度,在本工作的最后,进一步提出了一种人工智能神经网络架构。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Deep Study On a Particle-Water Coupled Fast Induction Heating System
A particle induction heating method to promote electrical heating performance for water is studied in this paper. The method sinks metal particles (we chose Nickel particles) inside water, and uses a RF oscillating magnetic field to heat the particle bed. The heat generated on the surface of particles by electrical eddy current further raises the temperature of water. Our experimental results show that this thermal process has a remarkable high heating rate owning to the huge heat dissipation area of particles (in some experiment cases, water boils in seconds, even though the volume ratio of particle to water is only 1:89). To describe the physical nature of the process, a mathematical model is proposed. And our numerical simulation results generated from the model agrees very well with experimental data. However, some parameters used in the model are not easily obtainable for engineering application. Thereafter, to predict the temperature for the heating process, in the end of this work, an artificial intelligent neural network architecture is further proposed.
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来源期刊
自引率
0.00%
发文量
182
审稿时长
4.7 months
期刊介绍: Topical areas including, but not limited to: Biological heat and mass transfer; Combustion and reactive flows; Conduction; Electronic and photonic cooling; Evaporation, boiling, and condensation; Experimental techniques; Forced convection; Heat exchanger fundamentals; Heat transfer enhancement; Combined heat and mass transfer; Heat transfer in manufacturing; Jets, wakes, and impingement cooling; Melting and solidification; Microscale and nanoscale heat and mass transfer; Natural and mixed convection; Porous media; Radiative heat transfer; Thermal systems; Two-phase flow and heat transfer. Such topical areas may be seen in: Aerospace; The environment; Gas turbines; Biotechnology; Electronic and photonic processes and equipment; Energy systems, Fire and combustion, heat pipes, manufacturing and materials processing, low temperature and arctic region heat transfer; Refrigeration and air conditioning; Homeland security systems; Multi-phase processes; Microscale and nanoscale devices and processes.
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