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    • 3. 发明授权
    • Darc layer for MIM process integration
    • 用于MIM工艺集成的Darc层
    • US06576526B2
    • 2003-06-10
    • US09900398
    • 2001-07-09
    • Shao KaiWu-Guan PingChen LiangCheng-Wei HuaSanford ChuDaniel Yen
    • Shao KaiWu-Guan PingChen LiangCheng-Wei HuaSanford ChuDaniel Yen
    • H01L2120
    • H01L28/55H01L21/31122H01L21/32136
    • A new processing sequence is provided for the creation of a MIM capacitor. The process starts with the deposition of a first layer of metal. Next are deposited listed, a thin layer of metal, a layer of insulation, a second layer of metal and a layer of Anti Reflective Coating. An etch is then performed to form the second electrode of the MIM capacitor (using the etch stop layer to stop this etch), MIM spacers are formed on the sidewalls of the second electrode of the MIM capacitor (also using the etch stop layer to stop this etch). The dielectric and first electrode of the MIM capacitor are formed by etching through the second layer of insulation and the first layer of metal. This is followed by conventional processing to create contact points to the MIM capacitor.
    • 为MIM电容器的创建提供了新的处理顺序。 该过程开始于沉积第一层金属。 接下来是沉积列表,薄层金属,一层绝缘层,第二层金属和一层抗反射涂层。 然后进行蚀刻以形成MIM电容器的第二电极(使用蚀刻停止层来停止该蚀刻),MIM间隔物形成在MIM电容器的第二电极的侧壁上(也使用蚀刻停止层停止 这个蚀刻)。 MIM电容器的电介质和第一电极通过蚀刻穿过第二绝缘层和第一金属层而形成。 接下来是常规处理以产生与MIM电容器的接触点。
    • 6. 发明授权
    • Dual gate and double poly capacitor analog process integration
    • 双门和双电容模拟过程集成
    • US06218234B1
    • 2001-04-17
    • US09298934
    • 1999-04-26
    • Xing YuShao Kai
    • Xing YuShao Kai
    • H01L218242
    • H01L27/0629
    • A method for integrating the dual gate and double poly capacitor processes to fabricate an analog capacitor integrated circuit device is described. An isolation region is provided separating a first active area from a second active area in a semiconductor substrate. A first gate oxide layer is formed overlying the semiconductor substrate in both active areas. A first polysilicon layer is deposited overlying the first gate oxide layer and the isolation region. An capacitor dielectric layer comprising an oxide layer and a nitride layer is deposited overlying the first polysilicon layer. The capacitor dielectric layer and first polysilicon layer are etched away where they are not covered by a mask to form a first polysilicon gate electrode in the first area and a polysilicon capacitor bottom plate and overlying capacitor dielectric overlying the isolation region. The first gate oxide layer is removed in the second area and a thinner second gate oxide layer is formed in the second area. A second polysilicon layer is deposited overlying the second gate oxide layer, bottom capacitor plate and capacitor dielectric, and the first polysilicon gate electrode. The second polysilicon layer is etched away where it is not covered by a mask to form a second polysilicon gate electrode in the second area and to form a top capacitor plate overlying the bottom capacitor plate having the capacitor dielectric layer therebetween.
    • 描述了一种用于整合双栅极和双重多晶硅电容器工艺以制造模拟电容器集成电路器件的方法。 提供了隔离区域,其将第一有源区域与半导体衬底中的第二有源区域分开。 在两个有源区域中形成覆盖半导体衬底的第一栅极氧化物层。 第一多晶硅层沉积在第一栅极氧化物层和隔离区上。 包括氧化物层和氮化物层的电容器电介质层沉积在第一多晶硅层上。 电容器电介质层和第一多晶硅层被蚀刻掉,其中它们不被掩模覆盖,以在第一区域中形成第一多晶硅栅电极,并且在多晶硅电容器底板和覆盖隔离区域的上覆电容器电介质上。 在第二区域中去除第一栅极氧化物层,并且在第二区域中形成更薄的第二栅极氧化物层。 沉积第二多晶硅层,覆盖第二栅极氧化物层,底部电容器板和电容器电介质,以及第一多晶硅栅电极。 第二多晶硅层被蚀刻掉,其未被掩模覆盖,以在第二区域中形成第二多晶硅栅电极,并且形成覆盖在其间的电容器电介质层的底部电容器板的顶部电容器板。