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    • 101. 发明申请
    • Self-aligned low-k gate cap
    • 自对准低k门帽
    • US20060289909A1
    • 2006-12-28
    • US11514605
    • 2006-09-01
    • Oleg GluschenkovJack MandelmanMichael BelyanskyBruce Doris
    • Oleg GluschenkovJack MandelmanMichael BelyanskyBruce Doris
    • H01L29/76
    • H01L21/76834H01L21/28052H01L21/76897H01L29/6653H01L29/6659H01L29/7833
    • A CMOS structure in which the gate-to-drain/source capacitance is reduced as well as various methods of fabricating such a structure are provided. In accordance with the present invention, it has been discovered that the gate-to-drain/source capacitance can be significantly reduced by forming a CMOS structure in which a low-k dielectric material is self-aligned with the gate conductor. A reduction in capacitance between the gate conductor and the contact via ranging from about 30% to greater than 40% has been seen with the inventive structures. Moreover, the total outer-fringe capacitance (gate to outer diffusion+gate to contact via) is reduced between 10-18%. The inventive CMOS structure includes at least one gate region including a gate conductor located a top a surface of a semiconductor substrate; and a low-k dielectric material that is self-aligned to the gate conductor.
    • 提供其中栅极 - 漏极/源极电容减小的CMOS结构以及制造这种结构的各种方法。 根据本发明,已经发现,通过形成其中低k电介质材料与栅极导体自对准的CMOS结构,可以显着降低栅 - 漏/源电容。 本发明的结构已经看到,栅极导体和接触孔之间的电容减小范围为约30%至大于40%。 此外,总外部电容(门到外部扩散+接触通孔的栅极)在10-18%之间降低。 本发明的CMOS结构包括至少一个栅极区域,其包括位于半导体衬底的表面顶部的栅极导体; 以及与栅极导体自对准的低k电介质材料。
    • 102. 发明申请
    • ANTI-HALO COMPENSATION
    • 反哈马赔偿
    • US20060255375A1
    • 2006-11-16
    • US10908442
    • 2005-05-12
    • Omer DokumaciOleg Gluschenkov
    • Omer DokumaciOleg Gluschenkov
    • H01L31/112
    • H01L29/105H01L21/26586H01L21/823412H01L29/6659H01L29/66636
    • An apparatus and method for controlling the net doping in the active region of a semiconductor device in accordance with a gate length is provided. A compensating dopant is chosen to be a type of dopant which will electrically neutralize dopant of the opposite type in the substrate. By implanting the compensating dopant at relatively high angle and high energy, the compensating dopant will pass into and through the gate region for short channels and have little or no impact on the total dopant concentration within the gate region. Where the channel is of a longer length, the high implant angle and the high implant energy cause the compensating dopant to lodge within the channel thereby neutralizing a portion of the dopant of the opposite type.
    • 提供了一种用于根据栅极长度控制半导体器件的有源区域中的净掺杂的装置和方法。 选择补偿掺杂剂是一种掺杂剂,其将电中和衬底中相反类型的掺杂剂。 通过以相对高的角度和高能量注入补偿掺杂剂,补偿掺杂剂将进入并通过用于短通道的栅极区域,并且对栅极区域内的总掺杂剂浓度几乎没有或没有影响。 在通道长度较长的情况下,高注入角度和高注入能量使得补偿掺杂剂落入通道内,从而中和相反类型的掺杂剂的一部分。
    • 104. 发明申请
    • DUAL STRESSED SOI SUBSTRATES
    • 双应力SOI衬底
    • US20060125008A1
    • 2006-06-15
    • US10905062
    • 2004-12-14
    • Dureseti ChidambarraoBruce DorisOleg GluschenkovOmer DokumaciHuilong Zhu
    • Dureseti ChidambarraoBruce DorisOleg GluschenkovOmer DokumaciHuilong Zhu
    • H01L27/12H01L21/84
    • H01L21/84H01L27/1203H01L29/7843Y10S438/938
    • The present invention provides a strained-Si structure, in which the nFET regions of the structure are strained in tension and the pFET regions of the structure are strained in compression. Broadly the strained-Si structure comprises a substrate; a first layered stack atop the substrate, the first layered stack comprising a compressive dielectric layer atop the substrate and a first semiconducting layer atop the compressive dielectric layer, wherein the compressive dielectric layer transfers tensile stresses to the first semiconducting layer; and a second layered stack atop the substrate, the second layered stack comprising an tensile dielectric layer atop the substrate and a second semiconducting layer atop the tensile dielectric layer, wherein the tensile dielectric layer transfers compressive stresses to the second semiconducting layer. The tensile dielectric layer and the compressive dielectric layer preferably comprise nitride, such as Si3N4.
    • 本发明提供一种应变Si结构,其中该结构的nFET区域被拉紧并且该结构的pFET区域被压缩而变形。 广义上,应变Si结构包括基底; 所述第一层叠堆叠包括位于所述衬底顶部的压缩介电层和位于所述压缩介电层顶部的第一半导体层,其中所述压缩介电层将拉伸应力传递到所述第一半导体层; 以及在所述衬底顶部的第二层叠堆叠,所述第二层叠堆叠包括位于所述衬底顶部的拉伸介电层和位于所述拉伸介电层顶部的第二半导体层,其中所述拉伸介电层将压缩应力传递到所述第二半导体层。 拉伸介电层和压电介电层优选包括氮化物,例如Si 3 N 4 N 4。