会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 22. 发明授权
    • Method of removing defects of single crystal material and single crystal material from which defects are removed by the method
    • 通过该方法去除缺陷的单晶材料和单晶材料的缺陷的去除方法
    • US06447600B1
    • 2002-09-10
    • US09806550
    • 2001-03-30
    • Jun FurukawaMitsuru SudouTetsuya NakaiTakao FujikawaTakuya Masui
    • Jun FurukawaMitsuru SudouTetsuya NakaiTakao FujikawaTakuya Masui
    • C30B2502
    • C30B29/06C30B29/40C30B29/42C30B29/48C30B33/00C30B33/02H01L21/3225H01L21/3228H01L21/324H01L21/3245
    • A hot isostatic pressing treatment is conducted for a single crystal body (11) in an atmosphere where the single crystal body (11) is stable, under a pressure of 0.2 to 304 MPa at a temperature which is 0.85 or more times the melting point in an absolute temperature unit of the single crystal body (11), for 5 minutes to 20 hours; and the single crystal body (11) is annealed. It is preferable that the atmosphere where the single crystal body (11) is stable is an inert gas atmosphere or an atmosphere containing vapor of a high vapor pressure element, and it is more preferable that the HIP treatment is conducted under a pressure of 10 to 200 MPa. Further, the single crystal body (11) may be an ingot of a silicon single crystal, a GaAs single crystal, an InP single crystal, a ZnS single crystal or a ZnSe single crystal, or a block or wafer obtained by slicing the ingot. In this way, there are expelled or dispersed those lattice defects such as vacancy type grown-in defects existing not only at the surface but also at the interior of the single crystal body (11), irrespectively of the size of the single crystal body (11).
    • 在单晶体(11)稳定的气氛中,在0.2〜304MPa的压力下,在0.85以上的熔点的温度下,对单晶体(11)进行热等静压处理 单晶体(11)的绝对温度单位为5分钟〜20小时; 和单晶体(11)进行退火。 优选单晶体(11)稳定的气氛是惰性气体气氛或含有高蒸气压元素的蒸汽的气氛,更优选的是,在10〜10的压力下进行HIP处理 200MPa。 此外,单晶体(11)可以是硅单晶,GaAs单晶,InP单晶,ZnS单晶或ZnSe单晶的晶锭,或者通过将晶片切片而获得的块或晶片。 以这种方式,不仅存在单晶体(11)的表面而且在内部存在空位型生长缺陷的晶格缺陷的排出或分散,而与单晶体的尺寸无关 11)。
    • 23. 发明授权
    • Method for processing substrate
    • 基板处理方法
    • US06221743B1
    • 2001-04-24
    • US09111377
    • 1998-07-07
    • Takao FujikawaYutaka NarukawaItaru MasuokaKohei Suzuki
    • Takao FujikawaYutaka NarukawaItaru MasuokaKohei Suzuki
    • H01L21425
    • H01L21/26533H01L21/76243
    • The present invention provides a method for processing a substrate in which crystal defects occurring according to ion implantation can be prevented from being integrated to form defects such as dislocation or large vacancies in the manufacture of a SIMOX substrate by implanting oxygen atom to a Si base by ion implantation and reacting it with Si to form a buried oxide film. The annealing after ion implantation is performed under a gas atmosphere pressurized to, for example, about 100 MPa. In the pressurized state, a structure having a smaller volume is thermodynamically more stable, and a behavior as increases crystal distortion is arrested in the annealing. Thus, crystal defects can be laid in uniformly dispersed state, vacancies can be also extinguished, and a Si base of good quality suitable for manufacture of ULSI in which defects such as dislocation are reduced can be provided.
    • 本发明提供了一种处理衬底的方法,其中可以防止根据离子注入发生的晶体缺陷被集成在SIMOX衬底的制造中,通过将氧原子注入到Si衬底中而形成诸如位错或大空位的缺陷 离子注入并与Si反应形成掩埋氧化膜。 离子注入后的退火在加压至例如约100MPa的气体气氛下进行。 在加压状态下,具有较小体积的结构在热力学上更稳定,并且在退火中阻止增加晶体变形的行为。 因此,可以以均匀分散的状态铺设晶体缺陷,空位也可以熄灭,并且可以提供适合制造其中诸如位错的缺陷减少的ULSI的良好质量的Si基底。
    • 24. 发明授权
    • Heating pressure processing apparatus
    • 加热压力处理装置
    • US5979306A
    • 1999-11-09
    • US47402
    • 1998-03-25
    • Takao FujikawaYutaka NarukawaItaru MasuokaTakahiro YukiYoshihiko Sakashita
    • Takao FujikawaYutaka NarukawaItaru MasuokaTakahiro YukiYoshihiko Sakashita
    • B01J3/00B01J3/03B01J3/04H01L21/314H01L21/324H01L21/768B30B15/34
    • B01J3/008B01J3/03B01J3/04H01L21/314
    • A heating pressure processing apparatus in which gas sealing property and safety can be ensured, and economic property can be improved in heating pressure processing of workpieces such as Si wafers sheet by sheet. A processing vessel 1 formed of vessel components 2, 3 is divided into at least two parts or more in the axial direction thereof and has a seal ring 9 provided in the divided parts of the vessel components 2, parts 3 in such a manner as to be replaceable. The vessel components 2, 3 have shaped parts forming a processing space 5 for a workpiece 4 when the divided parts are sealed through the seal ring 9, the vessel components 2, 3 also having cooling means 10 for the seal ring 9. A ram is provided 18 for pressing the vessel components 2, 3 in the axial direction of the vessel in order to ensure the sealing in the divided parts; and a gas introducing device 20 is provided for introducing a pressurized gas to the processing space 5 in order to process the workpiece.
    • 能够确保气体密封性和安全性的加热压力处理装置,并且可以逐张地提高诸如Si晶片的工件的加热压力加工的经济性。 由容器部件2,3形成的处理容器1在其轴向上被分成至少两部分以上,并且具有设置在容器部件2,部件3的分割部分中的密封环9, 可更换 容器部件2,3具有成形部件,当分隔部件通过密封环9密封时,形成工件4的处理空间5,容器部件2,3也具有用于密封环9的冷却装置10。 设置用于在容器的轴向方向上按压容器部件2,3,以确保分割部分的密封; 并且设置有用于将加压气体引入处理空间5以便处理工件的气体引入装置20。
    • 26. 发明授权
    • Vertical furnace for the growth of single crystals
    • 立式炉用于生长单晶
    • US5698029A
    • 1997-12-16
    • US659013
    • 1996-06-04
    • Takao FujikawaKatsuhiro UeharaYoshihiko SakashitaHiroshi OkadaTakao Kawanaka
    • Takao FujikawaKatsuhiro UeharaYoshihiko SakashitaHiroshi OkadaTakao Kawanaka
    • C30B11/00C30B35/00
    • C30B11/003C30B11/002C30B29/40Y10T117/10Y10T117/1016
    • A high-pressure container 1 as a furnace casing is equipped with insulating cylinder 2 of an inverted glass shape, and heater elements 18 individually mounted on heater mounting plates 16 arranged in parallel to section vertically the space for arranging the heater elements 18 at a given interval in the insulating cylinder 2. For the procedures of single crystal growth by heating in a high-pressure gas atmosphere, the insulating cylinder 2 and the heater mounting plates 16 can suppress the effects of spontaneous convection of a high-pressure gas and the effects of the radiation heat from an adjacent heater element, as less as possible, so that the temperature controllability of each heating zone can be improved whereby the vertical temperature distribution in the furnace can be controlled appropriately. Also, a heater element 18 of a larger aperture size can be maintained at a stably supported state, whereby a single crystal of a larger dimension can be grown.
    • 作为炉壳的高压容器1配备有倒置玻璃形状的绝缘筒体2和加热器元件18,其单独地安装在加热器安装板16上,该加热器安装板16垂直地布置在用于将加热器元件18布置在给定的空间 绝缘筒2的间隔。对于通过在高压气体气氛中加热而实现单晶生长的步骤,绝缘筒2和加热器安装板16可以抑制高压气体的自发对流的效果和效果 的相邻加热器元件的辐射热量越少越好,从而可以提高每个加热区域的温度可控性,从而可以适当地控制炉内的垂直温度分布。 此外,可以将较大孔径的加热器元件18保持在稳定的支撑状态,从而可以生长更大尺寸的单晶。
    • 29. 发明授权
    • Hot isostatic pressing method and apparatus
    • 热等静压法及装置
    • US06837086B2
    • 2005-01-04
    • US10446671
    • 2003-05-29
    • Yasuo ManabeShigeo KofuneMakoto YonedaTakao Fujikawa
    • Yasuo ManabeShigeo KofuneMakoto YonedaTakao Fujikawa
    • B30B5/02B22F3/15C22F1/04C22F1/06F27B17/00B21D26/02
    • B30B11/002C21D2241/02C22F1/04C22F1/06
    • While a workpiece is heated and pressed by one of a pair of high-pressure vessels, a workpiece being pressed by the other high-pressure vessel is placed in a heated state. In the reducing process after termination of heating and pressing treatment of the workpiece by one high-pressure vessel, both the high-pressure vessels are placed in communication, and the pressure medium gas released from one high-pressure vessel is poured into the other high-pressure vessel. After pressures of both the high-pressure vessels have assumed a nearly balanced state, the pressure medium gas is sucked out of one high-pressure vessel by a compressor and pressed, and is poured into the other high-pressure vessel, and the workpiece is heated and pressed by the other high-pressure vessel. By the method as described, considerable shortening of cycle time of HIP treatment is achieved, and the HIP treatment can be carried out with high efficiency.
    • 当工件被一对高压容器中的一个加热和加压时,由另一个高压容器压制的工件被置于加热状态。 在通过一个高压容器对工件进行加热和加压处理终止之后的还原过程中,两个高压容器相互连通,将从一个高压容器释放的压力介质气体倒入另一个高压容器 -压力容器。 在两个高压容器的压力都呈现接近平衡的状态之后,通过压缩机将压力介质气体从一个高压容器中吸出并被压制,并且被倒入另一个高压容器中,并且工件是 被另一个高压容器加热和压制。 通过所述方法,实现了HIP处理循环时间的缩短,HIP处理能够高效率地进行。