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    • 3. 发明授权
    • Single crystalline diamond and producing method thereof
    • 单晶金刚石及其制造方法
    • US07655208B2
    • 2010-02-02
    • US11402062
    • 2006-04-12
    • Kiichi MeguroYoshiyuki YamamotoTakahiro Imai
    • Kiichi MeguroYoshiyuki YamamotoTakahiro Imai
    • B01J3/06C01B31/00C30B29/04G11B5/65
    • C30B29/04C30B25/20
    • The object of the present invention is to obtain a high quality single crystalline diamond that has less distortion and large area suitable for semiconductor device substrates or an optical component material. The present invention is a single crystalline diamond produced by chemical vapor deposition, wherein, when a linear polarized light which is composed of two linear polarized lights perpendicular to each other is introduced into one main face of the single crystalline diamond, a maximum value of a retardation between the two linear polarized lights perpendicular to each other which come out from an opposite main face is not more than 50 μm at maximum per a thickness of 100 μm across an entire of the single crystalline diamond, and also a method for producing the diamond.
    • 本发明的目的是获得具有较小变形和大面积的高半导体器件衬底或光学部件材料的高质量单晶金刚石。 本发明是通过化学气相沉积法生产的单晶金刚石,其中当由彼此垂直的两个线性偏振光组成的线性偏振光被引入单晶金刚石的一个主面时,其最大值为 在整个单晶金刚石上,相对于从相对的主面出来的彼此垂直的两个线偏振光之间的延迟最大值不超过每100μm厚度100mum的最大50μm,并且还有一种用于制造金刚石的方法 。
    • 5. 发明申请
    • Diamond substrate and manufacturing method thereof
    • 金刚石基板及其制造方法
    • US20060213428A1
    • 2006-09-28
    • US11390333
    • 2006-03-28
    • Kiichi MeguroKeisuke TanizakiAkihiko NambaYoshiyuki YamamotoTakahiro Imai
    • Kiichi MeguroKeisuke TanizakiAkihiko NambaYoshiyuki YamamotoTakahiro Imai
    • C30B25/00
    • C30B25/105C30B25/02C30B25/20C30B29/04H01L21/02381H01L21/0243H01L21/02527H01L21/0262H01L21/02645
    • The present invention provides a manufacturing method for a large-scale diamond substrate and a substrate produced by the method suitable for semiconductor lithography processing and large-scale optical parts, semiconductor materials, thermal-release substrate, semiconductor wafer processing, and back-feed devices, and others. The manufacturing method for a diamond substrate of the present invention comprises: the mounting step of preparing a substrate having a main face comprising a first region which is a concave and having a second region which surrounds the first region, and mounting, on the first region, a single crystalline diamond seed substrate having a plate thickness thicker than the concave depth of the first region; a connecting step of forming a CVD diamond layer from the single crystalline diamond seed substrate using a chemical vapor deposition, and mutually connecting by forming a CVD diamond layer on the second region at the same time; and a polishing step of polishing to substantially flatten both the CVD diamond layers on the single crystalline diamond seed substrate and on the second region by mechanically polishing.
    • 本发明提供了通过适用于半导体光刻处理的方法制造的大规模金刚石基板和基板的制造方法以及大型光学部件,半导体材料,热释放基板,半导体晶片处理和反馈装置 , 和别的。 本发明的金刚石基板的制造方法包括:准备基板的安装步骤,所述基板具有主面,所述主面包括第一区域,所述第一区域是凹形的并且具有围绕所述第一区域的第二区域,并且安装在所述第一区域 ,具有厚于所述第一区域的凹入深度的板厚度的单晶金刚石种子基板; 使用化学气相沉积从所述单晶金刚石种子基板形成CVD金刚石层并且通过在所述第二区域上同时形成CVD金刚石层来相互连接的连接步骤; 以及抛光步骤,通过机械抛光在单晶金刚石种子基底上和第二区域上基本上平坦化CVD金刚石层。
    • 6. 发明申请
    • Diamond single crystal substrate
    • 金刚石单晶基板
    • US20050211159A1
    • 2005-09-29
    • US11055973
    • 2005-02-14
    • Kiichi MeguroYoshiyuki YamamotoTakahiro Imai
    • Kiichi MeguroYoshiyuki YamamotoTakahiro Imai
    • C30B25/18C30B29/04C30B7/00C30B21/02C30B23/00C30B25/00C30B28/06C30B28/12C30B28/14
    • C30B25/18C30B29/04
    • A diamond single crystal substrate obtained by a vapor-phase growth method, wherein the diamond intrinsic Raman shift of the diamond single crystal substrate surface measured by microscopic Raman spectroscopy with a focused beam spot diameter of excitation light of 2 μm is deviated by +0.5 cm−1 or more to +3.0 cm−1 or less from the standard Raman shift quantity of strain-free diamond, in a region (region A) which is more than 0% to not more than 25% of the surface, and is deviated by −1.0 cm−1 or more to less than +0.5 cm−1 from the standard Raman shift quantity of strain-free diamond, in a region (region B) of the surface other than the region A. The diamond single crystal substrate can be obtained with a large size and high-quality without cracking and is suitable for semiconductor materials, electronic components, and optical components or the like.
    • 通过气相生长法获得的菱形单晶基板,其中通过微观拉曼光谱测量的金刚石单晶衬底表面的金刚石固有拉曼位移具有2μm激发光的聚焦光束直径偏离+0.5cm 在不大于0的区域(区域A)中,与无应变金刚石的标准拉曼位移量相比,超过-1.0以上至+ 3.0cm -1以下 %至不大于25%的表面,并且与标准拉曼位移量偏离-1.0cm -1以上至小于+0.5cm -1以下 的无应变金刚石,在区域A以外的表面的区域(区域B)中。金刚石单晶基板可以以大尺寸,高品质而不破裂地获得,并且适用于半导体材料,电子部件, 和光学部件等。
    • 7. 发明授权
    • Diamond single crystal substrate
    • 金刚石单晶基板
    • US07955434B2
    • 2011-06-07
    • US11055973
    • 2005-02-14
    • Kiichi MeguroYoshiyuki YamamotoTakahiro Imai
    • Kiichi MeguroYoshiyuki YamamotoTakahiro Imai
    • C30B29/04
    • C30B25/18C30B29/04
    • A diamond single crystal substrate obtained by a vapor-phase growth method, wherein the diamond intrinsic Raman shift of the diamond single crystal substrate surface measured by microscopic Raman spectroscopy with a focused beam spot diameter of excitation light of 2 μm is deviated by +0.5 cm−1 or more to +3.0 cm−1 or less from the standard Raman shift quantity of strain-free diamond, in a region (region A) which is more than 0% to not more than 25% of the surface, and is deviated by −1.0 cm−1 or more to less than +0.5 cm−1 from the standard Raman shift quantity of strain-free diamond, in a region (region B) of the surface other than the region A. The diamond single crystal substrate can be obtained with a large size and high-quality without cracking and is suitable for semiconductor materials, electronic components, and optical components or the like.
    • 通过气相生长法获得的金刚石单晶基板,其中通过微观拉曼光谱测量的金刚石单晶基板表面的金刚石固有拉曼位移具有2μm的激发光的聚焦光束直径偏离+0.5cm 在不大于0%至不超过表面25%的区域(区域A)中,与无应变金刚石的标准拉曼位移量相比,为-1.0以上至+ 3.0cm -1以下,偏离 在区域A以外的表面的区域(区域B)中,与无应变金刚石的标准拉曼位移量相比,为-1.0cm -1以上且小于+ 0.5cm -1。金刚石单晶基板可以 可以获得具有大尺寸和高品质而不破裂,并且适用于半导体材料,电子部件和光学部件等。
    • 8. 发明申请
    • MICROWAVE PLASMA CVD DEVICE
    • 微波等离子体CVD装置
    • US20090120366A1
    • 2009-05-14
    • US12294212
    • 2007-01-29
    • Akihiko UedaKiichi MeguroYoshiyuki YamamotoYoshiki NishibayashiTakahiro Imai
    • Akihiko UedaKiichi MeguroYoshiyuki YamamotoYoshiki NishibayashiTakahiro Imai
    • C23C16/54
    • C30B25/105C23C16/24C23C16/511C30B29/04H01J37/32192H01J37/32238
    • The present invention provides a microwave plasma CVD device that can satisfactorily perform plasma position control under a condition capable of fabricating a large-area high-quality diamond thin film or the like. A microwave plasma CVD device includes: a vacuum chamber 1 having, in the center of its upper portion, an open portion 2 for introducing microwaves 20; a base material support table 11 for supporting a base material inside the vacuum chamber; a waveguide for guiding the microwaves to the open portion; a dielectric window 22 for introducing the microwaves to the inside of the vacuum chamber; and an antenna portion 25 for introducing the microwaves to the vacuum chamber, the antenna portion being configured by a round rod portion 23 that is positioned in the center of the waveguide, the open portion and the dielectric window and an electrode portion 24 that holds the dielectric window between the electrode portion and the upper portion of the vacuum chamber for vacuum retention, wherein an end surface of the electrode portion 24 is formed wider than the dielectric window such that the dielectric window is hidden, and a concave portion of a predetermined size is formed in the surface of the electrode portion 24 that faces the center of the vacuum chamber.
    • 本发明提供一种能够在能够制造大面积高品质金刚石薄膜等的条件下令人满意地进行等离子体位置控制的微波等离子体CVD装置。 微波等离子体CVD装置包括:真空室1,其上部中心具有用于引入微波20的开口部分2; 用于在真空室内支撑基材的基材支撑台11; 用于将微波引导到开口部分的波导; 用于将微波引导到真空室的内部的电介质窗22; 以及用于将微波引入真空室的天线部分25,天线部分由位于波导中心的圆棒部分23,开口部分和电介质窗口构成,电极部分24保持 电极部分和真空室上部之间的电介质窗口用于真空保持,其中电极部分24的端面形成为比电介质窗口宽,使得电介质窗口被隐藏,并且具有预定尺寸的凹部 形成在电极部分24的面对真空室的中心的表面上。