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    • 71. 发明申请
    • Semiconductor device having trench capacitor and method for fabricating the same
    • 具有沟槽电容器的半导体器件及其制造方法
    • US20030116798A1
    • 2003-06-26
    • US10329096
    • 2002-12-23
    • Cheol Soo Park
    • H01L027/108H01L029/76H01L029/94H01L031/119
    • H01L27/1087H01L27/10832H01L29/66181H01L29/945
    • A semiconductor device and a method for fabricating the same. The device comprises a silicon substrate having a conductive well; a trench formed in the conductive well; a plate electrode formed on the sidewall of the trench; a capacitor insulating film and a storage node electrode; a first storage node connector formed on the storage node electrode; an insulating film formed on the first storage node connector; a silicon layer formed on the entire structure; word lines formed on the silicon layer; source and drain regions formed in the silicon layer; a contact hole, formed in the silicon layer and the insulating film, such that the first storage node connector and the source region are exposed; and a second storage node connector, formed in the contact hole, such that the source region and the first storage node connector are connected to each other.
    • 一种半导体器件及其制造方法。 该器件包括具有导电阱的硅衬底; 导电孔中形成的沟槽; 形成在沟槽的侧壁上的平板电极; 电容绝缘膜和存储节点电极; 形成在所述存储节点电极上的第一存储节点连接器; 形成在所述第一存储节点连接器上的绝缘膜; 形成在整个结构上的硅层; 形成在硅层上的字线; 源极和漏极区域形成在硅层中; 形成在所述硅层和所述绝缘膜中的接触孔,使得所述第一存储节点连接器和所述源极区域被暴露; 以及形成在所述接触孔中的第二存储节点连接器,使得所述源区域和所述第一存储节点连接器彼此连接。
    • 73. 发明申请
    • Semiconductor device and method of manufacturing the same
    • 半导体装置及其制造方法
    • US20030111690A1
    • 2003-06-19
    • US10075236
    • 2002-02-15
    • KABUSHIKI KAISHA TOSHIBA
    • Kanna Adachi
    • H01L029/76H01L029/94H01L031/062H01L031/113H01L031/119
    • H01L29/6659H01L21/26506H01L21/26513H01L29/7833
    • An aspect of the present invention includes: a gate insulating layer formed on an n-type silicon semiconductor region; a gate electrode formed on the gate insulating layer; a channel region formed immediately below the gate electrode in the semiconductor region; p-type source/drain regions formed at both sides of the channel region in the semiconductor region; p-type diffusion layer regions formed between the channel region and the source/drain regions in the semiconductor region and having a lower impurity concentration than the source/drain regions; first impurity regions formed near surface portions of the diffusion layer regions; and second impurity regions formed in part of the p-type diffusion layer regions and near surface portions of the source/drain regions, the second impurity regions being deeper than the first impurity regions, the first and second impurity regions containing one element selected from germanium, silicon, gallium, and indium as impurity.
    • 本发明的一个方面包括:形成在n型硅半导体区域上的栅极绝缘层; 形成在所述栅极绝缘层上的栅电极; 形成在半导体区域中的栅电极正下方的沟道区; 形成在半导体区域中的沟道区域的两侧的p型源极/漏极区域; 形成在半导体区域中的沟道区域和源极/漏极区域之间并且具有比源极/漏极区域更低的杂质浓度的p型扩散层区域; 形成在扩散层区域的表面部附近的第一杂质区域; 以及形成在所述p型扩散层区域和所述源极/漏极区域的近表面部分的一部分中的第二杂质区域,所述第二杂质区域比所述第一杂质区域深,所述第一和第二杂质区域包含选自锗 ,硅,镓和铟作为杂质。
    • 74. 发明申请
    • Semiconductor memory device and its manufacturing method
    • 半导体存储器件及其制造方法
    • US20030111681A1
    • 2003-06-19
    • US10075464
    • 2002-02-15
    • KABUSHIKI KAISHA TOSHIBA
    • Shigeru Kawanaka
    • H01L027/108H01L029/76H01L029/94H01L031/119H01L027/01H01L027/11
    • H01L21/84G11C11/405H01L27/108H01L27/11H01L27/1203H01L29/7841
    • According to one aspect of the present invention, a semiconductor memory device has: a semiconductor layer formed on an insulating film; and a memory cell array including a matrix arrangement of a plurality of memory cells each made up of first and second transistors connected in series, one side of each memory cell being connected to a bit line and the other side of each memory cell being supplied with a reference potential, and according to another aspect of the present invention, a semiconductor memory device manufacturing method includes: forming an oxide layer and a silicon active layer on a semiconductor substrate; forming an element isolation region for separating said silicon active layer into discrete element-forming regions to be substantially flush with said silicon active layer; forming gate electrode of paired two transistors by depositing a gate electrode material on said silicon active layer and patterning it; injecting predetermined ions into a region for forming a diffusion layer in, using said gate electrodes as an ion injection mask; forming said paired transistors by activating the injected ions through a heat process; and forming a first gate line connected to the gate electrode of one of said paired transistors and a second gate line connected to the gate electrode of the other of said paired transistors.
    • 根据本发明的一个方面,半导体存储器件具有:形成在绝缘膜上的半导体层; 以及包括由串联连接的第一和第二晶体管构成的多个存储单元的矩阵排列的存储单元阵列,每个存储单元的一侧连接到位线,并且每个存储单元的另一侧被提供 参考电位,并且根据本发明的另一方面,半导体存储器件制造方法包括:在半导体衬底上形成氧化物层和硅有源层; 形成用于将所述硅有源层分离成离散元件形成区域以与所述硅有源层基本齐平的元件隔离区; 通过在所述硅有源层上沉积栅极材料并对其进行构图来形成成对的两个晶体管的栅电极; 将所述栅极用作离子注入掩模,将预定离子注入用于形成扩散层的区域中; 通过热过程激活注入的离子来形成所述成对晶体管; 以及形成连接到所述成对晶体管之一的栅极的第一栅极线和连接到所述成对晶体管中另一个的栅电极的第二栅极线。
    • 80. 发明申请
    • Triggering of an ESD NMOS through the use of an N-type buried layer
    • 通过使用N型掩埋层来触发ESD NMOS
    • US20030085429A1
    • 2003-05-08
    • US10280313
    • 2002-10-25
    • Ronald B. Hulfachor
    • H01L029/76H01L031/062H01L031/119H01L031/113H01L029/94
    • H01L27/0277
    • An ESD NMOS structure with an odd number of N-type structures built into a P-type well. Buried N-type structures are positioned between the N-type structures. The center N-type structure and each alternate N-type structure are electrically connected to each other, to the buried N-type structures, and to the output contact; while the other N-type structures are electrically connected to each other and the P-well and to ground. When a positive ESD event occurs, a depletion zone is created in the P-well between the N-type buried structures and the N-type structures thereby increasing the resistivity of the structure. Moreover, when a positive ESD event occurs, the lateral NPN transistors on either side of the center N-type structure break down and snap back. The resulting current travels through the area of increased resistivity and thereby creates a larger voltage along the P-well from the center N-type structure out toward the distal N-type structures. The combination of the increased resistivity and the higher voltage act in combination to lower the triggering voltage of the ESD structure.
    • 具有内置于P型阱中的奇数N型结构的ESD NMOS结构。 埋置的N型结构位于N型结构之间。 中心N型结构和每个交替的N型结构彼此电连接到埋入的N型结构和输出触点; 而其他N型结构彼此电连接,并且P阱和接地。 当发生正的ESD事件时,在N型掩埋结构和N型结构之间的P阱中产生耗尽区,从而增加了结构的电阻率。 此外,当发生正的ESD事件时,中心N型结构两侧的侧面NPN晶体管分解并回跳。 所产生的电流穿过电阻率增加的区域,从而沿着P-阱从中心N型结构向远端N型结构产生更大的电压。 增加的电阻率和较高电压的组合组合起来以降低ESD结构的触发电压。