首页> 外国专利> Technological development for carrying out cooking and chemical reaction, chemical synthesis, metalworking, metal cyrstallization, metal sintering and metallurgy by heating pottery with microwave for converting into far infrared or infrared wave radiation from pottery with increased heat efficiency

Technological development for carrying out cooking and chemical reaction, chemical synthesis, metalworking, metal cyrstallization, metal sintering and metallurgy by heating pottery with microwave for converting into far infrared or infrared wave radiation from pottery with increased heat efficiency

机译:通过用微波加热陶器来进行烹饪和化学反应,化学合成,金属加工,金属结晶,金属烧结和冶金的技术开发,以提高陶器的热效率,将其转换为远红外或红外辐射

摘要

A method of heating a substance has not made much progress unlike rapid scientific developments. Although many studies have been made on the optimum heating temperature of a material, heating is not recognized in terms of the heat absorbing wavelength of a substance to be heated. Microwave heating provides a heating method by means of the friction heat of molecules, and microwave is separately absorbed to a magnetic element or the like and radiated by having its wavelength converted into a far infrared or infrared wave region can be controlled by a magnetic element's Curie temperature, a radiated wavelength region can be controlled within a specific temperature range, and heat energy increases when its density is increased. When, based on a principle of blackbody radiation, a magnetic element, magnetite, aluminum oxide, zirconia, zeolite, and the like applied to pottery is used microwave oven, high temperature can be obtained simply and in a short time without using an electric furnace thus enabling a wide application to chemical experiments. It has been learned that when this technology is used in microwave ovens used in homes across the country for cooking, delicious foods can be cooked simply and quickly even by elderly persons or children without using direct firing. Microwave heating using pottery started 15 years ago, but it has been left difficult to solve with little theoretical background. Magnetic element heating by microwave is beyond a classical physics idea region. Without being dependent on a classical physics theory uses a quantum mechanical effect that a magnetic element is irradiated with microwave and microwave is absorbed due to the spin resonance of magnetic element to radiate infrared rays. A combination of quantum mechanical theory by microwave irradiation to magnetic element and far infrared radiation effect by Planck's black body radiation is a key to this technology.
机译:与快速的科学发展不同,加热物质的方法并未取得太大进展。尽管已经对材料的最佳加热温度进行了许多研究,但是就待加热物质的吸热波长而言,还没有认识到加热。微波加热是利用分子的摩擦热来提供加热的方法,微波被分别吸收到磁性元件等上,并通过将其波长转换为远红外线或红外线区域进行辐射,可以通过磁性元件的居里来控制。温度,可以将辐射的波长区域控制在特定的温度范围内,并且当其密度增加时,热能也会增加。当基于黑体辐射的原理,使用应用于陶瓷的磁性元素,磁铁矿,氧化铝,氧化锆,沸石等用于微波炉时,可以在不使用电炉的情况下简单且在短时间内获得高温。因此可以广泛应用于化学实验。据了解,当将该技术用于全国各地的家庭中用于烹饪的微波炉中时,即使是老年人或儿童,也可以简单,快速地烹饪出美味的食物,而无需直接烧制。使用陶器进行微波加热始于15年前,但由于理论背景很少,很难解决。微波加热磁性元素超出了经典的物理思想范围。在不依赖于经典物理学理论的情况下,使用量子力学效应,即,用微波辐照磁性元件,并且由于磁性元件的自旋共振而吸收微波,从而辐射出红外线。该技术的关键是将微波辐射到磁性元素的量子力学理论与普朗克黑体辐射的远红外辐射效应结合起来。

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