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    • 82. 发明授权
    • Diaphragm activated micro-electromechanical switch
    • 隔膜激活微机电开关
    • US07256670B2
    • 2007-08-14
    • US10523310
    • 2002-08-26
    • Christopher V. JahnesJennifer L. LundKatherine L. SaengerRichard P. Volant
    • Christopher V. JahnesJennifer L. LundKatherine L. SaengerRichard P. Volant
    • H01H51/22
    • H01H59/0009
    • A micro-electromechanical (MEM) RF switch provided with a deflectable membrane (60) activates a switch contact or plunger (40). The membrane incorporates interdigitated metal electrodes (70) which cause a stress gradient in the membrane when activated by way of a DC electric field. The stress gradient results in a predictable bending or displacement of the membrane (60), and is used to mechanically displace the switch contact (30). An RF gap area (25) located within the cavity (250) is totally segregated from the gaps (71) between the interdigitated metal electrodes (70). The membrane is electrostatically displaced in two opposing directions, thereby aiding to activate and deactivate the switch. The micro-electromechanical switch includes: a cavity (250); at least one conductive path (20) integral to a first surface bordering the cavity; a flexible membrane (60) parallel to the first surface bordering the cavity (250), the flexible membrane (60) having a plurality of actuating electrodes (70); and a plunger (40) attached to the flexible membrane (60) in a direction away from the actuating electrodes (70), the plunger (40) having a conductive surface that makes electric contact with the conductive paths, opening and closing the switch.
    • 设置有可偏转膜(60)的微机电(MEM)RF开关激活开关触点或柱塞(40)。 膜包含交叉指向的金属电极(70),其通过DC电场激活时引起膜中的应力梯度。 应力梯度导致膜(60)的可预测的弯曲或位移,并且用于机械地移动开关触点(30)。 位于空腔(250)内的RF间隙区域(25)与交叉指向的金属电极(70)之间的间隙(71)完全分离。 膜在两个相反的方向上静电位移,从而有助于启动和停用开关。 微机电开关包括:空腔(250); 至少一个导电通路(20),与所述空腔相邻的第一表面成一体; 柔性膜(60),其平行于与所述腔(250)接壤的所述第一表面,所述柔性膜(60)具有多个致动电极(70); 以及沿远离所述致动电极(70)的方向附接到所述柔性膜(60)的柱塞(40),所述柱塞(40)具有导电表面,所述导电表面与所述导电路径电接触,所述开关闭合。
    • 85. 发明授权
    • Isolated sidewall capacitor with dual dielectric
    • 隔离侧壁电容器,双电介质
    • US5585998A
    • 1996-12-17
    • US577166
    • 1995-12-22
    • David E. KoteckiWilliam H. MaKatherine L. Saenger
    • David E. KoteckiWilliam H. MaKatherine L. Saenger
    • H01L21/02H01L21/8242H01L27/115H01G4/06H01G4/008H01G7/00
    • H01L27/11502H01L27/10852H01L28/55Y10T29/435
    • An isolated sidewall capacitor with dual dielectric, which includes two capacitors. The first capacitor includes a first conductor on top of a substrate, a first non-conductor on top of and substantially in register with the first conductor, the first conductor and first non-conductor having a first opening formed therein, a non-conductive sidewall spacer formed in the first opening, the non-conductive sidewall spacer having a second opening formed therein, and a second conductor formed in the second opening. The second capacitor includes the second conductor, a first non-conductor disposed over the top portion of the second conductor, a third conductor disposed over the first non-conductor, and the third conductor electrically connected to the first conductor. A second non-conductor isolates the first conductor from the second conductor.
    • 具有双电介质的隔离侧壁电容器,其包括两个电容器。 所述第一电容器包括位于衬底顶部的第一导体,位于所述第一导体顶部并基本上与所述第一导体对准的第一非导体,所述第一导体和第一非导体具有形成在其中的第一开口,非导电侧壁 在第一开口中形成的间隔件,其中形成有第二开口的非导电侧壁隔离件和形成在第二开口中的第二导体。 第二电容器包括第二导体,设置在第二导体的顶部上的第一非导体,设置在第一非导体上的第三导体,以及电连接到第一导体的第三导体。 第二非导体将第一导体与第二导体隔离。
    • 86. 发明申请
    • HYBRID ORIENTATION SEMICONDUCTOR STRUCTURE WITH REDUCED BOUNDARY DEFECTS AND METHOD OF FORMING SAME
    • 具有减少边界缺陷的混合方向半导体结构及其形成方法
    • US20110086473A1
    • 2011-04-14
    • US12972771
    • 2010-12-20
    • Haizhou YinJohn A. OttKatherine L. SaengerChun-Yung Sung
    • Haizhou YinJohn A. OttKatherine L. SaengerChun-Yung Sung
    • H01L21/8238H01L21/265
    • H01L21/02694H01L21/02532H01L21/76264Y10S438/973
    • The present invention provides an improved amorphization/templated recrystallization (ATR) method for forming hybrid orientation substrates and semiconductor device structures. A direct-silicon-bonded (DSB) silicon layer having a (011) surface crystal orientation is bonded to a base silicon substrate having a (001) surface crystal orientation to form a DSB wafer in which the in-plane direction of the (011) DSB layer is aligned with an in-plane direction of the (001) base substrate. Selected regions of the DSB layer are amorphized down to the base substrate to form amorphized regions aligned with the mutually orthogonal in-plane directions of the (001) base substrate, followed by recrystallization using the base substrate as a template. This optimal arrangement of DSB layer, base substrate, and amorphized region orientation provides a near-vertical, essentially defect-free boundary between original-orientation and changed-orientation silicon regions, thus enabling complete boundary region removal with smaller footprint shallow trench isolation than possible with ATR methods not so optimized.
    • 本发明提供用于形成混合取向基板和半导体器件结构的改进的非晶化/模板重结晶(ATR)方法。 具有(011)表面晶体取向的直接硅键合(DSB)硅层被结合到具有(001)表面晶体取向的基底硅基板上,以形成其中面内<110>方向的DSB晶片 (011)DSB层与(001)基底的面内<110>方向对准。 DSB层的选定区域被非晶化到底部基板以形成与(001)基底基板的相互正交的平面内100°方向对准的非晶形区域,然后使用基底基板作为模板进行重结晶。 DSB层,基底和非晶区域取向的这种最佳布置提供了原始取向和改变取向硅区域之间近似垂直的,基本上无缺陷的边界,因此可以实现完整的边界区域移除,并且可以实现更小的占地面积的浅沟槽隔离 ATR方法没有如此优化。