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    • 1. 发明公开
    • METHOD FOR MANUFACTURING SUBSTRATE FOR PHOTOELECTRIC CONVERSION ELEMENT
    • HERSTELLUNGSVERFAHRENFÜREIN SUBSTRE EINES FOTOELEKTRISCHEN KONVERSIONSELEMENTS
    • EP1995788A1
    • 2008-11-26
    • EP07738265.3
    • 2007-03-12
    • Shin-Etsu Chemical Co., Ltd.
    • AKIYAMA, ShojiKUBOTA, YoshihiroITO, AtsuoKAWAI, MakotoTOBISAKA, YuujiTANAKA, Koichi
    • H01L31/04H01L21/02H01L21/20H01L21/205
    • H01L21/76254H01L31/0687H01L31/1804H01L31/1892Y02E10/544Y02E10/547Y02P70/521
    • A silicon layer (10B) having a conductivity type opposite to that of a bulk is provided on the surface of a silicon substrate (100) and hydrogen ions are implanted to a predetermined depth (L) into the surface region of the silicon substrate (100) through the silicon layer (10B) to form a hydrogen ion-implanted layer (11). Then, an n-type germanium-based crystal layer (20A) whose conductivity type is opposite to that of the silicon layer (10B) and a p-type germanium-based crystal layer (20B) whose conductivity type is opposite to that of the germanium-based crystal layer (20A) are successively vapor-phase grown to provide a germanium-based crystal (20). The surface of the germanium-based crystal layer (20B) and the surface of the supporting substrate (30) are bonded together. In this state, impact is applied externally to separate a silicon crystal (10) from the silicon substrate (100) along the hydrogen ion-implanted layer (11), thereby transferring (peeling off) a laminated structure composed of the germanium-based crystal (20) and the silicon crystal (10) onto the supporting substrate (30).
    • 在硅衬底(100)的表面上设置具有与本体相反的导电类型的硅层(10B),并将氢离子注入预定深度(L)到硅衬底(100)的表面区域 )通过硅层(10B)形成氢离子注入层(11)。 然后,其导电类型与硅层(10B)的导电类型相反的n型锗基晶体层(20A)和与导电类型相反的p型锗基晶体层(20B) 锗基晶体层(20A)依次气相生长以提供锗基晶体(20)。 锗基晶体层(20B)的表面和支撑基板(30)的表面结合在一起。 在这种状态下,外部施加冲击以沿着氢离子注入层(11)从硅衬底(100)分离硅晶体(10),从而转移(剥离)由锗基晶体 (20)和硅晶体(10)到支撑衬底(30)上。
    • 9. 发明公开
    • METHOD FOR MANUFACTURING SOI SUBSTRATE
    • 制造SOI衬底的方法
    • EP1983553A1
    • 2008-10-22
    • EP07713948.3
    • 2007-02-08
    • Shin-Etsu Chemical Co., Ltd.
    • AKIYAMA, ShojiKUBOTA, YoshihiroITO, AtsuoKAWAI, MakotoTOBISAKA, YuujiTANAKA, Koichi
    • H01L21/02H01L21/762H01L27/12
    • H01L21/76254H01L21/2007H01L27/1203H01L27/1214H01L29/78603
    • A heating plate (32) having a smooth surface is placed on a hot plate (31) which constitutes a heating section, and the smooth surface of the heating plate (32) is closely adhered on the rear surface of a single-crystal Si substrate (10) bonded to a transparent insulating substrate (20). The temperature of the heating plate (32) is kept at 200°C or higher but not higher than 350°C. When the rear surface of the single-crystal Si substrate (10) bonded to the insulating substrate (20) is closely adhered on the heating plate (32), the single-crystal Si substrate (10) is heated by thermal conduction, and a temperature difference is generated between the single-crystal Si substrate and the transparent insulating substrate (20). A large stress is generated between the both substrates due to rapid expansion of the single-crystal Si substrate (10), thus separation takes place at a hydrogen ion-implanted interface.
    • 将具有平滑表面的加热板(32)放置在构成加热部分的加热板(31)上,并且加热板(32)的光滑表面紧密地粘附在单晶Si衬底的后表面上 (10)结合到透明绝缘基板(20)。 加热板(32)的温度保持在200℃或更高但不高于350℃。 当与绝缘基板(20)接合的单晶硅基板(10)的背面紧贴在加热板(32)上时,单晶硅基板(10)通过热传导被加热, 在单晶硅衬底和透明绝缘衬底(20)之间产生温差。 由于单晶硅衬底(10)的快速膨胀,两衬底之间产生大的应力,因此在氢离子注入界面处发生分离。