A HIGH-POWER SOURCE OF OPTICAL RADIATION WITH MICROWAVE EXCITATION

G. Churyumov, O. Denisov, T. Frolova, Nan-Nan Wang, J. Qiu
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引用次数: 1

Abstract

For more than 50 years, interest to the microwave heating technology has not weakened. In addition to the traditional areas of its application, which described in detail in [1], recently there has been an expansion of technological possibilities for the use of microwave energy associated with the impact of electromagnetic waves of the microwave range on various materials (sintering of metal and ceramic powders) and media, including plasma [2]. One such new direction is the creation of high-power and environmentally friendly sources of optical radiation on the basis of an electrodeless sulfur lamp with microwave excitation [2, 3]. The purpose of this paper is to the further development of the theory and practice of microwave excitation by the electrodeless sulfur lamps, improvement the energy efficiency during energy conversion into the optical radiation and widening the application of new light sources in real practice. The results of the computer modeling of conversion process of the microwave energy into optical radiation energy are presented. The simulation results are compared with experimental data. It is shown that additional use of the solar panels for the reverse conversion of the optical radiation into DC energy with follow-up its using in the circuits of secondary power supply allows improving the energy efficiency of the light source.   References Microwave Power Engineering. Edited by E.C. Okress. V. 1, 2. Academic Press, New York & London. 1968.A.N. Didenko, SVCh-energetika. Teoriya i praktika. – Moscow: Nauka. 2003.- 445 s.G. Churyumov, T. Frolova, “Microwave Energy and Light Energy Transformation: Methods, Schemes and Designs. Microwave Energy and Light Energy Transformation: Methods, Schemes and Designs” // In book “Emerging Microwave Technologies in Industrial, Agricultural, Medical and Food Processing.” Edited by Kok Yeow You, IntechOpen, 2018. pp. 75-91.
微波激发的高功率光辐射源
50多年来,人们对微波加热技术的兴趣一直没有减弱。除了在[1]中详细描述的传统应用领域外,最近随着微波范围内的电磁波对各种材料(金属和陶瓷粉末的烧结)和介质(包括等离子体)的影响,微波能的使用技术可能性也在扩大[2]。一个这样的新方向是在微波激发的无极硫灯的基础上创造高功率和环境友好的光辐射源[2,3]。本文的目的是进一步发展无极硫灯微波激发的理论和实践,提高能量转化为光辐射的效率,扩大新光源在实际中的应用。给出了微波能量转化为光辐射能量过程的计算机模拟结果。仿真结果与实验数据进行了比较。结果表明,利用太阳能板将光辐射反向转换为直流电能,并将其应用于二次电源电路中,可以提高光源的能量效率。参考文献微波功率工程。由E.C. Okress编辑。v, 1, 2。学术出版社,纽约和伦敦。1968.A.N。Didenko SVCh-energetika。泰奥里亚,我是印度人。-莫斯科:瑙卡,2003。- 445 s.G. Churyumov, T. Frolova,“微波能量和光能转换:方法、方案和设计。”微波能与光能转化:方法、方案与设计”//《工业、农业、医疗和食品加工中的新兴微波技术》郭耀友编辑,互联网,2018。75 - 91页。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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