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    • 81. 发明申请
    • STRUCTURE AND METHODS OF FORMING CONTACT STRUCTURES
    • 形成接触结构的结构和方法
    • US20120153482A1
    • 2012-06-21
    • US13405443
    • 2012-02-27
    • Ying LiKeith Kwong Hon WongChih-Chao Yang
    • Ying LiKeith Kwong Hon WongChih-Chao Yang
    • H01L23/485H01L21/28
    • H01L21/76844H01L21/76846H01L23/53223H01L2924/0002H01L2924/00
    • A contact structure and a method of forming the contact structure. The structure includes: a silicide layer on and in direct physical contact with a top substrate surface of a substrate; an electrically insulating layer on the substrate; and an aluminum plug within the insulating layer. The aluminum plug has a thickness not exceeding 25 nanometers in a direction perpendicular to the top substrate surface. The aluminum plug extends from a top surface of the silicide layer to a top surface of the insulating layer. The aluminum plug is in direct physical contact with the top surface of the silicide layer and is in direct physical contact with the silicide layer. The method includes: forming the silicide layer on and in direct physical contact with the top substrate surface of the substrate; forming the electrically insulating layer on the substrate; and forming the aluminum plug within the insulating layer.
    • 接触结构和形成接触结构的方法。 该结构包括:与衬底的顶部衬底表面直接物理接触的硅化物层; 基板上的电绝缘层; 和绝缘层内的铝塞。 该铝塞的垂直于顶部基板表面的方向的厚度不超过25纳米。 铝塞从硅化物层的顶表面延伸到绝缘层的顶表面。 铝插塞与硅化物层的顶表面直接物理接触并与硅化物层直接物理接触。 该方法包括:在衬底的顶部衬底表面上直接物理接触硅化物层; 在基板上形成电绝缘层; 以及在所述绝缘层内形成所述铝塞。
    • 85. 发明授权
    • Structure for metal cap applications
    • 金属盖应用结构
    • US08133810B2
    • 2012-03-13
    • US12881806
    • 2010-09-14
    • Chih-Chao YangDaniel C. EdelsteinKeith Kwong Hon WongHaining Yang
    • Chih-Chao YangDaniel C. EdelsteinKeith Kwong Hon WongHaining Yang
    • H01L21/44
    • H01L21/76885H01L21/76826H01L21/76834H01L21/7684H01L21/76849
    • An interconnect structure is provided in which the conductive features embedded within a dielectric material are capped with a metallic capping layer, yet no metallic residue is present on the surface of the dielectric material in the final structure. The inventive interconnect structure has improved dielectric breakdown strength as compared to prior art interconnect structures. Moreover, the inventive interconnect structure has better reliability and technology extendibility for the semiconductor industry. The inventive interconnect structure includes a dielectric material having at least one metallic capped conductive feature embedded therein, wherein a top portion of said at least one metallic capped conductive feature extends above an upper surface of the dielectric material. A dielectric capping layer is located on the dielectric material and it encapsulates the top portion of said at least one metallic capped conductive feature that extends above the upper surface of dielectric material.
    • 提供了一种互连结构,其中嵌入电介质材料内的导电特征被金属覆盖层封盖,但在最终结构中绝缘材料表面上没有金属残留物。 与现有技术的互连结构相比,本发明的互连结构具有改善的介电击穿强度。 此外,本发明的互连结构对于半导体工业具有更好的可靠性和技术可扩展性。 本发明的互连结构包括具有嵌入其中的至少一个金属封盖的导电特征的电介质材料,其中所述至少一个金属封端的导电特征的顶部在电介质材料的上表面上方延伸。 电介质覆盖层位于电介质材料上,并且封装在电介质材料的上表面上方延伸的所述至少一个金属封盖导电特征的顶部。
    • 87. 发明申请
    • METAL GATE AND HIGH-K DIELECTRIC DEVICES WITH PFET CHANNEL SiGe
    • 具有PFET通道SiGe的金属栅极和高K介质器件
    • US20110068369A1
    • 2011-03-24
    • US12563032
    • 2009-09-18
    • Kangguo ChengBruce B. DorisKeith Kwong Hon Wong
    • Kangguo ChengBruce B. DorisKeith Kwong Hon Wong
    • H01L27/092H01L21/8238
    • H01L21/823807H01L21/823842H01L21/823857
    • A method for fabricating a circuit structure is disclosed. The method includes depositing epitaxially a SiGe layer onto both NFET and PFET portions of a Si surface. Blanket disposing a first sequence of layers over the SiGe layer, including a high-k dielectric and a metal, and incorporating this first sequence of layers into the gatestacks and gate insulators of both NFET devices and PFET devices. This first sequence of layers is selected to yield desired device parameter values for the PFET devices. The method further includes removing the gatestack, the gate dielectric, and the SiGe layer, and re-forming the NFET devices by deploying a second sequence of layers that include a second high-k dielectric and a second metal. The second sequence of layers is selected to yield desired device parameter values for the NFET devices. A circuit structure is also disclosed. PFET devices have a gate dielectric with a high-k dielectric, a gatestack with a metal, and a silicide formed over the p-source/drain. NFET devices also include a gate dielectric with a high-k dielectric, a gatestack with a metal, and silicide formed over the n-source/drain. An epitaxial SiGe layer over the substrate surface is present everywhere in the device structures with the exception that it is absent underneath the NFET gate dielectric. The PFET and NFET device parameters are independently optimized through the composition of their gate dielectrics and gate stacks.
    • 公开了一种制造电路结构的方法。 该方法包括将SiGe层外延沉积到Si表面的NFET和PFET部分上。 毯子在SiGe层上设置第一层次序列,包括高k电介质和金属,并将该第一层序列并入到两个NFET器件和PFET器件的绝缘体和栅极绝缘体中。 选择该第一层次序列以产生PFET器件的期望的器件参数值。 该方法还包括去除盖板,栅极电介质和SiGe层,以及通过布置包括第二高k电介质和第二金属的第二层序列来重新形成NFET器件。 选择第二层次序列以产生NFET器件的期望的器件参数值。 还公开了电路结构。 PFET器件具有具有高k电介质的栅极电介质,具有金属的栅极电极和形成在p源极/漏极上的硅化物。 NFET器件还包括具有高k电介质的栅极电介质,具有金属的Gatestack以及形成在n源极/漏极上的硅化物。 在衬底表面上的外延SiGe层存在于器件结构中的任何地方,不同的是它不在NFET栅极电介质的下方。 PFET和NFET器件参数通过其栅极电介质和栅极叠层的组成独立优化。