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    • 43. 发明授权
    • Microphones for an implantable hearing aid
    • 可植入助听器的麦克风
    • US5881158A
    • 1999-03-09
    • US862874
    • 1997-05-23
    • S. George LesinskiArmand P. Neukermans
    • S. George LesinskiArmand P. Neukermans
    • A61F11/04A61N1/36H04R19/01H04R25/00
    • H04R25/402H04R19/016H04R25/405H04R25/606H04R2225/61H04R2225/67
    • A implantable sealed microphone (50) includes a diaphragm (52) having a thin central region (54) surrounded by a thicker rim (56). One side of sheet electret material (72) is bonded to the diaphragm (52) while the other side contacts a roughened plate (82). The rim (56) is bonded to a housing (112) thereby hermetically enclosing the electret (72) and the plate (82). The microphone (50) also includes an electrical connector (94) that couples both the plate (82) and the electret (72) to an input of an amplifier (30) included in an implantable hearing aid system (10). Preferably, the microphone (50) is incorporated into a sealed electronics module (100) together with the amplifier (30) and an energy storage device such as a battery that energizes operation of the implantable hearing aid system (10). In such a configuration, the microphone's diaphragm (52) forms a surface of the electronics module's housing (112). An electrical connector (134) couples an output signal from the amplifier (30) to a microactuator (32) of the implantable hearing aid system (10).
    • 可植入式密封麦克风(50)包括具有由较厚边缘(56)围绕的薄中心区域(54)的隔膜(52)。 片状驻极体材料(72)的一面接合到隔膜(52),而另一侧接触粗糙板(82)。 轮缘(56)结合到壳体(112)上,从而气密地包围驻极体(72)和板(82)。 麦克风(50)还包括将板(82)和驻极体(72)耦合到包括在可植入助听器系统(10)中的放大器(30)的输入端的电连接器(94)。 优选地,麦克风(50)与放大器(30)一起并入密封电子模块(100)中,以及诸如电池的能量存储装置,其激励可植入助听器系统(10)的操作。 在这种配置中,麦克风的隔膜(52)形成电子模块的壳体(112)的表面。 电连接器(134)将来自放大器(30)的输出信号耦合到可植入助听器系统(10)的微致动器(32)。
    • 45. 发明授权
    • Micromachined torsional scanner
    • 微加工扭转扫描仪
    • US5629790A
    • 1997-05-13
    • US139397
    • 1993-10-18
    • Armand P. NeukermansTimothy G. Slater
    • Armand P. NeukermansTimothy G. Slater
    • G01C19/56G01P9/04G02B26/08G02B26/10
    • G02B26/101G02B26/0841G02B26/085G02B26/0858
    • A frequency-locked torsional scanner of the type having a micromachined mirror formed on a surface of a silicon wafer section supported within a larger wafer section by a pair of opposed torsion bars. The principal vibrational frequency of the mirror is selected to be at least 20% higher than other modes of vibration. To prevent breakage, the torsion bars are hardened by conversion of at least a surface layer to silicon carbide or nitride. A pair of scanners with orthogonal torsion bars may be mounted in a vacuum enclosure for two-dimensional scanning at different rates suitable for television display. In alternate embodiments, a detector and a scanner may be built on a plate on the same supported wafer section or two scanners may be independently supported or one scanner and one detector may be independently supported as two plates. The mirror may be driven electrostatically, magnetically, or by both methods.
    • 一种具有微加工反射镜的锁模扭转扫描器,其形成在通过一对相对的扭杆支撑在较大晶片部分内的硅晶片部分的表面上。 反射镜的主要振动频率选择为比其他振动模式高至少20%。 为了防止断裂,通过至少将表面层转化为碳化硅或氮化物来使扭杆硬化。 具有正交扭杆的一对扫描器可以安装在真空外壳中,用于以适合于电视显示的不同速率的二维扫描。 在替代实施例中,可以将检测器和扫描仪构建在相同的受支撑晶片部分上的板上,或者可以独立地支撑两个扫描器,或者一个扫描器和一个检测器可以独立地支撑为两个板。 反射镜可以静电,磁性或两种方法驱动。
    • 46. 发明授权
    • Thin film thickness monitor
    • 薄膜厚度监视器
    • US5241366A
    • 1993-08-31
    • US846207
    • 1992-03-04
    • Christopher F. BevisArmand P. NeukermansStanley E. StokowskiRalph C. WolfMatthew B. Lutzker
    • Christopher F. BevisArmand P. NeukermansStanley E. StokowskiRalph C. WolfMatthew B. Lutzker
    • G01B11/06
    • G01B11/0625
    • A thin film thickness monitor using successive reflection of a polychromatic light beam off of reference thin film of variable optical thickness and a sample thin film whose thickness is to be determined, in which a monochromatic light source is used beforehand to first determine the actual optical thickness of the reference thin film at each relative position of the beam and reference thin film. In one embodiment, the ratio S/R of detected light intensity S from the sample thin film and detected light intensity R from the reference thin film is found for each relative position and the position at which the ratio is a maximum is determined. In another embodiment, this ratio is corrected by a corresponding ratio S.sub.1 /R.sub.1 derived from a bare wafer substrate. The sample can then be located behind additional optical surfaces, such as a vacuum port without causing substantial errors. In yet a third embodiment, the detected light intensity R2 from two reflections off of the reference thin film is used in place of intensity R, allowing very thin films to be accurately measured.
    • 一种薄膜厚度监视器,其使用从可变光学厚度的参考薄膜的多色光束的连续反射以及要确定其厚度的样品薄膜,其中预先使用单色光源以首先确定实际的光学厚度 的参考薄膜在光束和参考薄膜的每个相对位置。 在一个实施例中,对于每个相对位置找到来自样品薄膜的检测光强度S的比S / R和来自参考薄膜的检测光强度R,并且确定该比率是最大值的位置。 在另一个实施例中,该比率由从裸晶片衬底衍生的对应比率S1 / R1进行校正。 然后样品可以位于附加的光学表面之后,例如真空端口,而不会引起实质的错误。 在第三实施例中,使用来自参考薄膜的两个反射的检测光强度R2代替强度R,从而允许精确测量非常薄的膜。
    • 48. 发明授权
    • Particle detection method including comparison between sequential scans
    • 粒子检测方法,包括顺序扫描的比较
    • US4766324A
    • 1988-08-23
    • US83695
    • 1987-08-07
    • Soheil SaadatJiri PecenArmand P. NeukermansGeorge J. Kren
    • Soheil SaadatJiri PecenArmand P. NeukermansGeorge J. Kren
    • G01N21/88G01N15/14G01N21/94G01N21/956H01L21/66G01N21/00
    • G01N21/94G01N15/1468G01N2021/8867G01N2201/1087
    • A particle detection method for matching particles detected in two scans of a surface taken at different times in which particles having a light scattering intensity above a collection threshold are first detected and the measured position and scattering intensity therefor stored in a computer memory. Corresponding first and second measured positions from the respective first and second scans are determined by forming a triangle from selected first detected particles and finding those second detected particles which form a variant triangle with matching perimeter and area. From these matching first and second particles a transformation is found for mapping first measured positions to corresponding second positions and vice versa. Areas around corresponding positions of particles having a scattering intensity above a display threshold are examined for matching particles. If not found, the area is reexamined at a reduced threshold. Matching particles are considered to be the same, while unmatched particles are considered to be either added or removed. The method provides an accurate count of particles for process contamination analysis.
    • 一种颗粒检测方法,用于匹配在不同时间拍摄的表面的两次扫描中检测到的颗粒,其中首先检测具有高于采集阈值的光散射强度的颗粒,并将其测量的位置和散射强度存储在计算机存储器中。 通过从所选择的第一检测到的粒子形成三角形并找到形成具有匹配的周长和面积的变形三角形的那些第二检测到的粒子来确定来自相应的第一和第二扫描的相应的第一和第二测量位置。 从这些匹配的第一和第二颗粒中,找到用于将第一测量位置映射到对应的第二位置的变换,反之亦然。 检查具有高于显示阈值的散射强度的颗粒的相应位置周围的区域以匹配颗粒。 如果没有找到,则会以降低的阈值重新检查该区域。 认为匹配的颗粒是相同的,而不匹配的颗粒被认为是添加或去除。 该方法提供了用于过程污染分析的颗粒的精确计数。