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    • 121. 发明授权
    • Integrated injection logic devices including injection regions and tub or sink regions
    • 集成注入逻辑器件,包括注入区域和槽或汇点区域
    • US06326674B1
    • 2001-12-04
    • US09451623
    • 1999-11-30
    • Jong-Hwan KimTae-Hoon KwonCheol-Joong KimSuk-Kyun Lee
    • Jong-Hwan KimTae-Hoon KwonCheol-Joong KimSuk-Kyun Lee
    • H01L29735
    • H01L21/8226H01L21/8224H01L21/8228H01L21/82285H01L27/0233H01L27/0647H01L27/0826
    • A complementary bipolar transistor having a lateral npn bipolar transistor, a vertical and a lateral pnp bipolar transistor, an integrated injection logic, a diffusion capacitor, a polysilicon capacitor and polysilicon resistors are disclosed. The lateral pnp bipolar transistor has an emitter region and a collector region which includes high-density regions and low-density regions, and the emitter region is formed in an n type tub region. In the integrated injection logic circuit, collector regions are surrounded by a high-density p type region, and low-density p type regions are formed under the collector regions. The diffusion capacitor and the polysilicon capacitor are formed in one substrate. The diffusion regions except the regions formed by diffusing the impurities in the polysilicon resistors into the epitaxial layer are formed before forming the polysilicon resistors, and polysilicon electrodes are formed along with the polysilicon resistors.
    • 公开了具有横向npn双极晶体管,垂直和横向pnp双极晶体管,集成注入逻辑,扩散电容器,多晶硅电容器和多晶硅电阻器的互补双极晶体管。 横向pnp双极晶体管具有包括高密度区域和低密度区域的发射极区域和集电极区域,并且发射极区域形成在n型槽区域中。 在集成注入逻辑电路中,集电极区域被高密度p型区域包围,在集电极区域形成低密度p型区域。 扩散电容器和多晶硅电容器形成在一个衬底中。 在形成多晶硅电阻器之前形成除了将多晶硅电阻器中的杂质扩散到外延层中形成的区域之外的扩散区域,并且多晶硅电极与多晶硅电阻器一起形成。
    • 122. 发明授权
    • Process for doping two levels of a double poly bipolar transistor after
formation of second poly layer
    • 在形成第二多晶硅层之后掺杂两层双极晶体管的工艺
    • US5776814A
    • 1998-07-07
    • US775360
    • 1997-01-03
    • James D. Beasom
    • James D. Beasom
    • H01L29/73H01L21/331H01L21/8228H01L27/082H01L29/732
    • H01L27/0826H01L21/8228H01L27/082
    • A reduced mask set, implant complexity process for manufacturing a (high frequency application) complementary bipolar transistor structure uses the fast lateral diffusion characteristic of a layer of material, that is at least an order of magnitude higher for emitter dopants than in single crystal semiconductor material. Separate base and emitter poly layers are formed undoped. Then, the emitter poly of one device and the edges of the base poly of the other device are exposed through a dopant mask and simultaneously doped. The emitter dopant goes directly into the surface of the emitter poly where it lies over and is in contact with the base. The base contact dopant goes into the edges of the base poly, including the layer of material having the high diffusion coefficient, rapidly diffuses laterally throughout that layer, and then diffuses down into the collector material (e.g. island) surface, to form the extrinsic base. A second mask is patterned to expose the emitter of the second device and the edges of the base poly of the first device. Each device is then doped with the second type impurity through the second mask. The use of the high diffusion coefficient layer in the base contact enables the base dopant to spread laterally from the edge contact to the region where the base poly is in contact with the collector, with the same diffusion cycle that is used for the emitter.
    • 减少的掩模组,用于制造(高频应用)互补双极晶体管结构的植入复杂度过程使用材料层的快速横向扩散特性,其比发射体掺杂物比单晶半导体材料高至少一个数量级 。 单独的基极和发射极多晶层形成为未掺杂的。 然后,一个器件的发射极多晶硅和另一个器件的基极聚合物的边缘通过掺杂剂掩模曝光并同时掺杂。 发射极掺杂剂直接进入发射极聚合物的表面,其位于其上并与基底接触。 基极接触掺杂剂进入基极聚合物的边缘,包括具有高扩散系数的材料层,在该层上横向扩散,然后扩散到收集器材料(例如岛)表面中,以形成外部基极 。 图案化第二掩模以暴露第二器件的发射极和第一器件的基极poly的边缘。 然后每个器件通过第二掩模掺杂第二类型杂质。 在基极接触中使用高扩散系数层使得基底掺杂剂从边缘接触侧向扩散到与聚集体接触的区域,具有与用于发射极的相同的扩散循环。
    • 123. 发明授权
    • Method for making a complementary bipolar transistor
    • 制造互补双极晶体管的方法
    • US5629219A
    • 1997-05-13
    • US520704
    • 1995-08-29
    • Hiroyuki Miwa
    • Hiroyuki Miwa
    • H01L29/73H01L21/331H01L21/8228H01L27/082H01L29/732H01L21/265
    • H01L21/8228
    • A hole in the site for the emitter layer of the npn transistor of a complementary bipolar transistor is made in a step independent from a step of making a hole in the site for the emitter layer of the pnp transistor, and an n.sup.+ -type polycrystalline Si film doped with an n-type impurity upon being made is used to make the emitter electrode of the npn transistor. Independently from this step, a p.sup.+ -type polycrystalline Si film doped with a p-type impurity upon being made is used to make the emitter electrode of the pnp transistor. The n-type impurity diffusing from the emitter electrode makes an n.sup.+ -type emitter layer of the npn transistor, whereas the p-type impurity diffusing from the emitter electrode makes a p.sup.+ -type emitter layer of the pnp transistor. Thus the method can produce complementary bipolar transistors with a higher performance, and is suitable for combination with a process for fabricating sub-half-micron bipolar CMOSs.
    • 在互补双极晶体管的npn晶体管的发射极层的位置中的一个孔是独立于在pnp晶体管的发射极层的位置上形成空穴的步骤,并且n +型多晶Si 在制造时掺杂有n型杂质的薄膜用于制造npn晶体管的发射极。 独立于该步骤,使用在制造时掺杂有p型杂质的p +型多晶Si膜来制造pnp晶体管的发射极。 从发射电极扩散的n型杂质形成npn晶体管的n +型发射极层,而从发射极扩散的p型杂质形成pnp晶体管的p +型发射极层。 因此,该方法可以产生具有更高性能的互补双极晶体管,并且适用于与用于制造亚半微米双极CMOS的工艺组合。
    • 124. 发明授权
    • Process for doping two levels of a double poly bipolar transistor after
formation of second poly layer
    • 在形成第二多晶硅层之后掺杂两层双极晶体管的工艺
    • US5614422A
    • 1997-03-25
    • US405660
    • 1995-03-17
    • James D. Beasom
    • James D. Beasom
    • H01L29/73H01L21/331H01L21/8228H01L27/082H01L29/732H01L21/265
    • H01L27/0826H01L21/8228H01L27/082
    • A reduced mask set, implant complexity process for manufacturing a (high frequency application) complementary bipolar transistor structure uses the fast lateral diffusion characteristic of a layer of material, that is at least an order of magnitude higher for emitter dopants than in single crystal semiconductor material. Separate base and emitter poly layers are formed undoped. Then, the emitter poly of one device and the edges of the base poly of the other device are exposed through a dopant mask and simultaneously doped. The emitter dopant goes directly into the surface of the emitter poly where it lies over and is in contact with the base. The base contact dopant goes into the edges of the base poly, including the layer of material having the high diffusion coefficient, rapidly diffuses laterally throughout that layer, and then diffuses down into the collector material (e.g. island) surface, to form the extrinsic base. A second mask is patterned to expose the emitter of the second device and the edges of the base poly of the first device. Each device is then doped with the second type impurity through the second mask. The use of the high diffusion coefficient layer in the base contact enables the base dopant to spread laterally from the edge contact to the region where the base poly is in contact with the collector, with the same diffusion cycle that is used for the emitter.
    • 减少的掩模组,用于制造(高频应用)互补双极晶体管结构的植入复杂度过程使用材料层的快速横向扩散特性,其比发射体掺杂物比单晶半导体材料高至少一个数量级 。 单独的基极和发射极多晶层形成为未掺杂的。 然后,一个器件的发射极多晶硅和另一个器件的基极聚合物的边缘通过掺杂剂掩模曝光并同时掺杂。 发射极掺杂剂直接进入发射极聚合物的表面,其位于其上并与基底接触。 基极接触掺杂剂进入基极聚合物的边缘,包括具有高扩散系数的材料层,在该层上横向扩散,然后扩散到收集器材料(例如岛)表面中,以形成外部基极 。 图案化第二掩模以暴露第二器件的发射极和第一器件的基极poly的边缘。 然后每个器件通过第二掩模掺杂第二类型杂质。 在基极接触中使用高扩散系数层使得基底掺杂剂从边缘接触侧向扩散到与聚集体接触的区域,具有与用于发射极的相同的扩散循环。
    • 129. 发明申请
    • COMPLEMENTARY BIPOLAR SRAM
    • 补充双极性SRAM
    • US20160343427A1
    • 2016-11-24
    • US14793561
    • 2015-07-07
    • International Business Machines Corporation
    • Tak H. Ning
    • G11C11/416
    • G11C11/416G11C11/411G11C11/4116H01L21/8228H01L21/8229H01L27/1025H01L27/11
    • A complementary lateral bipolar SRAM device and method of operating. The device includes: a first set and second set of lateral bipolar transistors forming a respective first inverter device and second inverter device, the first and second inverter devices being cross-coupled for storing a logic state. In each said first and second set, a first bipolar transistor is an PNP type bipolar transistor, and a second bipolar transistor is an NPN type bipolar transistor, each said NPN type bipolar transistor having a base terminal, a first emitter terminal, a second emitter terminal, and a collector terminal. Emitter terminals of the PNP type transistors of each first and second inverter devices are electrically coupled together and receive a first applied wordline voltage. The first emitter terminals of each said NPN transistors of said first inverter and second inverter devices are electrically coupled together and receive a second applied voltage. The second emitter terminal of one NPN bipolar transistor of said first inverter is electrically coupled to a first bit line conductor, and the second emitter terminal of the NPN bipolar transistor of said second inverter device is electrically coupled to a second bit line.
    • 互补横向双极型SRAM器件及其操作方法。 该器件包括:第一组和第二组横向双极晶体管,形成相应的第一反相器器件和第二反相器器件,第一和第二反相器器件交叉耦合以存储逻辑状态。 在每个所述第一和第二组中,第一双极晶体管是PNP型双极晶体管,第二双极晶体管是NPN型双极晶体管,每个所述NPN型双极晶体管具有基极端子,第一发射极端子,第二发射极 端子和集电极端子。 每个第一和第二逆变器装置的PNP型晶体管的发射极端子电耦合在一起并接收第一施加的字线电压。 所述第一反相器和第二反相器装置的每个所述NPN晶体管的第一发射极端子电耦合在一起并接收第二施加电压。 所述第一反相器的一个NPN双极晶体管的第二发射极端子电耦合到第一位线导体,并且所述第二反相器装置的NPN双极晶体管的第二发射极端子电耦合到第二位线。