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    • 1. 发明授权
    • Microelectromechanical oscillator and method of operating same
    • 微机电振荡器及其操作方法
    • US07369004B2
    • 2008-05-06
    • US11493704
    • 2006-07-26
    • Aaron PartridgeBernhard E. BoserCrist Y. LuMarkus LutzPaul Merritt Hagelin
    • Aaron PartridgeBernhard E. BoserCrist Y. LuMarkus LutzPaul Merritt Hagelin
    • H03B5/30H03B5/40
    • H03L1/022G01K7/32H03B5/04H03B5/30H03H9/02448H03H9/2405H03H2009/02527
    • There are many inventions described and illustrated herein. In one aspect, the present inventions relate to a temperature measurement system comprising (1) a first microelectromechanical resonator to generate a first output signal having a frequency that varies with operating temperature, wherein the first microelectromechanical resonator includes a frequency function of temperature; (2) a second microelectromechanical resonator to generate a second output signal having a frequency that varies with operating temperature, wherein the second microelectromechanical resonator includes a frequency function of temperature; and (3) frequency division circuitry, coupled to the first and second microelectromechanical resonators, to determine data which is representative of the operating temperature of the first and/or second microelectromechanical resonator using (i) data which is representative of the frequency of the first output signal and (ii) data which is representative of the frequency of the second output signal. The frequency division circuitry may include circuitry to divide the frequency of the first output signal by the frequency of the second output signal (whether in digital or analog domain).
    • 这里描述和说明了许多发明。 一方面,本发明涉及一种温度测量系统,包括:(1)第一微机电谐振器,用于产生具有随工作温度变化的频率的第一输出信号,其中第一微机电谐振器包括温度的频率函数; (2)第二微机电谐振器,以产生具有随着工作温度变化的频率的第二输出信号,其中所述第二微机电谐振器包括温度的频率函数; 以及(3)耦合到第一和第二微机电谐振器的分频电路,以使用(i)表示第一和/或第二微机电谐振器的频率的数据来确定代表第一和/或第二微机电谐振器的工作温度的数据 输出信号和(ii)表示第二输出信号的频率的数据。 分频电路可以包括将第一输出信号的频率除以第二输出信号的频率(无论是在数字还是模拟域)的电路。
    • 2. 发明申请
    • Microelectromechanical Oscillator and method of operating same
    • 微机电振荡器及其操作方法
    • US20070290764A1
    • 2007-12-20
    • US11493704
    • 2006-07-26
    • Aaron PartridgeBernhard E. BoserCrist Y. LuMarkus LutzPaul Merritt Hagelin
    • Aaron PartridgeBernhard E. BoserCrist Y. LuMarkus LutzPaul Merritt Hagelin
    • H03L1/00H03B5/30
    • H03L1/022G01K7/32H03B5/04H03B5/30H03H9/02448H03H9/2405H03H2009/02527
    • There are many inventions described and illustrated herein. In one aspect, the present inventions relate to a temperature measurement system comprising (1) a first microelectromechanical resonator to generate a first output signal having a frequency that varies with operating temperature, wherein the first microelectromechanical resonator includes a frequency function of temperature; (2) a second microelectromechanical resonator to generate a second output signal having a frequency that varies with operating temperature, wherein the second microelectromechanical resonator includes a frequency function of temperature; and (3) frequency division circuitry, coupled to the first and second microelectromechanical resonators, to determine data which is representative of the operating temperature of the first and/or second microelectromechanical resonator using (i) data which is representative of the frequency of the first output signal and (ii) data which is representative of the frequency of the second output signal. The frequency division circuitry may include circuitry to divide the frequency of the first output signal by the frequency of the second output signal (whether in digital or analog domain).
    • 这里描述和说明了许多发明。 一方面,本发明涉及一种温度测量系统,包括:(1)第一微机电谐振器,用于产生具有随工作温度变化的频率的第一输出信号,其中第一微机电谐振器包括温度的频率函数; (2)第二微机电谐振器,以产生具有随着工作温度变化的频率的第二输出信号,其中所述第二微机电谐振器包括温度的频率函数; 以及(3)耦合到第一和第二微机电谐振器的分频电路,以使用(i)表示第一和/或第二微机电谐振器的频率的数据来确定代表第一和/或第二微机电谐振器的工作温度的数据 输出信号和(ii)表示第二输出信号的频率的数据。 分频电路可以包括将第一输出信号的频率除以第二输出信号的频率(无论是在数字还是模拟域)的电路。
    • 5. 发明授权
    • Optical mirror system with multi-axis rotational control
    • US06598985B2
    • 2003-07-29
    • US10122885
    • 2002-04-15
    • Paul Merritt HagelinJohn J. Fling
    • Paul Merritt HagelinJohn J. Fling
    • G02B7182
    • G02B26/0841
    • An optical mirror system with multi-axis rotational control is disclosed. The mirror system includes an optical surface assembly, and at least one leg assembly coupled to the optical surface assembly. The at least one leg assembly supports the optical surface above a substrate. A system and method in accordance with the present invention can operate with many different actuator mechanisms, including but not limited to, electrostatic, thermal, piezoelectric, and magnetic. An optical mirror system in accordance with the present invention accommodates large mirrors and rotation angles. Scanning mirrors can be made with this technique using standard surface-micromachining processes, or a deep RIE etch process. A device in accordance with the present invention meets the requirements for a directly scalable, high port count optical switch, utilizing a two mirror per optical I/O port configuration. An optical mirror in accordance with the present invention can be utilized in, but is not limited to, the following applications: optical add-drop multiplexers, wavelength routers, free-space optical interconnects, chip-level optical I/O, optical scanning displays, optical scanner (bar-codes, micro cameras), optical storage read/write heads, laser printers, medical replacement for glasses (incorporated with adaptive optics), medical diagnostic equipment, optical scanning for security applications.
    • 6. 发明授权
    • Modular approach to substrate population in a fiber optic cross connect
    • 光纤交叉连接中基质群的模块化方法
    • US06430330B1
    • 2002-08-06
    • US09549799
    • 2000-04-14
    • Paul Merritt Hagelin
    • Paul Merritt Hagelin
    • G02B626
    • G02B6/3512G02B6/3556G02B6/356G02B6/3582H04Q11/0003H04Q2011/0024H04Q2011/0026
    • The present invention provides a fiber optic cross connect (OXC) package which utilizes a modular approach to substrate population. The OXC includes a slab, where the slab comprises a first surface and a second surface, and a micromirror array coupled to the second surface of the slab, where the micromirror array comprises a plurality of clusters, where each of the plurality of clusters includes at least one micromirror of the micromirror array. In the preferred embodiment, the slab is a substrate. Chips containing micromirrors are fabricated in clusters so that groups of micromirrors can be separately placed onto the substrate. This provides flexibility in how the substrate is populated. In the preferred embodiment, the clusters are in the form of strips. Only strips with known good micromirrors are placed onto the substrate, thus improving the device yield. Also, if any of the micromirrors become damaged after placement, its chip may be replaced without disturbing the other chips. Using a substrate through which light may travel in combination with a modular approach to substrate population allows for a single substrate switch with a higher device yield and scalability. Integrated circuits may be placed on the same substrate as the micromirrors, and the complexity of the assembly process is reduced.
    • 本发明提供一种光纤交叉连接(OXC)封装,其利用对基板群的模块化方法。 OXC包括板坯,其中板坯包括第一表面和第二表面,以及耦合到板的第二表面的微镜阵列,其中微镜阵列包括多个簇,其中多个簇中的每一个包括在 至少一个微镜阵列的微镜。 在优选实施例中,板坯是基板。 包含微反射镜的芯片以簇形成,使得可以将一组微镜分离地放置在基底上。 这提供了如何填充衬底的灵活性。 在优选实施例中,簇是条带的形式。 只有具有已知的良好微镜的条带放置在基板上,从而提高了器件的产量。 此外,如果任何一个微镜在放置之后变得损坏,则其芯片可以被更换而不会干扰其他芯片。 使用光可以与基板群体的模块化方法一起行进的基板允许具有更高的器件产量和可扩展性的单个衬底开关。 集成电路可以放置在与微反射镜相同的衬底上,并且组装过程的复杂性降低。
    • 7. 发明授权
    • Serrated MEMS resonators
    • 锯齿型MEMS谐振器
    • US07545239B2
    • 2009-06-09
    • US11613910
    • 2006-12-20
    • Paul Merritt HagelinDavid Raymond Pedersen
    • Paul Merritt HagelinDavid Raymond Pedersen
    • H03H9/125H03H9/24H03B5/30H03H9/46
    • H03H9/02259H03H9/02244H03H9/02433H03H9/2405H03H9/2484H03H2009/0248H03H2009/02496
    • One embodiment of the present invention sets forth a serrated tooth actuator for driving MEMS resonator structures. The actuator includes a fixed drive electrode having a serrated tooth surface opposing a MEMS resonator arm also having a serrated tooth surface, where the MEMS resonator arm is configured to rotate towards the drive electrode when an AC signal is applied to the drive electrode. Such a configuration permits higher amplitude signals to be applied to the drive electrode without the performance of the actuator being compromised by nonlinear effects. In addition, the serrated tooth configuration enables a sufficiently high actuating force to be maintained even though the distance traversed by the MEMS resonator arm during operation is quite small. Further, the serrated configuration allows a MEMS resonator system to withstand larger fluctuations in voltage and larger substrate stresses without experiencing a substantial shift in resonant frequency.
    • 本发明的一个实施例提出了用于驱动MEMS谐振器结构的锯齿状致动器。 致动器包括固定的驱动电极,其具有与具有锯齿状齿表面的MEMS谐振器臂相对的锯齿状齿表面,其中,当将CCP信号施加到驱动电极时,MEMS谐振臂被配置为朝向驱动电极旋转。 这种配置允许将更高幅度的信号施加到驱动电极,而不会使致动器的性能受到非线性效应的影响。 此外,即使在操作期间由MEMS谐振器臂穿过的距离相当小,锯齿形齿构造也能够保持足够高的致动力。 此外,锯齿形配置允许MEMS谐振器系统承受较大的电压波动和较大的衬底应力,而不会发生谐振频率的实质性偏移。
    • 9. 发明授权
    • Fiber optic cross connect with uniform redirection length and folding of light beams
    • 光纤交叉连接具有均匀的重定向长度和折射光束
    • US06347167B1
    • 2002-02-12
    • US09549388
    • 2000-04-14
    • Paul Merritt Hagelin
    • Paul Merritt Hagelin
    • G02B626
    • H04Q11/0005H04Q2011/0024H04Q2011/0026H04Q2011/0039H04Q2011/0049H04Q2011/0058
    • The present invention provides a method and an optical cross connect (OXC) package which minimizes optical loss and crosstalk while also reducing the size of the package. The method includes directing a light beam from a first collimator of a plurality of collimators to a first micromirror of a plurality of micromirrors; folding the light beam from the first micromirror onto a second micromirror of the plurality of micromirrors; and directing the light beam from the second micromirror to a second collimator of the plurality of collimators, wherein a uniform redirection length is provided between each of the plurality of collimators and each of the plurality of micromirror. In the preferred embodiment, the OXC package comprises a first cap with reflecting surfaces and a second cap. With the first cap, only a short distance is used in redirecting the light. This allows for the major portion of the light to be available for scanning. With the second cap, the light beam is folded during the switching operation, resulting in a smaller switch package.
    • 本发明提供了一种方法和光交叉连接(OXC)封装,其最小化了光损耗和串扰,同时也减小了封装的尺寸。 该方法包括将来自多个准直仪的第一准直仪的光束引导到多个微镜的第一微反射镜; 将来自第一微镜的光束折叠到多个微镜的第二微镜上; 以及将来自所述第二微镜的光束引导到所述多个准直器的第二准直器,其中在所述多个准直器和所述多个微反射镜中的每一个之间设置均匀的重定向长度。 在优选实施例中,OXC封装包括具有反射表面的第一盖和第二盖。 使用第一个帽子,只有很短的距离用于重定向灯。 这允许主要部分的光可用于扫描。 在第二个盖子的开关操作期间,光束被折叠,导致开关封装更小。
    • 10. 发明申请
    • Serrated MEMS Resonators
    • 锯齿型MEMS谐振器
    • US20080150390A1
    • 2008-06-26
    • US11929438
    • 2007-10-30
    • Paul Merritt HagelinDavid Raymond Pedersen
    • Paul Merritt HagelinDavid Raymond Pedersen
    • H02N11/00
    • H02N1/008H03H9/02275H03H9/2468H03H2009/02496
    • One embodiment of the present invention sets forth a serrated tooth actuator for driving MEMS resonator structures. The actuator includes a fixed drive electrode having a serrated tooth surface opposing a MEMS resonator arm also having a serrated tooth surface, where the MEMS resonator arm is configured to rotate towards the drive electrode when an AC signal is applied to the drive electrode. Such a configuration permits higher amplitude signals to be applied to the drive electrode without the performance of the actuator being compromised by nonlinear effects. In addition, the serrated tooth configuration enables a sufficiently high actuating force to be maintained even though the distance traversed by the MEMS resonator arm during operation is quite small. Further, the serrated configuration allows a MEMS resonator system to withstand larger fluctuations in voltage and larger substrate stresses without experiencing a substantial shift in resonant frequency.
    • 本发明的一个实施例提出了用于驱动MEMS谐振器结构的锯齿状致动器。 致动器包括固定的驱动电极,其具有与具有锯齿状齿表面的MEMS谐振器臂相对的锯齿状齿表面,其中,当将CCP信号施加到驱动电极时,MEMS谐振臂被配置为朝向驱动电极旋转。 这种配置允许将更高幅度的信号施加到驱动电极,而不会使致动器的性能受到非线性效应的影响。 此外,即使在操作期间由MEMS谐振器臂穿过的距离相当小,锯齿形齿构造也能够保持足够高的致动力。 此外,锯齿形配置允许MEMS谐振器系统承受较大的电压波动和较大的衬底应力,而不会发生谐振频率的实质性偏移。