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    • 3. 发明申请
    • TUNABLE MEMS CAPACITOR
    • 可控MEMS电容器
    • US20100182731A1
    • 2010-07-22
    • US12663829
    • 2008-06-06
    • Peter G. SteenekenKlaus Reimann
    • Peter G. SteenekenKlaus Reimann
    • H01G7/06
    • H01G5/16H01G5/013H01G5/0136H01G7/06H01G2005/02H03J5/248
    • A MEMS tunable capacitor comprises first and second opposing capacitor electrodes (10,12), wherein the second capacitor electrode (12) is movable by a MEMS switch to vary the capacitor dielectric spacing, and thereby tune the capacitance. A tunable dielectric material (14) and a non-tunable dielectric material are in series between the first and second electrodes. The tunable dielectric material occupies a dimension gd of the electrode spacing, and the non-tunable dielectric material occupies a dimension g of the electrode spacing. A third electrode (20) faces the movable second electrode (12) for electrically controlling tunable dielectric material. A controller is adapted to vary the capacitor dielectric spacing for a first continuous range of adjustment of the capacitance of the MEMS capacitor, and to tune the dielectric material (14) for a second continuous range of adjustment of the capacitance of the MEMS capacitor, thereby to provide a continuous analogue range of adjustment including the first and second ranges. This arrangement provides independent control of the MEMS function and the dielectric tuning function, and enables a continuous adjustability.
    • MEMS可调谐电容器包括第一和第二相对电容器电极(10,12),其中第二电容器电极(12)可通过MEMS开关移动以改变电容器介电间距,从而调谐电容。 可调电介质材料(14)和不可调电介质材料串联在第一和第二电极之间。 可调电介质材料占电极间距的尺寸gd,不可调电介质材料占电极间距的尺寸g。 第三电极(20)面向可动第二电极(12),用于电控制可调电介质材料。 控制器适于改变用于MEMS电容器的电容的第一连续调节范围的电容器电介质间隔,并且调谐电介质材料(14)用于MEMS电容器的电容的第二连续调节范围,从而 以提供包括第一和第二范围的连续模拟调节范围。 这种布置提供了对MEMS功能和介质调谐功能的独立控制,并且实现了连续可调性。
    • 4. 发明授权
    • Tunable MEMS capacitor
    • 可调MEMS电容器
    • US08890543B2
    • 2014-11-18
    • US12663829
    • 2008-06-09
    • Peter G. SteenekenKlaus Reimann
    • Peter G. SteenekenKlaus Reimann
    • G01R27/26H01G5/16H03J5/24
    • H01G5/16H01G5/013H01G5/0136H01G7/06H01G2005/02H03J5/248
    • A MEMS tunable capacitor comprises first and second opposing capacitor electrodes, wherein the second capacitor electrode is movable by a MEMS switch to vary the capacitor dielectric spacing, and thereby tune the capacitance. A tunable dielectric material and a non-tunable dielectric material are in series between the first and second electrodes. The tunable dielectric material occupies a dimension gd of the electrode spacing, and the non-tunable dielectric material occupies a dimension g of the electrode spacing. A third electrode faces the movable second electrode for electrically controlling tunable dielectric material. A controller is adapted to vary the capacitor dielectric spacing for a first continuous range of adjustment of the capacitance of the MEMS capacitor, and to tune the dielectric material for a second continuous range of adjustment of the capacitance of the MEMS capacitor, thereby to provide a continuous analogue range of adjustment including the first and second ranges. This arrangement provides independent control of the MEMS function and the dielectric tuning function, and enables a continuous adjustability.
    • MEMS可调电容器包括第一和第二相对电容器电极,其中第二电容器电极可通过MEMS开关移动以改变电容器介电间距,从而调谐电容。 可调电介质材料和不可调电介质材料串联在第一和第二电极之间。 可调电介质材料占电极间距的尺寸gd,不可调电介质材料占电极间距的尺寸g。 第三电极面对可移动的第二电极,用于电控制可调电介质材料。 控制器适于改变用于MEMS电容器的电容的第一连续调节范围的电容器电介质间隔,并且调谐电介质材料用于MEMS电容器的电容的第二连续调节范围,从而提供 连续的模拟调整范围包括第一和第二范围。 这种布置提供了对MEMS功能和介质调谐功能的独立控制,并且实现了连续可调性。
    • 6. 发明授权
    • Arrangement of MEMS devices having series coupled capacitors
    • 具有串联耦合电容器的MEMS器件的布置
    • US08194386B2
    • 2012-06-05
    • US12158668
    • 2006-12-18
    • Peter G. SteenekenKevin R. BoyleAntonius J. M. De GraauwTheodoor G. S. M. RijksJozef T. M. Van Beek
    • Peter G. SteenekenKevin R. BoyleAntonius J. M. De GraauwTheodoor G. S. M. RijksJozef T. M. Van Beek
    • H01G5/00
    • H01G5/38
    • A tuneable capacitor arrangement for RF use has two series coupled MEMS variable capacitors (C1,C2;C4,C5,C6,C7), varied according to a control signal. The series coupling enables the capacitor to withstand a higher voltage since this is shared by the individual capacitors in a series coupled arrangement. An increase in size of electrodes for each capacitor is compensated by a reduction in size of the springs supporting movable electrodes. These springs can have a larger stiffness value since the capacitance is larger. This means shorter springs, which can also result in a reduction in problems of stiction, resistance, and slow switching. The capacitances have a fixed and a movable electrode, with the RF signal coupled to the fixed electrode to avoid the springs needing to carry an RF signal. This can reduce the problems of inductance and resistance in the springs.
    • 用于RF使用的可调谐电容器布置具有根据控制信号而变化的两个串联耦合的MEMS可变电容器(C1,C2; C4,C5,C6,C7)。 串联耦合使得电容器能够承受更高的电压,因为这是由串联耦合布置的各个电容器共享的。 通过减少支撑可动电极的弹簧的尺寸来补偿每个电容器的电极尺寸的增加。 这些弹簧可以具有较大的刚度值,因为电容较大。 这意味着较短的弹簧,这也可能导致静电,电阻和慢速切换的问题的减少。 电容具有固定和可移动电极,RF信号耦合到固定电极以避免弹簧需要携带RF信号。 这可以减少弹簧中电感和电阻的问题。
    • 8. 发明申请
    • Spring Structure For Mems Device
    • Mems设备的弹簧结构
    • US20080135385A1
    • 2008-06-12
    • US11718130
    • 2005-10-24
    • Peter G. SteenekenJozef Thomas Martinus Van BeekTheo Rijks
    • Peter G. SteenekenJozef Thomas Martinus Van BeekTheo Rijks
    • H01H57/00
    • H01H59/0009H01G5/16H01G5/18H01G5/40H01H1/24H01H2059/0063
    • A MEM device has a movable element (30), a pair of electrodes (e1, e2) to move the movable element, one electrode having an independently movable section (e3), resiliently coupled to the rest of the respective electrode to provide additional resistance to a pull in of the electrodes. This can enable a higher release voltage Vrel, and thus reduced risk of stiction. Also, a ratio of Vpi to Vrel can be reduced, and so a greater range of voltage is available for movement of the movable element. This enables faster switching. The area of the independently movable section is smaller than the rest of the electrode, and the spring constant of the resilient coupling is greater than that of the flexible support. Alternatively, the movable element can have a movable stamp section resiliently coupled and protruding towards the substrate to provide an additional resistance to pull in when it contacts the substrate.
    • MEM器件具有可移动元件(30),一对电极(e 1,e 2),用于移动可移动元件,一个电极具有可独立移动的部分(e 3),弹性地联接到相应电极的其余部分 提供对电极拉动的附加阻力。 这可以实现更高的释放电压Vrel,从而降低静电的风险。 此外,可以减小Vpi与Vrel的比率,因此更大的电压范围可用于可移动元件的移动。 这样可以实现更快的切换。 可独立移动部分的面积小于电极的其余部分,并且弹性联接件的弹簧常数大于柔性支撑件的弹簧常数。 或者,可移动元件可以具有弹性耦合并朝向基板突出的可移动的印模部分,以在其接触基板时提供额外的拉入阻力。
    • 10. 发明授权
    • Spring structure for MEMS device
    • 用于MEMS器件的弹簧结构
    • US08098120B2
    • 2012-01-17
    • US11718130
    • 2005-10-24
    • Peter G. SteenekenJozef Thomas Martinus Van BeekTheo Rijks
    • Peter G. SteenekenJozef Thomas Martinus Van BeekTheo Rijks
    • H01H51/22
    • H01H59/0009H01G5/16H01G5/18H01G5/40H01H1/24H01H2059/0063
    • A MEM device has a movable element (30), a pair of electrodes (e1, e2) to move the movable element, one electrode having an independently movable section (e3), resiliently coupled to the rest of the respective electrode to provide additional resistance to a pull in of the electrodes. This can enable a higher release voltage Vrel, and thus reduced risk of stiction. Also, a ratio of Vpi to Vrel can be reduced, and so a greater range of voltage is available for movement of the movable element. This enables faster switching. The area of the independently movable section is smaller than the rest of the electrode, and the spring constant of the resilient coupling is greater than that of the flexible support. Alternatively, the movable element can have a movable stamp section resiliently coupled and protruding towards the substrate to provide an additional resistance to pull in when it contacts the substrate.
    • MEM器件具有可移动元件(30),一对电极(e1,e2)以移动可移动元件,一个电极具有可独立移动的部分(e3),弹性地联接到相应电极的其余部分以提供额外的电阻 到电极的拉。 这可以实现更高的释放电压Vrel,从而降低静电的风险。 此外,可以减小Vpi与Vrel的比率,因此更大的电压范围可用于可移动元件的移动。 这样可以实现更快的切换。 可独立移动部分的面积小于电极的其余部分,并且弹性联接件的弹簧常数大于柔性支撑件的弹簧常数。 或者,可移动元件可以具有弹性耦合并朝向基板突出的可移动的印模部分,以在与基板接触时提供额外的拉入阻力。