会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 92. 发明授权
    • Method of promoting single crystal growth during melt growth of semiconductors
    • 在半导体熔融生长过程中促进单晶生长的方法
    • US08535440B1
    • 2013-09-17
    • US12758169
    • 2010-04-12
    • Ching-Hua Su
    • Ching-Hua Su
    • C30B11/14
    • C30B29/48C30B11/007
    • The method of the invention promotes single crystal growth during fabrication of melt growth semiconductors. A growth ampoule and its tip have a semiconductor source material placed therein. The growth ampoule is placed in a first thermal environment that raises the temperature of the semiconductor source material to its liquidus temperature. The growth ampoule is then transitioned to a second thermal environment that causes the semiconductor source material in the growth ampoule's tip to attain a temperature that is below the semiconductor source material's solidus temperature. The growth ampoule so-transitioned is then mechanically perturbed to induce single crystal growth at the growth ampoule's tip.
    • 本发明的方法在制造熔融生长半导体期间促进单晶生长。 生长安瓿和其尖端具有放置在其中的半导体源材料。 将生长安瓿放置在将半导体源材料的温度提高到其液相线温度的第一热环境中。 然后将生长安瓿转变成使得生长安瓿尖端中的半导体源材料达到低于半导体源材料的固相线温度的温度的第二热环境。 然后将如此转化的生长安瓿机械地扰动以在生长安瓿的尖端处诱导单晶生长。
    • 93. 发明授权
    • Method and apparatus for measuring near-angle scattering of mirror coatings
    • 用于测量镜面涂层的近角散射的方法和装置
    • US08502987B1
    • 2013-08-06
    • US13018672
    • 2011-02-01
    • Russell A. ChipmanBrian J. DaughertyStephen C. McClainSteven A. Macenka
    • Russell A. ChipmanBrian J. DaughertyStephen C. McClainSteven A. Macenka
    • G01B9/02
    • G01M11/005G01N21/474G01N2021/4735
    • Disclosed herein is a method of determining the near angle scattering of a sample reflective surface comprising the steps of: a) splitting a beam of light having a coherence length of greater than or equal to about 2 meters into a sample beam and a reference beam; b) frequency shifting both the sample beam and the reference beam to produce a fixed beat frequency between the sample beam and the reference beam; c) directing the sample beam through a focusing lens and onto the sample reflective surface, d) reflecting the sample beam from the sample reflective surface through a detection restriction disposed on a movable stage; e) recombining the sample beam with the reference beam to form a recombined beam, followed by f) directing the recombined beam to a detector and performing heterodyne analysis on the recombined beam to measure the near-angle scattering of the sample reflective surface, wherein the position of the detection restriction relative to the sample beam is varied to occlude at least a portion of the sample beam to measure the near-angle scattering of the sample reflective surface. An apparatus according to the above method is also disclosed.
    • 本文公开了一种确定样品反射表面的近角散射的方法,包括以下步骤:a)将具有大于或等于约2米的相干长度的光束分裂成样品光束和参考光束; b)对采样光束和参考光束进行频移,以在采样光束和参考光束之间产生固定拍频; c)将样品光束引导通过聚焦透镜和样品反射表面,d)通过设置在可移动台上的检测限制反射来自样品反射表面的样品光束; e)将样品光束与参考光束重新组合以形成重组光束,随后f)将重组光束引导到检测器并对重组光束执行外差分析以测量样品反射表面的近角散射,其中 检测限制相对于样品光束的位置被改变以阻挡至少一部分样品光束以测量样品反射表面的近角散射。 还公开了根据上述方法的装置。
    • 94. 发明授权
    • Biomarker sensors and method for multi-color imaging and processing of single-molecule life signatures
    • 生物标记传感器和多色成像和处理单分子生命特征的方法
    • US08492160B1
    • 2013-07-23
    • US12720103
    • 2010-03-09
    • Lawrence A. WadeCharles Patrick Collier
    • Lawrence A. WadeCharles Patrick Collier
    • G01N1/28C12N13/00
    • G01Q60/42G01Q80/00
    • The invention is a device including array of aciive regions for use in reacting one or more species in at least two of the active regions in a sequential process, e.g., sequential reactions. The device has a transparent substrate member, which has a surface region and a silane material overlying the surface region. A first active region overlies a first portion of the silane material. The first region has a first dimension of less than 1 micron in size and has first molecules capable of binding to the first portion of the silane material. A second active region overlies a second portion of the silane material. The second region has a second dimension of less than 1 micron in size, second molecules capable of binding to the second portion of the active region, and a spatial distance separates the first active region and the second active region.
    • 本发明是一种装置,其包括用于在顺序过程(例如顺序反应)中使至少两个活性区域中的一种或多种物质反应的活性区域的阵列。 该装置具有透明基板部件,该基板部件具有覆盖在表面区域上的表面区域和硅烷材料。 第一活性区域覆盖硅烷材料的第一部分。 第一区域具有尺寸小于1微米的第一尺寸,并且具有能够结合硅烷材料的第一部分的第一分子。 第二活性区域覆盖硅烷材料的第二部分。 第二区域具有尺寸小于1微米的第二尺寸,能够结合有源区域的第二部分的第二分子,以及空间距离分离第一有源区域和第二有源区域。
    • 95. 发明授权
    • Workspace safe operation of a force- or impedance-controlled robot
    • 强制或阻抗控制机器人的工作区安全操作
    • US08483877B2
    • 2013-07-09
    • US12875254
    • 2010-09-03
    • Muhammad E. AbdallahBrian HargraveJohn D. YamokoskiPhilip A. Strawser
    • Muhammad E. AbdallahBrian HargraveJohn D. YamokoskiPhilip A. Strawser
    • G05B19/18G05B15/00G05B19/00
    • B25J9/1633G05B2219/39505
    • A method of controlling a robotic manipulator of a force- or impedance-controlled robot within an unstructured workspace includes imposing a saturation limit on a static force applied by the manipulator to its surrounding environment, and may include determining a contact force between the manipulator and an object in the unstructured workspace, and executing a dynamic reflex when the contact force exceeds a threshold to thereby alleviate an inertial impulse not addressed by the saturation limited static force. The method may include calculating a required reflex torque to be imparted by a joint actuator to a robotic joint. A robotic system includes a robotic manipulator having an unstructured workspace and a controller that is electrically connected to the manipulator, and which controls the manipulator using force- or impedance-based commands. The controller, which is also disclosed herein, automatically imposes the saturation limit and may execute the dynamic reflex noted above.
    • 控制非结构化工作区内的力或阻抗控制的机器人的机器人操纵器的方法包括对由机械手施加到其周围环境的静力施加饱和极限,并且可以包括确定操纵器和操纵器之间的接触力 对象在非结构化工作空间中,并且当接触力超过阈值时执行动态反射,从而减轻饱和受限静态力未解决的惯性冲击。 该方法可以包括计算由关节致动器赋予机器人接头所需的反射扭矩。 机器人系统包括具有非结构化工作空间的机器人操纵器和电连接到操纵器的控制器,并且其使用基于力或基于阻抗的命令来控制操纵器。 这里也公开的控制器自动施加饱和极限并且可以执行上述动态反射。
    • 99. 发明授权
    • Embedded diagnostic, prognostic, and health management system and method for a humanoid robot
    • 人形机器人的嵌入式诊断,预测和健康管理系统和方法
    • US08369992B2
    • 2013-02-05
    • US12564083
    • 2009-09-22
    • Leandro G. BarajasAdam M SandersMatthew J ReilandPhilip A Strawser
    • Leandro G. BarajasAdam M SandersMatthew J ReilandPhilip A Strawser
    • G05B19/00
    • B25J9/1674G05B2219/39251G05B2219/40264
    • A robotic system includes a humanoid robot with multiple compliant joints, each moveable using one or more of the actuators, and having sensors for measuring control and feedback data. A distributed controller controls the joints and other integrated system components over multiple high-speed communication networks. Diagnostic, prognostic, and health management (DPHM) modules are embedded within the robot at the various control levels. Each DPHM module measures, controls, and records DPHM data for the respective control level/connected device in a location that is accessible over the networks or via an external device. A method of controlling the robot includes embedding a plurality of the DPHM modules within multiple control levels of the distributed controller, using the DPHM modules to measure DPHM data within each of the control levels, and recording the DPHM data in a location that is accessible over at least one of the high-speed communication networks.
    • 机器人系统包括具有多个柔性接头的类人形机器人,每个机器人可以使用一个或多个致动器进行移动,并且具有用于测量控制和反馈数据的传感器。 分布式控制器通过多个高速通信网络控制关节和其他集成系统组件。 诊断,预后和健康管理(DPHM)模块嵌入机器人内的各种控制级别。 每个DPHM模块在可通过网络或外部设备访问的位置测量,控制和记录相应控制级/连接设备的DPHM数据。 一种控制机器人的方法包括使用DPHM模块在每个控制级别内测量DPHM数据,并将DPHM数据记录在可访问的位置上,将多个DPHM模块嵌入分布式控制器的多个控制级别内 至少一个高速通信网络。
    • 100. 发明授权
    • Optical multi-species gas monitoring sensor and system
    • 光学多种气体监测传感器和系统
    • US08330961B1
    • 2012-12-11
    • US12837173
    • 2010-07-15
    • Kurt A. PolzinValentin Korman
    • Kurt A. PolzinValentin Korman
    • G01B9/02
    • G01J1/12G01J3/45G01J5/0014G01N21/31G01N21/45G01N2021/3185G01N2021/451
    • The system includes at least one light source generating light energy having a corresponding wavelength. The system's sensor is based on an optical interferometer that receives light energy from each light source. The interferometer includes a free-space optical path disposed in an environment of interest. The system's sensor includes an optical device disposed in the optical path that causes light energy of a first selected wavelength to continue traversing the optical path whereas light energy of at least one second selected wavelength is directed away from the optical path. The interferometer generates an interference between the light energy of the first selected wavelength so-traversing the optical path with the light energy at the corresponding wavelength incident on the optical interferometer. A first optical detector detects the interference. At least one second detector detects the light energy at the at least one second selected wavelength directed away from the optical path.
    • 该系统包括产生具有相应波长的光能的至少一个光源。 该系统的传感器基于从每个光源接收光能的光学干涉仪。 干涉仪包括设置在感兴趣的环境中的自由空间光路。 系统的传感器包括设置在光路中的光学装置,其使得第一选定波长的光能继续穿过光路,而至少一个第二选定波长的光能被指向远离光路。 所述干涉仪在所述第一选定波长的光能之间产生干涉,所述光能穿过所述光路,并且在入射到所述光学干涉仪上的相应波长处的光能量产生干涉。 第一光检测器检测干扰。 至少一个第二检测器检测到远离光路的至少一个第二选定波长的光能。