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    • 1. 发明专利
    • Oven having pyrolytic function
    • 具有光热功能的烤箱
    • JP2013257128A
    • 2013-12-26
    • JP2012271218
    • 2012-12-12
    • Lee Young Heeイ ヤンヒLEE, Young Hee
    • LEE YOUNGHEE
    • F24C7/04F23G7/06F24C1/00F24C15/20
    • F24C15/327F24C14/02F24C15/2014
    • PROBLEM TO BE SOLVED: To provide a pyrolyzer and a method thereof which purge a contaminant generated when heat is applied to food.SOLUTION: An oven contaminant pyrolyzer includes a heating means, a combustion tube, a combustion space, a connecting tube, and a ventilation part. The heating means is provided inside an oven cooking chamber, and is surrounded by the combustion tube to form the combustion space where air flows between the heating means and the combustion tube. The ventilation part is connected to the combustion tube via the connecting tube, moves air inside the cooking chamber to the combustion space, and exhausts the purged air to the outside. The ventilation part includes a fan which generates a flow of air. The connecting tube transmits an air pressure difference generated by the fan to the combustion tube, to generate a lower pressure in the cooking chamber than atmospheric pressure. The contaminant is not spread to the outside of the cooking chamber, and stays in the combustion space heated at 700°C or more by the heating means for at least 0.5 s or more to be thermally decomposed.
    • 要解决的问题:提供一种热解器及其方法,其用于吹扫向食物施加热量时产生的污染物。解决方案:烘箱污染物热解器包括加热装置,燃烧管,燃烧空间,连接管和 通风部分。 加热装置设置在烘箱烹饪室的内部,并且被燃烧管包围,以形成空气在加热装置和燃烧管之间流动的燃烧空间。 通风部分通过连接管连接到燃烧管,将烹饪室内的空气移动到燃烧空间,并将净化的空气排出到外部。 通风部包括产生空气流的风扇。 连接管将由风扇产生的空气压力差传递到燃烧管,以在烹饪室中产生比大气压更低的压力。 污染物不会扩散到烹饪室的外部,并且通过加热装置停留在700℃以上的燃烧空间中至少0.5秒以上进行热分解。
    • 6. 发明专利
    • BR0107638A
    • 2002-11-19
    • BR0107638
    • 2001-11-26
    • LEE YOUNG HEE
    • LEE YOUNG HEE
    • H05B6/64F24C7/02F26B3/347H05B6/74
    • The apparatus for uniformly dispersing the microwave comprises a body including a plurality of reflective portions which are made of materials capable of reflecting the microwave and have the horizontal top surfaces and vertical side surfaces. The width of the plurality of reflective portions is set as 1/n times as large as a wavelength lambdag of the microwave. The depth of each of the plurality of reflective portions may be set as a value obtained by multiplying the remainder, which is obtained by dividing the power of a natural number for the least primitive root of a prime number by the prime number, by the width of the reflective portion under a condition that a datum plane is defined by a height from the bottom surface corresponding to a value obtained by multiplying the width of the reflective portion by (prime number-1).
    • 9. 发明专利
    • DE60122409D1
    • 2006-10-05
    • DE60122409
    • 2001-03-15
    • SAMSUNG SDI CO LTDLEE YOUNG-HEE
    • LEE YOUNG-HEELEE NAE-SUNGKIM JONG-MIN
    • C23C16/44H01L21/205C01B31/02C23C16/26C30B25/00C30B25/02H01J9/02
    • A method of vertically aligning pure carbon nanotubes on a large glass or silicon substrate at a low temperature using a low pressure DC thermal chemical vapor deposition method is provided. In this method, catalytic decomposition with respect to hydro-carbon gases is performed in two steps. Basically, an existing thermal chemical vapor deposition method using hydro-carbon gases such as acetylene, ethylene, methane or propane is used. To be more specific, the hydro-carbon gases are primarily decomposed at a low temperature of 400-500 DEG C by passing the hydro-carbon gases through a mesh-structure catalyst which is made of Ni, Fe, Co, Y, Pd, Pt, Au or an alloy of two or more of these materials. Secondly, the catalytically- and thermally-decomposed hydro-carbon gases pass through the space between a carbon nanotube growing substrate and an electrode substrate made of Ni, Fe, Co, Y, Pd, Pt, Au or an alloy of two or more of these materials or an electrode substrate on which Ni, Fe, Co, Y, Pd, Pt, Au or an alloy of two or more of these materials is thinly deposited by sputtering or electron-beam evaporation, the space to which DC voltage has been applied. Thus, carbon nanotubes are vertically aligned at a temperature no grater than the glass melting point. The thus grown large carbon nanotube substrate can be applied directly to FEDs, lower the turn-on voltage for electron emission, simplify the process of manufacturing an FED, and significantly reduce the manufacturing costs of FEDs. Furthermore, an electrode substrate holder and a carbon nanotube growing substrate holder are designed to mount several electrode substrates and several carbon nanotube growing substrates simultaneously, whereby the productivity is increased.