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Design of microwave heating apparatus for titanium powder for mass production

机译:钛粉微波加热装置设计批量生产

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Since the discovery that microwave can heat metal powder, a number of studies on microwave heating of metal powder have been conducted. Because the microwave can heat various substances more efficiently than conventional heating, microwave heating of metal powder is highly expected to be applied in industry. In this paper, we design microwave heating apparatus for titanium powder for industrial mass production. The apparatus consists of some cavity resonators and a belt conveyor. Each resonator has additional two square openings other than microwave input for a belt conveyor, and they are set in parallel. Then we make the belt conveyor pass through the openings of the resonators and put the heated samples in cylindrical containers on the belt. In this condition, when the conveyor works, the samples are sent one after another, making it possible to heat metal powder seamlessly and efficiently. We evaluated this model by electromagnetic simulation, especially sample absorption and energy leakage from the openings, and investigated the optimal size for efficient heating. However in our simulations, because of the difficulty to simulate real titanium powder with complicated structure for limited computation resource, TiO2 bulk metal was applied as alternative of the titanium powder. The results show that the shorter vertical length of the openings gave more sample absorption, whilst horizontal length of the openings dis not affect sample absorption relatively. As for energy leakage from the openings, the shorter both vertical and horizontal length of the openings, the less energy leakage. Also paralleling resonators can reduce microwave leakage from the openings.
机译:由于微波炉可以散热的发现,已经进行了关于金属粉末微波加热的许多研究。因为微波可以比传统的加热更有效地加热各种物质,所以金属粉末的微波加热受到高效应用在工业中。在本文中,我们设计了用于工业批量生产的钛粉末微波加热装置。该装置包括一些腔谐振器和带式输送机。每个谐振器具有除带式输送机的微波输入之外的额外两个方形开口,并且它们并联设定。然后,我们使皮带输送机穿过谐振器的开口,并将加热的样品放在带上的圆柱形容器上。在这种情况下,当传送带工作时,样品一体地发送,使得可以无缝且有效地加热金属粉末。我们通过电磁模拟评估了该模型,特别是从开口的样品吸收和能量泄漏,并研究了高效加热的最佳尺寸。然而,在我们的模拟中,由于难以模拟具有有限计算资源的复杂结构的真正钛粉末,因此将TiO2散装金属作为钛粉末的替代物施用。结果表明,开口的较短垂直长度给出了更多的样品吸收,而开口的水平长度不影响相对的样品吸收。至于开口的能量泄漏,开口的垂直和水平长度较短,漏能越少。并联谐振器也可以减少开口的微波泄漏。

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