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    • 1. 发明授权
    • Apparatus for pulling up crystal bodies
    • 用于拉起水晶体的装置
    • US5938843A
    • 1999-08-17
    • US48789
    • 1998-03-27
    • Yoshinobu HiraishiMitsunori KawabataShoei KurosakaHiroshi Inagaki
    • Yoshinobu HiraishiMitsunori KawabataShoei KurosakaHiroshi Inagaki
    • C30B15/32C30B15/30C30B29/06C30B35/00
    • C30B15/30Y10S117/911Y10T117/1072
    • This invention provides a apparatus for pulling up crystal bodies, which is capable of firmly clamping and safely pulling up large-diameter crystal bodies regardless of the location of the necked portions formed on the top of the crystal bodies. A large-diameter portion 52 and a necked portion 51 are formed on the top of the crystal body 5. The swaying members 12 of the necked-portion clamp 1 are capable of swaying upward and downward without restraint. The stopper 14 restrains the swaying members 12 to sway below the horizontal plane on which the swaying members 12a are located. The large-diameter portion 52 can pass through the clamp body 11 by lowering the necked-portion clamp 1 to sway the swaying members 12 upward. The swaying members 12 close to clamp the necked portion 51 when the necked-portion clamp 1 reaches a location near the necked portion 51. The distance between the necked-portion clamp 1 and the seed-crystal 3 is adjustable.
    • 本发明提供一种用于提取晶体的装置,其能够牢固地夹紧和安全地拉大直径的晶体,而不管形成在晶体的顶部上的颈部的位置如何。 大直径部分52和颈缩部分51形成在晶体5的顶部上。颈缩夹具1的摆动部件12能够在不受约束的情况下向上和向下摆动。 止动件14限制摆动构件12摆动在摆动构件12a所在的水平面的下方。 大直径部分52可以通过下降颈部夹紧件1使摇动构件12向上摆动而穿过夹具本体11。 当颈缩部分夹具1到达颈缩部分51附近的位置时,摇动构件12靠近夹紧颈缩部分51.颈缩部分夹子1和籽晶3之间的距离是可调节的。
    • 2. 发明授权
    • Process for producing single-crystal semiconductor and apparatus for producing single-crystal semiconductor
    • 单晶半导体的制造方法及单晶半导体的制造装置
    • US07235128B2
    • 2007-06-26
    • US11005180
    • 2004-12-06
    • Susumu MaedaHiroshi InagakiShigeki KawashimaShoei KurosakaKozo Nakamura
    • Susumu MaedaHiroshi InagakiShigeki KawashimaShoei KurosakaKozo Nakamura
    • C30B15/20
    • C30B29/06C30B15/20C30B15/22C30B15/36Y10S117/90Y10T117/1004
    • A process for producing a single-crystal semiconductor and an apparatus therefor. A single-crystal semiconductor of large diameter and large weight can be lifted with the use of existing equipment not having any substantial change thereto while not influencing the oxygen concentration of single-crystal semiconductor and the temperature of melt and while not unduly raising the temperature of seed crystal. In particular, the relationship (L1, L2, L3) between the allowable temperature difference (ΔT) and the diameter (D) of seed crystal (14) is preset so that the temperature difference between the seed crystal (14) at the time the seed crystal (14) is immersed in the melt and the melt (5) falls within the allowable temperature difference (ΔT) at which dislocations are not introduced into the seed crystal (14). In accordance with the relationship (L1, L2, L3), the allowable temperature difference (ΔT) corresponding to the diameter (D) of seed crystal (14) to be immersed in the melt is determined. Temperature control is conducted so that at the time the seed crystal (14) is immersed in the melt (5) the temperature difference between the seed crystal (14) and the melt (5) falls within the determined allowable temperature difference (ΔT).
    • 一种单晶半导体的制造方法及其装置。 可以使用不具有任何显着变化的现有设备来提升大直径和大重量的单晶半导体,同时不影响单晶半导体的氧浓度和熔体的温度,同时不会过度地提高温度 晶种。 特别地,预设晶种(14)的允许温差(DeltaT)和直径(D)之间的关系(L 1,L 2,L 3),使得晶种(14)在 籽晶(14)浸入熔体中的时间和熔体(5)落入未被引入到晶种(14)中的位错的允许温度差(DeltaT)之内。 根据关系(L 1,L 2,L 3),确定与浸入熔体中的晶种(14)的直径(D)相对应的容许温度差(DeltaT)。 进行温度控制,使晶种(14)浸入熔融物(5)中时晶种(14)和熔体(5)之间的温度差落在确定的允许温差(DeltaT)之内。
    • 5. 发明申请
    • Method for producing silicon wafer
    • 硅晶片的制造方法
    • US20060005762A1
    • 2006-01-12
    • US10533147
    • 2003-10-31
    • Susumu MaedaHiroshi InagakiShigeki KawashimaShoei KurosakaKozo Nakamura
    • Susumu MaedaHiroshi InagakiShigeki KawashimaShoei KurosakaKozo Nakamura
    • C30B15/00C30B21/06C30B23/00C30B30/04C30B27/02
    • C30B29/06C30B15/203
    • The present invention is to produce a silicon crystal wherein the boron concentration in the silicon crystal and the growth condition V/G are controlled so that the boron concentration in the silicon crystal is no less than 1×1018 atoms/cm3 and the growth condition V/G falls within the epitaxial defect-free region α2 whose lower limit line LN1 is the line indicating that the growth rate V gradually drops as the boron concentration increases. Further, the present invention is to produce a silicon wafer wherein the boron concentration in the silicon crystal and the growth condition V/G are controlled so as to include at least the epitaxial defect region β1, and the heat treatment condition of the silicon crystal and the oxygen concentration in the silicon crystal are controlled so that no OSF nuclei grow to OSFs. Moreover, the present invention is to produce a silicon crystal wherein the boron concentration in the silicon crystal and the growth condition V/G are controlled so that they fall in the vicinity of the lower limit line LN3 within the epitaxial defect-free region α1.
    • 本发明是为了制造硅晶体,其中硅晶体中的硼浓度和生长条件V / G被控制,使得硅晶体中的硼浓度不低于1×10 18原子/ cm 3,并且生长条件V / G落在外延无缺陷区域α2N中,其下限线LN1是表示生长速率V逐渐下降的线 硼浓度增加。 此外,本发明是为了制造硅晶片,其中硅晶体中的硼浓度和生长条件V / G被控制为至少包括外延缺陷区β1,并且 控制硅晶体的热处理条件和硅晶体中的氧浓度,使得OSF核不生长到OSF。 此外,本发明是为了制造硅晶体,其中硅晶体中的硼浓度和生长条件V / G被控制为使得它们落入外延缺陷区域内的下限线LN3附近, SUB> 1
    • 6. 发明申请
    • Process for producing single-crystal semiconductor and apparatus for producing single-crystal semiconductor
    • 单晶半导体的制造方法及单晶半导体的制造装置
    • US20050139149A1
    • 2005-06-30
    • US11005180
    • 2004-12-06
    • Susumu MaedaHiroshi InagakiShigeki KawashimaShoei KurosakaKozo Nakamura
    • Susumu MaedaHiroshi InagakiShigeki KawashimaShoei KurosakaKozo Nakamura
    • C30B15/00C30B15/20C30B15/22C30B15/36C30B29/06C30B21/06C30B27/02C30B28/10C30B30/04
    • C30B29/06C30B15/20C30B15/22C30B15/36Y10S117/90Y10T117/1004
    • A process for producing a single-crystal semiconductor and an apparatus therefor. A single-crystal semiconductor of large diameter and large weight can be lifted with the use of existing equipment not having any substantial change thereto while not influencing the oxygen concentration of single-crystal semiconductor and the temperature of melt and while not unduly raising the temperature of seed crystal. In particular, the relationship (L1, L2, L3) between the allowable temperature difference (ΔT) and the diameter (D) of seed crystal (14) is preset so that the temperature difference between the seed crystal (14) at the time the seed crystal (14) is immersed in the melt and the melt (5) falls within the allowable temperature difference (ΔT) at which dislocations are not introduced into the seed crystal (14). In accordance with the relationship (L1, L2, L3), the allowable temperature difference (ΔT) corresponding to the diameter (D) of seed crystal (14) to be immersed in the melt is determined. Temperature control is conducted so that at the time the seed crystal (14) is immersed in the melt (5) the temperature difference between the seed crystal (14) and the melt (5) falls within the determined allowable temperature difference (ΔT).
    • 一种单晶半导体的制造方法及其装置。 可以使用不具有任何显着变化的现有设备来提升大直径和大重量的单晶半导体,同时不影响单晶半导体的氧浓度和熔体的温度,同时不会过度地提高温度 晶种。 特别地,预设晶种(14)的允许温差(DeltaT)和直径(D)之间的关系(L 1,L 2,L 3),使得晶种(14)在 籽晶(14)浸入熔体中的时间和熔体(5)落入未被引入到晶种(14)中的位错的允许温度差(DeltaT)之内。 根据关系(L 1,L 2,L 3),确定与浸入熔体中的晶种(14)的直径(D)相对应的允许温度差(DeltaT)。 进行温度控制,使晶种(14)浸入熔融物(5)中时晶种(14)和熔体(5)之间的温度差落在确定的允许温差(DeltaT)之内。
    • 7. 发明授权
    • Apparatus for pulling up single crystals and single crystal clamping
device
    • 用于提拉单晶和单晶夹持装置的装置
    • US6099642A
    • 2000-08-08
    • US88657
    • 1998-06-02
    • Shoei KurosakaHiroshi InagakiShigeki KawashimaJunsuke Tomioka
    • Shoei KurosakaHiroshi InagakiShigeki KawashimaJunsuke Tomioka
    • C30B15/30C30B15/32C30B35/00
    • C30B15/30C30B15/32Y10S117/911Y10T117/1004Y10T117/1008Y10T117/1072
    • An object of the invention is to provide a single crystal clamping device and a single crystal supporting method. The single crystal clamping device does not become inclined and does not vibrate, and the center of the single crystal clamping device is congruous to the center of the growing single crystal. An apparatus for pulling up single crystals of the present invention, comprises: a single crystal pulling up wire for pulling up a seed crystal immersed in a melt of a raw material; a single crystal clamping device for clamping one end of the single crystal grown beneath the seed crystal; a wire-winding mechanism fixed on the single crystal clamping means and winding up the single crystal pulling up wire so as to adjust a speed of the single-crystal pulling up wire corresponding to the ascending/descending speeds of the single crystal clamping device; a pulling up wire-load cell for detecting the load applied on the crystal; and a summation load cell for measuring the combined load applied on the crystal pulling up wire and the single crystal clamping device.
    • 本发明的目的是提供一种单晶夹持装置和单晶支撑方法。 单晶夹持装置不会变得倾斜并且不振动,并且单晶夹持装置的中心与生长的单晶的中心一致。 本发明的单晶提拉装置,包括:单晶提拉线,用于拉出浸在原料熔体中的晶种; 用于夹持在晶种之下生长的单晶的一端的单晶夹持装置; 固定在单晶夹持装置上的绕线机构,并且卷绕单晶提拉线,以便根据单晶夹持装置的上升/下降速度调节单晶提拉线的速度; 用于检测施加在晶体上的负载的提拉线电池; 以及用于测量施加在晶体上拉线和单晶夹持装置上的组合负载的求和测力传感器。
    • 8. 发明授权
    • Apparatus and method for pulling up single crystals
    • 提取单晶的装置和方法
    • US5942033A
    • 1999-08-24
    • US48302
    • 1998-03-26
    • Shoei KurosakaHiroshi InagakiShigeki KawashimaJunsuke Tomioka
    • Shoei KurosakaHiroshi InagakiShigeki KawashimaJunsuke Tomioka
    • C30B15/00C30B15/30C30B15/24
    • C30B15/30Y10S117/911Y10T117/1072
    • A crystal-clamping fixture 30 is suspended by a pulling up mechanism 1 through the use of wires. The crystal-clamping fixture 30 includes a box 31 and a plurality of holding rods 32. The box 31 has two openings formed on its top and bottom sides. The reduced portion 2a, the enlarged portion 2b and the necked portion 2c formed beneath the seed crystal 5 are allowed to penetrate through the two openings during the pulling up operation. A plurality of "S" shaped slots 31a, 31b are formed on the lateral sides of the box 31. The holding rods 32 capable of rotating along the path of the "S" shaped slots 31a, 31b are horizontally disposed within the box 31 by inserting their two end portions through the "S" shaped slots 31a, 31b. The holding rods kept restrained at the upper ends of the "S" shaped slots are pushed out by the conic surface formed at the upper part of the enlarged portion 2b and rotate and descend to reach the lower ends of the "S" shaped slots. At the time the crystal-clamping fixture 30 is directed to ascend a small distance, then the holding rods 32 contact the conic surface formed between the enlarged portion 2b and the necked portion 2c to clamp the single crystal 2.
    • 通过使用电线,拉出机构1悬挂晶体夹具30。 晶体夹具30包括盒31和多个保持杆32.盒31具有在其顶侧和底侧上形成的两个开口。 在拉拔操作期间允许形成在晶种5下面的缩小部分2a,扩大部分2b和颈部2c穿过两个开口。 多个“S”形槽31a,31b形成在盒31的侧面上。能够沿着“S”形槽31a,31b的路径旋转的保持杆32通过 将它们的两个端部插入穿过“S”形槽31a,31b。 在“S”形槽的上端保持约束的保持杆被形成在扩大部分2b的上部的锥形表面推出,并且旋转和下降到达“S”形槽的下端。 当晶体夹具30被指向上升一小段距离时,保持杆32接触形成在扩大部分2b和颈缩部分2c之间的锥形表面,以夹紧单晶2。
    • 10. 发明授权
    • Method for producing single crystal
    • 单晶生产方法
    • US5488923A
    • 1996-02-06
    • US399558
    • 1995-03-07
    • Masato ImaiHiroyuki NodaYutaka ShiraishiKeishi NiikuraShoei Kurosaka
    • Masato ImaiHiroyuki NodaYutaka ShiraishiKeishi NiikuraShoei Kurosaka
    • C30B15/02C30B29/06H01L21/208C30B15/04
    • C30B15/02
    • The present invention employs the construction wherein a resistor heater is disposed inside a protective cylinder whose tip is open to a molten liquid packing zone of a crucible inside a pulling apparatus so that the resistor heater is above the tip of a lower portion and temperature setting can be made so as to be capable of fusing a starting material. Since the tip of the protective cylinder is positioned inside the molten liquid at the time of pulling of a single crystal, the gaseous phase portion inside the protective cylinder and the gaseous phase portion inside the pulling apparatus are separated apart by the molten liquid and are independent of each other and a starting material polycrystal rod loaded into the protective cylinder can be supplied to the molten liquid surface inside the crucible while being molten at the lower part of the protective cylinder by the resistor heater. In this manner, the single crystal whose impurity concentration is substantially uniform in the longitudinal direction can be grown continuously.
    • 本发明采用这样一种结构,其中电阻器加热器设置在保护筒内部,其顶端与拉制装置内的坩埚的熔融液体包装区域打开,使得电阻器加热器在下部的尖端上方,并且温度设定可以 使其能够熔化起始材料。 由于在拉制单晶时保护筒的尖端位于熔融液体内部,所以保护筒内部的气相部分和拉动装置内部的气相部分被熔融液体分开,并且是独立的 并且通过电阻加热器在保护筒的下部熔融时,可以将加载到保护筒中的原料多晶棒供给到坩埚内的熔融液面。 以这种方式,可以连续生长杂质浓度在纵向方向上基本均匀的单晶。