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    • 3. 发明授权
    • Method for manufacturing multilayer ceramic capacitor
    • 多层陶瓷电容器制造方法
    • US07335328B2
    • 2008-02-26
    • US10502602
    • 2003-10-24
    • Kazuki HirataKenji OkaKazuhiro KomatsuAtsuo Nagai
    • Kazuki HirataKenji OkaKazuhiro KomatsuAtsuo Nagai
    • H01G4/00C04B33/32
    • H01G4/30H01G4/1227
    • A method of manufacturing a multilayer ceramic capacitor includes the steps of: preparing a mixture of a raw material powder mainly composed of barium titanate particles; forming the mixture and a binder into a green sheet; alternately layering the green sheet and an internal electrode to obtain a laminated body; and sintering the laminated body. The step of preparing the mixture includes the steps of: introducing the raw material powder and the dispersion medium into a mixing container, and stirring them with balls serving as a mixing medium, to obtain a slurry containing a raw material powder mixture; and drying the slurry. The mixing medium has a diameter that is equal to or less than 400 times the mean particle size of the barium titanate particles of the raw material. The present invention provides a multilayer ceramic capacitor having good DC bias characteristics by suppressing the variation in crystal particles.
    • 制造多层陶瓷电容器的方法包括以下步骤:制备主要由钛酸钡颗粒组成的原料粉末的混合物; 将所述混合物和粘合剂形成生片; 交替层叠生片和内部电极以获得层压体; 并烧结层叠体。 制备混合物的步骤包括以下步骤:将原料粉末和分散介质引入混合容器中,并用作为混合介质的滚珠搅拌,得到含有原料粉末混合物的浆料; 并干燥浆料。 混合介质的直径等于或小于原料的钛酸钡颗粒的平均粒度的400倍。 本发明通过抑制晶体颗粒的变化来提供具有良好DC偏置特性的多层陶瓷电容器。
    • 6. 发明申请
    • Method for manufacturing multilayer ceramic capacitor
    • 多层陶瓷电容器制造方法
    • US20050116393A1
    • 2005-06-02
    • US10502602
    • 2003-10-24
    • Kazuki HirataKenji OkaKazuhiro KomatsuAtsuo Nagai
    • Kazuki HirataKenji OkaKazuhiro KomatsuAtsuo Nagai
    • C04B33/32H01G4/12H01G4/30
    • H01G4/30H01G4/1227
    • A method of manufacturing a multilayer ceramic capacitor includes the steps of: preparing a mixture of a raw material powder mainly composed of barium titanate particles; forming the mixture and a binder into a green sheet; alternately layering the green sheet and an internal electrode to obtain a laminated body; and sintering the laminated body. The step of preparing the mixture includes the steps of: introducing the raw material powder and the dispersion medium into a mixing container, and stirring them with balls serving as a mixing medium, to obtain a slurry containing a raw material powder mixture; and drying the slurry. The mixing medium has a diameter that is equal to or less than 400 times the mean particle size of the barium titanate particles of the raw material. The present invention provides a multilayer ceramic capacitor having good DC bias characteristics by suppressing the variation in crystal particles.
    • 制造多层陶瓷电容器的方法包括以下步骤:制备主要由钛酸钡颗粒组成的原料粉末的混合物; 将所述混合物和粘合剂形成生片; 交替层叠生片和内部电极以获得层压体; 并烧结层叠体。 制备混合物的步骤包括以下步骤:将原料粉末和分散介质引入混合容器中,并用作为混合介质的滚珠搅拌,得到含有原料粉末混合物的浆料; 并干燥浆料。 混合介质的直径等于或小于原料的钛酸钡颗粒的平均粒度的400倍。 本发明通过抑制晶体颗粒的变化来提供具有良好DC偏置特性的多层陶瓷电容器。
    • 7. 发明授权
    • Surface inspecting apparatus and method for calibrating same
    • 表面检查装置及其校准方法
    • US08949043B2
    • 2015-02-03
    • US13202734
    • 2010-02-02
    • Kenji OkaKenji MitomoKenichiro Komeda
    • Kenji OkaKenji MitomoKenichiro Komeda
    • G01N21/94G01N21/93G01N21/95
    • G01N21/9501G01N21/93G01N2201/103
    • While an illumination optical system is irradiating the surface of a contaminated standard wafer with illumination light, this illumination light is scanned over the surface of the contaminated standard wafer, then detectors of a detection optical system each detect the light scattered from the surface of the contaminated standard wafer, next a predefined reference value in addition to detection results on the scattered light is used to calculate a compensation parameter “Comp” for detection sensitivity correction of photomultiplier tubes of the detectors, and the compensation parameter “Comp” is separated into a time-varying deterioration parameter “P”, an optical characteristics parameter “Opt”, and a sensor characteristics parameter “Lr”, and correspondingly managed. This makes is easy to calibrate the detection sensitivity.
    • 当照明光学系统用照明光照射污染的标准晶片的表面时,该照明光被扫描在受污染的标准晶片的表面上,然后检测光学系统的检测器每个都检测从污染的表面散射的光 标准晶片,接下来的预定参考值除了散射光上的检测结果之外,用于计算检测器的光电倍增管的检测灵敏度校正的补偿参数“Comp”,并将补偿参数“Comp”分为时间 - 变化劣化参数“P”,光学特性参数“Opt”和传感器特性参数“Lr”,并相应地管理。 这使得检测灵敏度变得容易。
    • 9. 发明授权
    • Inspection method and inspection apparatus
    • 检验方法和检验仪器
    • US08804108B2
    • 2014-08-12
    • US13202727
    • 2009-12-04
    • Kenji MitomoKenji Oka
    • Kenji MitomoKenji Oka
    • G01N21/00
    • G01N21/9501G01N21/94G01N21/956G01N2021/4707G01N2021/8822
    • This application relates to an inspection apparatus including: a stage which holds a specimen; an illumination optical system which illuminates a surface of the specimen held on the stage, with illumination light; a dark-field optical system which detects scattered light generated by the illumination light with which the specimen is illuminated; a photoelectric converter which converts the scattered light detected by the dark-field optical system, into an electric signal; an A/D converter which converts the electric signal obtained by conversion by the photoelectric converter, into a digital signal; a judgement unit which determines the dimension of a foreign substance on the surface of the specimen on the basis of a magnitude of the scattered light from the foreign substance; and a signal processor which determines an inspection condition by use of information on the scattered light from the specimen surface.
    • 本申请涉及一种检查装置,包括:保持试样的台架; 照明光学系统,用照明光照亮保持在舞台上的标本的表面; 一个暗场光学系统,用于检测被照射的照明光产生的散射光; 将由暗视场光学系统检测出的散射光转换成电信号的光电转换器; 将通过光电转换器的转换获得的电信号转换为数字信号的A / D转换器; 判断单元,其基于来自异物的散射光的大小来确定样品表面上的异物的尺寸; 以及信号处理器,其通过使用关于来自样本表面的散射光的信息来确定检查条件。
    • 10. 发明授权
    • Semiconductor light emitting device and method for manufacturing the same
    • 半导体发光器件及其制造方法
    • US08552445B2
    • 2013-10-08
    • US12808472
    • 2008-12-26
    • Yohei WakaiHiroaki MatsumuraKenji Oka
    • Yohei WakaiHiroaki MatsumuraKenji Oka
    • H01L33/00
    • H01L33/005H01L33/007H01L33/0079H01L33/20H01L33/22H01L33/36H01L33/382H01L33/44H01L2933/0016H01L2933/0058
    • A semiconductor light emitting device having high reliability and excellent light distribution characteristics is provided. Specifically, a semiconductor light emitting device 1 is provided with an n-electrode 50, which is arranged on a light extraction surface on the side opposite to the surface whereupon a semiconductor stack 40 is mounted on a substrate 10. A plurality of convexes are arranged on a first convex region 80 and a second convex region 90 on the light extraction surface. The second convex region 90 adjoins to the interface between the n-electrode 50 and the semiconductor stack 40, between the first convex region 80 and the n-electrode 50. The base end of the first convex arranged in the first convex region 80 is positioned closer to alight emitting layer 42 than the interface between the n-electrode 50 and the semiconductor stack 40, and the base end of the second convex arranged in the second convex region 90 is positioned closer to the interface between the n-electrode 50 and the semiconductor stack 40 than the base end of the first convex.
    • 提供了具有高可靠性和优异的光分布特性的半导体发光器件。 具体地,半导体发光器件1设置有n电极50,其被配置在与衬底10上安装有半导体堆叠40的表面相反侧的光提取表面上。多个凸起布置 在光提取表面上的第一凸区80和第二凸区90上。 第二凸区域90与第一凸区域80和n电极50之间的n电极50和半导体堆叠体40之间的界面相邻。布置在第一凸区域80中的第一凸部的基端位于 比n电极50和半导体堆叠40之间的界面更靠近发光层42,并且布置在第二凸区域90中的第二凸起的基端位于更靠近n电极50和第二凸起区域90之间的界面处。 半导体堆叠40比第一凸起的基端。