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    • 21. 发明授权
    • Post STI trench capacitor
    • 后STI沟槽电容器
    • US07682922B2
    • 2010-03-23
    • US11624385
    • 2007-01-18
    • Anil K. ChinthakindiDeok-Kee KimXi Li
    • Anil K. ChinthakindiDeok-Kee KimXi Li
    • H01L21/20
    • H01L29/94H01L27/0805H01L28/91H01L29/66181
    • A capacitor having a suitably large value for decoupling applications is formed in a trench defined by isolation structures such as recessed isolation or shallow trench isolation. The capacitor provides a contact area coextensive with an active area and can be reliably formed individually or in small numbers. Plate contacts are preferably made through implanted regions extending to or between dopant diffused regions forming a capacitor plate. The capacitor can be formed by a process subsequent to formation of isolation structures such that preferred soft mask processes can be used to form the isolation structures and process commonality and compatibility constraint are avoided while the capacitor forming processes can be performed in common with processing for other structures.
    • 在由诸如凹陷隔离或浅沟槽隔离的隔离结构限定的沟槽中形成具有用于去耦应用的适当大值的电容器。 电容器提供与有源区域共同延伸的接触区域,并且可以单独或少量可靠地形成。 板触点优选通过延伸到形成电容器板的掺杂剂扩散区域之间或之间的注入区域制成。 可以通过形成隔离结构之后的过程形成电容器,使得可以使用优选的软掩模工艺来形成隔离结构和工艺共同性,并避免兼容性约束,同时电容器形成过程可以与其他处理共同执行 结构。
    • 24. 发明申请
    • Post STI Trench Capacitor
    • 后STI沟槽电容器
    • US20080173918A1
    • 2008-07-24
    • US11935698
    • 2007-11-06
    • Anil K. ChinthakindiDeok-kee KimXi Li
    • Anil K. ChinthakindiDeok-kee KimXi Li
    • H01L29/94
    • H01L29/94H01L28/91H01L29/66181
    • A design structure for capacitor having a suitably large value for decoupling applications is formed in a trench defined by isolation structures such as recessed isolation or shallow trench isolation. The capacitor provides a contact area coextensive with an active area and can be reliably formed individually or in small numbers. Plate contacts are preferably made through implanted regions extending to or between dopant diffused regions forming a capacitor plate. The capacitor can be formed by a process subsequent to formation of isolation structures such that preferred soft mask processes can be used to form the isolation structures and process commonality and compatibility constraint are avoided while the capacitor forming processes can be performed in common with processing for other structures.
    • 在由诸如凹陷隔离或浅沟槽隔离的隔离结构限定的沟槽中形成用于去耦应用的适当大值的电容器的设计结构。 电容器提供与有源区域共同延伸的接触区域,并且可以单独或少量可靠地形成。 板触点优选通过延伸到形成电容器板的掺杂剂扩散区域之间或之间的注入区域制成。 可以通过形成隔离结构之后的过程形成电容器,使得可以使用优选的软掩模工艺来形成隔离结构和工艺共同性,并避免兼容性约束,同时电容器形成过程可以与其他处理共同执行 结构。
    • 26. 发明申请
    • Metal to Metal Low-K Antifuse
    • 金属与金属Low-K防腐剂
    • US20080157270A1
    • 2008-07-03
    • US11618757
    • 2006-12-30
    • Deok-kee KimAnil K. ChinthakindiSon Van NguyenKelly MaloneByeongju Park
    • Deok-kee KimAnil K. ChinthakindiSon Van NguyenKelly MaloneByeongju Park
    • H01L29/00
    • H01L23/5252H01L2924/0002H01L2924/00
    • The embodiments of the invention generally relate to fuse and anti-fuse structures and include a copper conductor positioned within a substrate and a metal cap on the first conductor. A low-k dielectric is on the substrate and the metal cap. A tantalum nitride resistor is on the dielectric, and the resistor is positioned above the metal cap such that an antifuse element region of the dielectric is positioned between the resistor and the metal cap. The antifuse element region of the dielectric is adapted to change resistance values by application of a voltage difference between the resistor and the copper conductor/metal cap. The antifuse element region has a first higher resistance (more closely matching an insulator) before application of the voltage and a second lower resistance (more closely matching a conductor) after application of such voltage. In one embodiment herein the voltage can be supplemented by heating through application of voltage through the first conductor which helps change the resistance of the antifuse element region.
    • 本发明的实施例一般涉及熔丝和反熔丝结构,并且包括定位在基板内的铜导体和第一导体上的金属盖。 低k电介质位于基板和金属盖上。 电介质上的氮化钽电阻器,电阻器位于金属帽的上方,使得电介质的反熔丝元件区域位于电阻器和金属帽之间。 电介质的反熔丝元件区域适于通过施加电阻器和铜导体/金属帽之间的电压差来改变电阻值。 在施加电压之后,反熔丝元件区域具有第一高电阻(更紧密地匹配绝缘体)和施加电压之后的第二较低电阻(更接近地匹配导体)。 在本文的一个实施例中,可以通过施加通过第一导体的电压进行加热来补充电压,这有助于改变反熔丝元件区域的电阻。
    • 29. 发明授权
    • Elastomeric CMOS based micro electromechanical varactor
    • 弹性体CMOS微机电变容二极管
    • US07265019B2
    • 2007-09-04
    • US10710286
    • 2004-06-30
    • Anil K. ChinthakindiHenri D. Schnurmann
    • Anil K. ChinthakindiHenri D. Schnurmann
    • H01L21/20H01L21/4763
    • H01G5/18H01G5/38
    • A micro electro-mechanical system (MEMS) variable capacitor is described, wherein movable comb electrodes of opposing polarity are fabricated simultaneously on the same substrate and are independently actuated. The electrodes are formed in an interdigitated fashion to maximize capacitance. The MEMS variable capacitor includes CMOS manufacturing steps in combination with elastomeric material selectively used in areas under greatest stress to ensure that the varactor will not fail as a result of stresses that may result in the separation of dielectric material from the conductive elements. The combination of a CMOS process with the conducting elastomeric material between vias increases the overall sidewall area, which provides increased capacitance density.
    • 描述了微机电系统(MEMS)可变电容器,其中相同极性的可移动梳状电极同时制造在相同的衬底上并且被独立地致动。 电极以交叉形式形成以最大化电容。 MEMS可变电容器包括与在最大应力区域选择性地使用的弹性体材料组合的CMOS制造步骤,以确保变容二极管不会由于可能导致介电材料与导电元件分离的应力而失效。 CMOS工艺与通孔之间的导电弹性体材料的组合增加了整个侧壁面积,这提供了增加的电容密度。