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    • 7. 发明授权
    • Method for recrystallizing an amorphized silicon germanium film overlying silicon
    • 将硅非晶硅化硅膜再结晶的方法
    • US06793731B2
    • 2004-09-21
    • US10098757
    • 2002-03-13
    • Sheng Teng HsuJong-Jan LeeJer-shen MaaDouglas J. Tweet
    • Sheng Teng HsuJong-Jan LeeJer-shen MaaDouglas J. Tweet
    • C30B3302
    • H01L21/26506C30B1/023C30B29/52H01L21/02381H01L21/0245H01L21/02502H01L21/0251H01L21/02513H01L21/02532H01L21/02694
    • A method is provided for forming a relaxed single-crystal silicon germanium film on a silicon substrate. Also provided is a film structure with a relaxed layer of graded silicon germanium on a silicon substrate. The method comprises: providing a silicon (Si) substrate with a top surface; growing a graded layer of strained single-crystal Si1−xGex having a bottom surface overlying the Si substrate top surface and a top surface, where x increases with the Si1−xGex layer thickness in the range between 0.03 and 0.5, wherein the Si1−xGex layer has a thickness in the range of 2500 Å to 5000 Å; implanting hydrogen ions; penetrating the Si substrate with the hydrogen ions a depth in the range of 300 Å to 1000 Å; implanting heavy ions, such as Si or Ge, into the Si1−xGex; in response to the heavy ion implantation, amorphizing a first region of the Si1−xGex layer adjacent the Si substrate; annealing; in response to the annealing, forming a hydrogen platelets layer between the Si substrate and the Si1−xGex layer; forming a silicon layer with a high density of hydrogen underlying the hydrogen platelets layer; and, forming a relaxed single-crystal Si1−xGex region, free of defects.
    • 提供了一种在硅衬底上形成松弛的单晶硅锗膜的方法。 还提供了在硅衬底上具有缓和的渐变硅锗层的膜结构。 该方法包括:提供具有顶表面的硅(Si)衬底; 生长具有覆盖Si衬底顶表面的底表面和顶表面的应变单晶Si1-xGex的分级层,其中x随着Si1-xGex层厚度在0.03和0.5之间的范围增加,其中Si1-xGex 层的厚度在2500埃至5000埃的范围内; 植入氢离子; 用氢离子穿透Si衬底,深度在300埃至1000埃的范围内; 将诸如Si或Ge的重离子注入到Si1-xGex中; 响应于重离子注入,使与Si衬底相邻的Si1-xGex层的第一区域非晶化; 退火; 响应于退火,在Si衬底和Si1-xGex层之间形成氢血小板层; 在氢薄膜层下形成具有高密度氢的硅层; 并形成松弛的单晶Si1-xGex区域,没有缺陷。
    • 8. 发明授权
    • Method of fabricating a nickel silicide on a substrate
    • 在衬底上制造硅化镍的方法
    • US06720258B2
    • 2004-04-13
    • US10319313
    • 2002-12-12
    • Jer-shen MaaDouglas J. TweetYoshi OnoFengyan ZhangSheng Teng Hsu
    • Jer-shen MaaDouglas J. TweetYoshi OnoFengyan ZhangSheng Teng Hsu
    • H01L2144
    • H01L21/28518H01L29/456
    • An integrated circuit device, and a method of manufacturing the same, comprises an epitaxial nickel silicide on (100) Si, or a stable nickel silicide on amorphous Si, fabricated with a cobalt interlayer. In one embodiment the method comprises depositing a cobalt (Co) interface layer between the Ni and Si layers prior to the silicidation reaction. The cobalt interlayer regulates the flux of the Ni atoms through the cobalt/nickel/silicon alloy layer formed from the reaction of the cobalt interlayer with the nickel and the silicon so that the Ni atoms reach the Si interface at a similar rate, i.e., without any orientation preference, so as to form a uniform layer of nickel silicide. The nickel silicide may be annealed to form a uniform crystalline nickel disilicide. Accordingly, a single crystal nickel silicide on (100) Si or on amorphous Si is achieved wherein the nickel silicide has improved stability and may be utilized in ultra-shallow junction devices.
    • 集成电路器件及其制造方法包括在(100)Si上的外延硅化镍,或者由钴中间层制造的在非晶Si上的稳定的硅化镍。 在一个实施方案中,该方法包括在硅化反应之前在Ni和Si层之间沉积钴(Co)界面层。 钴中间层通过由钴中间层与镍和硅的反应形成的钴/镍/硅合金层调节Ni原子的通量,使得Ni原子以相似的速率到达Si界面,即没有 任何取向偏好,从而形成均匀的硅化镍层。 可以将镍硅化物退火以形成均匀的结晶二硅化镍。 因此,实现了(100)Si或非晶Si上的单晶硅化镍,其中硅化镍具有改进的稳定性并可用于超浅结结器件中。
    • 10. 发明授权
    • Process integration of Si1-xGex CMOS with Si1-xGex relaxation after STI formation
    • STI形成后Si1-xGex CMOS与Si1-xGex弛豫过程的整合
    • US06583000B1
    • 2003-06-24
    • US10072183
    • 2002-02-07
    • Sheng Teng HsuJong-Jan LeeJer-shen MaaDouglas James Tweet
    • Sheng Teng HsuJong-Jan LeeJer-shen MaaDouglas James Tweet
    • H01L218238
    • H01L21/823807H01L21/76224H01L21/823878
    • A method of forming a CMOS device includes preparing a silicon substrate, including forming plural device regions on the substrate; epitaxially forming a strained SiGe layer on the substrate, wherein the SiGe layer has a germanium content of between about 20% and 40%; forming a silicon cap layer epitaxially on the SiGe layer; depositing a gate oxide layer; depositing a first polysilicon layer; implanting H+ ions to a depth below the SiGe layer; forming a trench by shallow trench isolation which extends into the substrate; annealing the structure at a temperature of between about 700° C. to 900° C. for between about five minutes to sixty minutes; depositing an oxide layer and a second polysilicon layer, thereby filling the trench; planarizing the structure to the top of the level of the portion of the second polysilicon layer which is located in the trench; and completing the CMOS device.
    • 形成CMOS器件的方法包括制备硅衬底,包括在衬底上形成多个器件区域; 在衬底上外延地形成应变SiGe层,其中SiGe层的锗含量在约20%和40%之间; 在SiGe层上外延地形成硅帽层; 沉积栅氧化层; 沉积第一多晶硅层; 将H +离子注入SiGe层以下的深度; 通过延伸到衬底中的浅沟槽隔离形成沟槽; 在约700℃至900℃的温度下退火结构约5分钟至60分钟; 沉积氧化物层和第二多晶硅层,从而填充沟槽; 将结构平面化到位于沟槽中的第二多晶硅层的部分的顶部的顶部; 并完成CMOS设备。