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    • 12. 发明申请
    • SOI bipolar transistors with reduced self heating
    • 具有自加热降低的SOI双极晶体管
    • US20070001262A1
    • 2007-01-04
    • US11173540
    • 2005-07-01
    • Qiqing OuyangKai Xiu
    • Qiqing OuyangKai Xiu
    • H01L27/082
    • H01L21/84H01L21/8249H01L27/0623H01L27/1203
    • A bipolar transistor includes a collector located over a substrate; and a heat conductive path connecting the substrate to the collector. The heat conductive path is filled with a heat conductive material such as metal or polysilicon. In one embodiment the heat conductive path runs through the collector to extract heat from the collector and drain it to the substrate. In alternate embodiments, the transistor can be a vertical or a lateral device. According to another embodiment, an integrated circuit using BiCMOS technology comprises pnp and npn bipolar transistors with heat conduction from collector to substrate and possibly p-channel and n-channel MOSFETS. According to yet another embodiment, a method for making a transistor in an integrated network comprises steps of etching the heat conducting path through the collector and to the substrate and fill with heat conductive material to provide a heat drain for the transistor comprising the collector.
    • 双极晶体管包括位于衬底上方的集电极; 以及将基板连接到集电体的导热路径。 导热路径填充有诸如金属或多晶硅的导热材料。 在一个实施例中,导热路径穿过收集器以从集电器提取热量并将其排出到基板。 在替代实施例中,晶体管可以是垂直或横向装置。 根据另一实施例,使用BiCMOS技术的集成电路包括具有从集电极到衬底以及可能的p沟道和n沟道MOSFET的热传导的pnp和npn双极晶体管。 根据另一个实施例,一种用于在集成网络中制造晶体管的方法包括以下步骤:蚀刻通过集电器和衬底的导热路径,并填充导热材料,以为包括集电器的晶体管提供散热。
    • 13. 发明授权
    • Orientation-optimized PFETS in CMOS devices employing dual stress liners
    • 采用双重应力衬垫的CMOS器件中的取向优化PFETS
    • US07525162B2
    • 2009-04-28
    • US11850933
    • 2007-09-06
    • Haizhou YinKatherine L. SaengerChun-Yung SungKai Xiu
    • Haizhou YinKatherine L. SaengerChun-Yung SungKai Xiu
    • H01L21/00
    • H01L21/823807H01L29/045H01L29/7843
    • A PFET is provided on a silicon layer having a (110) surface orientation and located in a substrate. A compressive stress liner disposed on the gate and source/drain regions of the PFET generates a primary longitudinal compressive strain along the direction of the PFET channel. A tensile stress liner disposed on at least one NFET located transversely adjacent to the PFET generates a primary longitudinal tensile strain along the direction of the NFET channel. A secondary stress field from the at least one NFET tensile liner generates a beneficial transverse tensile stress in the PFET channel. The net benefits of the primary compressive longitudinal strain and the secondary tensile transverse stress are maximized when the azimuthal angle between the direction of the PFET channel and an in-plane [1 1 0] crystallographic direction in the (110) silicon layer is from about 25° to about 55.
    • 在具有(110)表面取向且位于衬底中的硅层上提供PFET。 设置在PFET的栅极和源极/漏极区域上的压应力衬垫沿着PFET沟道的方向产生初级纵向压缩应变。 设置在横向邻近PFET的至少一个NFET上的拉伸应力衬垫沿着NFET通道的方向产生初级纵向拉伸应变。 来自至少一个NFET拉伸衬套的二次应力场在PFET通道中产生有益的横向拉伸应力。 当PFET通道的方向与平面内[1 10]晶体方向的方位角之间时,主压缩纵向应变和次级拉伸横向应力的净效益最大化 (110)硅层为约25°至约55°。
    • 14. 发明申请
    • ORIENTATION-OPTIMIZED PFETS IN CMOS DEVICES EMPLOYING DUAL STRESS LINERS
    • 使用双应力衬片的CMOS器件中的方位优化PFET
    • US20090065867A1
    • 2009-03-12
    • US11850933
    • 2007-09-06
    • Haizhou YinKatherine L. SaengerChun-Yung SungKai Xiu
    • Haizhou YinKatherine L. SaengerChun-Yung SungKai Xiu
    • H01L27/12
    • H01L21/823807H01L29/045H01L29/7843
    • A PFET is provided on a silicon layer having a (110) surface orientation and located in a substrate. A compressive stress liner disposed on the gate and source/drain regions of the PFET generates a primary longitudinal compressive strain along the direction of the PFET channel. A tensile stress liner disposed on at least one NFET located transversely adjacent to the PFET generates a primary longitudinal tensile strain along the direction of the NFET channel. A secondary stress field from the at least one NFET tensile liner generates a beneficial transverse tensile stress in the PFET channel. The net benefits of the primary compressive longitudinal strain and the secondary tensile transverse stress are maximized when the azimuthal angle between the direction of the PFET channel and an in-plane [1 10] crystallographic direction in the (110) silicon layer is from about 25° to about 55.
    • 在具有(110)表面取向且位于衬底中的硅层上提供PFET。 设置在PFET的栅极和源极/漏极区域上的压应力衬垫沿着PFET沟道的方向产生初级纵向压缩应变。 设置在横向邻近PFET的至少一个NFET上的拉伸应力衬垫沿着NFET通道的方向产生初级纵向拉伸应变。 来自至少一个NFET拉伸衬套的二次应力场在PFET通道中产生有益的横向拉伸应力。 当PFET通道的方向和平面内[1 10]晶体方向的方位角在(())时,主压缩纵向应变和次拉伸横向应力的最大优点是最大化, 110)硅层为约25°至约55°。