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    • 63. 发明授权
    • Manufacturing method for forming all regions of the gate electrode silicided
    • 用于形成栅电极的所有区域的制造方法被硅化
    • US07396764B2
    • 2008-07-08
    • US11381654
    • 2006-05-04
    • Shigeki Komori
    • Shigeki Komori
    • H01L21/44
    • H01L21/823814H01L21/28097H01L21/28518H01L21/823835H01L21/82385H01L29/4975H01L29/66545H01L29/6659H01L29/7833
    • The technology which can improve the performance of a MOS transistor in which all the regions of the gate electrode were silicided is offered.A gate insulating film and a gate electrode of an nMOS transistor are laminated and formed in this order on a semiconductor substrate. A source/drain region of the nMOS transistor is formed in the upper surface of the semiconductor substrate. The source/drain region is silicided after siliciding all the regions of the gate electrode. Thus, silicide does not cohere in the source/drain region by the heat treatment at the silicidation of the gate electrode by siliciding the source/drain region after the silicidation of the gate electrode. Therefore, the electric resistance of the source/drain region is reduced and junction leak can be reduced. As a result, the performance of the nMOS transistor improves.
    • 提供了可以提高栅电极的所有区域被硅化的MOS晶体管的性能的技术。 将nMOS晶体管的栅极绝缘膜和栅电极依次层叠并形成在半导体基板上。 nMOS晶体管的源极/漏极区域形成在半导体衬底的上表面中。 在硅化栅电极的所有区域之后,源极/漏极区域被硅化。 因此,通过在栅极电极的硅化后硅化硅化源极/漏极区域,通过在栅电极的硅化处理进行热处理,硅化物不会在源极/漏极区域内固定。 因此,源极/漏极区域的电阻减小,结点泄漏可以减小。 结果,提高了nMOS晶体管的性能。
    • 64. 发明授权
    • Manufacturing method of a semiconductor device capable of accurately setting a resistance value of a resistance element
    • 能够精确地设定电阻元件的电阻值的半导体器件的制造方法
    • US06844228B2
    • 2005-01-18
    • US10700770
    • 2003-11-05
    • Shigeki Komori
    • Shigeki Komori
    • H01L27/04H01L21/336H01L21/822H01L21/8234H01L27/06H01L21/8244
    • H01L27/0629
    • A photoresist (6) is formed on an element isolation insulating film (2) so as to cover the upper and side surfaces of a polysilicon film (4R) which functions as a resistance element. With the photoresist (6) as an implantation mask, n-type impurities (7) such as phosphorus are ion-implanted from a direction substantially normal to the upper surface of a silicon substrate (1). The dose is in the order of 1013/cm2. Through this processing, an LDD region (8) of MOSFET is formed inside the upper surface of the silicon substrate (1) within a transistor forming region. The impurities (7) are also implanted in a polysilicon film (4G). On the other hand, as the polysilicon film (4R) is covered by the photoresist (6), the impurities (7) are not implanted into the polysilicon film (4R).
    • 在元件隔离绝缘膜(2)上形成光致抗蚀剂(6),以覆盖用作电阻元件的多晶硅膜(4R)的上表面和侧表面。 以光致抗蚀剂(6)作为注入掩模,从大致垂直于硅衬底(1)的上表面的方向离子注入诸如磷的n型杂质(7)。 剂量为10 13 / cm 2的数量级。 通过这种处理,在晶体管形成区域内的硅衬底(1)的上表面内形成有MOSFET的LDD区域(8)。 杂质(7)也被植入多晶硅膜(4G)中。 另一方面,由于多晶硅膜(4R)被光致抗蚀剂(6)覆盖,杂质(7)不被注入到多晶硅膜(4R)中。
    • 65. 发明授权
    • Magnetic random-access memory
    • US06552926B2
    • 2003-04-22
    • US10096878
    • 2002-03-14
    • Shigeki Komori
    • Shigeki Komori
    • G11C1100
    • H01L27/228B82Y10/00G11C11/16H01L27/224
    • A magnetic random-access memory comprises a semiconductor substrate (1) on which write word lines (2) and bit lines (3) intersecting each other are arranged, TMR elements (7) formed individually in areas of intersection of the write word lines (2) and the bit lines (3), each TMR element (7) being formed by stacking a free-spin layer (4) whose magnetization direction is variable, a fixed-spin layer (6) whose magnetization direction is fixed and an insulator layer (5) placed between the first and second magnetic substance layers, and access transistors (10). The TMR elements (7) are located where word lines (8a) which serve as gates of the access transistors (10) intersect the bit lines (3) so that the word lines (8a) perform the functions of both write and read word lines. This arrangement reduces the complexity involved in creating a multilayer interconnection structure, simplifies the structure and manufacturing processes of the magnetic random-access memory, and enables its miniaturization and a higher level of integration.
    • 68. 发明授权
    • Semiconductor device comprising a polish preventing pattern
    • 包括防抛光图案的半导体器件
    • US06448630B1
    • 2002-09-10
    • US09292383
    • 1999-04-15
    • Shigeki Komori
    • Shigeki Komori
    • H01L2176
    • H01L23/564H01L21/31053H01L21/76229H01L2924/0002H01L2924/00
    • A semiconductor device having a polish preventing pattern that can improve the planarity of an element formation region after the CMP method polishing is provided. To the shape of an element formation region, a loop-shaped element formation region dummy is formed in a uniform width and at a uniform distance from the edge of the element formation region to have a loop shape. That can prevent formation of such a portion that is on a line extended from a gap between polish preventing patterns as well as a large gap between an element formation region and a polish preventing pattern. Accordingly, local application of large pressure to an end of an element formation region is suppressed which is caused when a polishing cloth bends. As a result, the semiconductor device does not have a locally substantially etched portion. The planarity of the surface of an element formation region is maintained in the semiconductor device.
    • 提供了具有可以提高CMP方法研磨之后的元件形成区域的平坦度的防抛光图案的半导体器件。 对于元件形成区域的形状,环形元件形成区域虚拟部以与元件形成区域的边缘相同的宽度和均匀的距离形成为环形。 这可以防止在防止防波纹图案之间的间隙延伸的线上形成这样的部分,以及元件形成区域和抛光防止图案之间的大间隙。 因此,当抛光布弯曲时,局部地施加大的压力到元件形成区域的端部。 结果,半导体器件不具有局部基本上蚀刻的部分。 元件形成区域的表面的平面度保持在半导体器件中。