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    • 4. 发明专利
    • Composite nanoparticle
    • 复合纳米材料
    • JP2008063668A
    • 2008-03-21
    • JP2007297680
    • 2007-11-16
    • Ebara Corp株式会社荏原製作所
    • CHIKAMORI YUSUKEKOGURE NAOAKI
    • B22F1/00B22F1/02H01B5/00
    • PROBLEM TO BE SOLVED: To provide a composite nanoparticle which makes it possible to significantly lower the temperature to separate an organic substance from a metal core and uniformly sinter the metal cores or significantly lower the temperature to separate an organic substance from a core comprising an inorganic metal compound and metallize the cores, and which can be applied to bonding that replaces solder bonding.
      SOLUTION: The composite nanoparticle is produced by allowing silver carbonate and myristyl alcohol to coexist, and heating them at a temperature T(°C) of 70 to -3 ≤7.98 is valid, and while avoiding reaction of the silver with the organic substance resulting in formation of an organometallic compound, the organic substance is linked to the periphery of the core. When TG measurement is performed to the particle, during the heating, the rapid decrease in the weight of the particle starts at 140 to
    • 要解决的问题:提供一种复合纳米颗粒,其使得可以显着降低温度以从金属芯分离有机物质并均匀地烧结金属芯或显着降低温度以从芯分离有机物质 包括无机金属化合物并对芯进行金属化,并且可以应用于替代焊料接合的接合。 解决方案:通过使碳酸银和肉豆蔻醇共存并在70℃至<140℃的温度T(℃)下加热复合纳米颗粒一段时间t(h)来制备复合纳米颗粒,其中不等式 ):7.85≤(T + 273)(20 + logt)×10 -3 ≤7.98有效,同时避免银与有机物质的反应,形成有机金属化合物, 有机物质与核心的周边连接。 当对颗粒进行TG测量时,在加热期间,颗粒重量的快速下降从140至<190℃开始,最后剩余的银组分的含量为50-99%。 版权所有(C)2008,JPO&INPIT
    • 5. 发明专利
    • Bonding apparatus and bonding method
    • 连接装置和接合方法
    • JP2006181641A
    • 2006-07-13
    • JP2005332752
    • 2005-11-17
    • Ebara Corp株式会社荏原製作所
    • TATEISHI HIDEKICHIKAMORI YUSUKEKOGURE NAOAKIFUKUNAGA YUKIOKAMIYAMA HIROYUKI
    • B23K20/00B23K20/14B23K20/24B23K101/36B23K103/12
    • B23K20/023B23K2201/40
    • PROBLEM TO BE SOLVED: To provide a practical technology for direct bonding of contacts of electronic components with each other without using any solder.
      SOLUTION: A bonding apparatus includes a hermetically sealed processing chamber 10, a plurality of bases 30, 32 for holding at least two workpieces W having respective bonding regions 46 in a processing chamber, a gas inlet for introducing a processing gas to clean the bonding regions into the processing chamber, a pressure controller 20 for controlling a predetermined pressure to be developed in the processing chamber, a heater 38 for heating the workpieces in the processing chamber, and a bonding unit 36 for pressing and bonding the bonding regions of the workpieces to each other in the processing chamber. Since the bonding regions are pressed and bonded with each other in the cleaned processing chamber, bonding of firm and high durability can be performed while preventing oxidation and degradation caused by pollution of the cleaned surface of the bonding regions.
      COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供一种用于将电子部件的触点彼此直接接合而不使用任何焊料的实用技术。 解决方案:接合装置包括密封处理室10,多个基座30,32,用于在处理室中保持具有各自的接合区域46的至少两个工件W,用于引入处理气体以进行清洁的气体入口 进入处理室的接合区域,用于控制在处理室中显影的预定压力的压力控制器20,用于加热处理室中的工件的加热器38,以及用于将接合区域 工件在处理室中彼此相连。 由于接合区域在清洁处理室中被压接并彼此接合,所以可以在防止由于粘合区域的被清洁表面的污染引起的氧化和劣化的同时进行牢固且高耐久性的结合。 版权所有(C)2006,JPO&NCIPI
    • 6. 发明专利
    • Electrode in liquid, and its production method
    • 液体电极及其生产方法
    • JP2005089789A
    • 2005-04-07
    • JP2003322044
    • 2003-09-12
    • Ebara Corp株式会社荏原製作所
    • KOGURE NAOAKITSUJIMURA MANABU
    • C02F1/46C02F1/461C25B11/06C25B11/12
    • PROBLEM TO BE SOLVED: To provide a compact electrode capable of performing treatment to a high-volume liquid at a high speed, and to provide a liquid treatment device and a liquid treatment method using the electrode.
      SOLUTION: The electrode comprises: (1) an electrically conductive base material; (2) a coating layer coating the electrically conductive base material; and (3) electrically conductive diamond particles fixed to the coating layer, and in which a part of each electrically conductive diamond particle comes into contact with the electrically conductive material, and the other one part is exposed to the surface of the coating layer. By the method, the compact electrode capable of treating a high-volume liquid at a high speed can be obtained. Further, by using the liquid treatment device provided with the electrode, the compact treatment device of high performance can be provided. Further, by using the liquid treatment method in the invention, a high-volume liquid can be treated at a high speed.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:提供一种能够高速地对大容积液体进行处理的紧凑型电极,并且提供使用该电极的液体处理装置和液体处理方法。 电极包括:(1)导电基材; (2)涂覆导电性基材的涂层; 和(3)固定到涂层的导电金刚石颗粒,并且其中每个导电金刚石颗粒的一部分与导电材料接触,另一个部分暴露于涂层的表面。 通过该方法,可以获得能够高速处理高容量液体的致密电极。 此外,通过使用设置有电极的液体处理装置,可以提供高性能的紧凑处理装置。 此外,通过使用本发明的液体处理方法,可以高速处理大容量的液体。 版权所有(C)2005,JPO&NCIPI
    • 10. 发明专利
    • CVD DEVICE
    • JP2002261088A
    • 2002-09-13
    • JP2001060219
    • 2001-03-05
    • EBARA CORP
    • HORIE KUNIAKIKOGURE NAOAKIARAKI YUJI
    • C23C16/455H01L21/285H01L21/31
    • PROBLEM TO BE SOLVED: To provide a CVD device which is suitable for rapidity of process development and realizes film formation which is excellent in coverage in a low temperature rapid film formation process and excellent in uniformity by eliminating problems of a single-wafer basis CVD device and a batch type CVD device. SOLUTION: In a CVD device, a gas injection head 11 is provided, process gas is injected from the head 11 to a substrate 14 arranged in a film formation chamber 10, and a thin film is formed in a surface of the substrate 14. The device has gas switching means (stacked valves 31, 32) for switching process gas to be supplied to the gas injection head 11 gradually; and a control means for switching process gas to be supplied to the gas injection head 11 gradually by controlling a gas switching means, so that process gas whereto the substrate 14 is exposed is switched gradually in any point on the film formation surface of the substrate 14, any point on a film formation surface of the substrate 14 is subjected to injection of process gas in the same conditions, and it is subjected to at least one revolution until thin film formation process is finished.