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    • 12. 发明授权
    • Tilted counter-doped implant to sharpen halo profile
    • 倾斜反掺杂植入物以锐化晕轮廓
    • US06589847B1
    • 2003-07-08
    • US09631557
    • 2000-08-03
    • Daniel KadoshScott D. LuningDerick J. Wristers
    • Daniel KadoshScott D. LuningDerick J. Wristers
    • H01L21336
    • H01L29/6659H01L21/26586H01L29/1045H01L29/6656
    • The present invention is directed to a method of forming halo implant regions in a semiconductor device. In one illustrative embodiment, the method comprises forming a gate electrode above a semiconducting substrate, the substrate being doped with a first type of dopant material, and forming halo implant regions in the substrate adjacent the gate electrode by performing at least the following steps: performing a first angled implant process using a dopant material that is of a type opposite to the first type of dopant material and performing a second angled implant using a dopant material that is of the same type as the first type of dopant material. The method concludes with performing at least one additional implantation process to further form source/drain regions for the device.
    • 本发明涉及一种在半导体器件中形成卤素注入区的方法。 在一个说明性实施例中,该方法包括在半导体衬底之上形成栅电极,该衬底被掺杂有第一种类型的掺杂剂材料,以及通过至少执行以下步骤在邻近栅极的衬底中形成卤素注入区域:执行 使用与第一类型的掺杂剂材料相反的类型的掺杂剂材料并使用与第一类型的掺杂剂材料具有相同类型的掺杂剂材料来执行第二成角度的注入的第一成角度注入工艺。 该方法的结论是执行至少一个额外的注入工艺以进一步形成器件的源极/漏极区域。
    • 14. 发明授权
    • Method and structure for optimizing the performance of a semiconductor
device having dense transistors
    • 用于优化具有致密晶体管的半导体器件的性能的方法和结构
    • US5970311A
    • 1999-10-19
    • US961980
    • 1997-10-31
    • Jon CheekDaniel KadoshDerick J. Wristers
    • Jon CheekDaniel KadoshDerick J. Wristers
    • H01L21/66H01L23/544H01L21/00G01R31/26
    • H01L22/20H01L22/34H01L2924/0002
    • A method and structure for optimizing the performance of a semiconductor device having dense transistors. A method consistent with the present invention includes forming a first test structure on a first substrate portion. The first test structure includes a transistor having a gate electrode formed at a design width and at a first line spacing similar to the line spacing of a dense transistor. One or more electrical properties the transistor of the first test structure is measured. A second test structure is formed on a second substrate portion. The second test structure includes a transistor having a gate electrode formed at the same design width as the transistor of the first test structure and at a second line spacing greater than the first line spacing. One or more electrical properties of the transistor of the second test structure are measured. Using the measured one or more electrical properties, one or more relationships are developed between the measured one or more electrical properties and the transistors at the first line spacing and the second line spacing.
    • 一种用于优化具有致密晶体管的半导体器件的性能的方法和结构。 与本发明一致的方法包括在第一衬底部分上形成第一测试结构。 第一测试结构包括晶体管,其晶体管具有以类似于致密晶体管的线间距的设计宽度和第一行间距形成的栅电极。 测量第一测试结构的晶体管的一个或多个电特性。 在第二基板部分上形成第二测试结构。 第二测试结构包括晶体管,其晶体管具有与第一测试结构的晶体管相同的设计宽度并且在大于第一线间距的第二线间距处形成栅电极。 测量第二测试结构的晶体管的一个或多个电特性。 使用所测量的一个或多个电性能,在所测量的一个或多个电性能和在第一线间距和第二线间距处的晶体管之间形成一个或多个关系。
    • 17. 发明授权
    • Isolation structure having implanted silicon atoms at the top corner of the isolation trench filling vacancies and interstitial sites
    • 隔离结构在隔离槽的顶角处注入硅原子填充空位和间隙位置
    • US06979878B1
    • 2005-12-27
    • US09217213
    • 1998-12-21
    • Mark I. GardnerH. Jim FulfordDerick J. Wristers
    • Mark I. GardnerH. Jim FulfordDerick J. Wristers
    • H01L21/762H01L29/36
    • H01L21/76237
    • A method for isolating a first active region from a second active region, both of which are configured within a semiconductor substrate. The method comprises forming a dielectric masking layer above a semiconductor substrate. An opening is then formed through the masking layer. A pair of dielectric spacers are formed upon the sidewalls of the masking layer within the opening. A trench is then etched in the semiconductor substrate between the dielectric spacers. A first dielectric layer is then thermally grown on the walls and base of the trench. A CVD oxide is deposited into the trench and processed such that the upper surface of the CVD oxide is commensurate with the substrate surface. Portions of the spacers are also removed such that the thickness of the spacers is between about 0 to 200 Å. Silicon atoms and/or barrier atoms, such as nitrogen atoms, are then implanted ino regions of the active areas in close proximity to the trench isolation structure.
    • 一种用于将第一有源区与第二有源区隔离的方法,二者均配置在半导体衬底内。 该方法包括在半导体衬底上形成电介质掩模层。 然后通过掩模层形成开口。 在开口内的掩模层的侧壁上形成一对电介质隔离物。 然后在电介质间隔物之间​​的半导体衬底中蚀刻沟槽。 然后在沟槽的壁和基底上热生长第一介电层。 将CVD氧化物沉积到沟槽中并进行处理,使得CVD氧化物的上表面与衬底表面相当。 间隔物的一部分也被去除,使得间隔物的厚度在约0至200埃之间。 然后将硅原子和/或势垒原子(例如氮原子)注入非常靠近沟槽隔离结构的有源区的多个区域中。