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    • 2. 发明申请
    • STRUCTURE OF FABRIC AND ELECTRONIC COMPONENTS
    • 织物和电子组件的结构
    • US20090025819A1
    • 2009-01-29
    • US12279224
    • 2007-02-12
    • Alexander Ulrich Douglas
    • Alexander Ulrich Douglas
    • D03D1/00D03D23/00
    • A structure comprises a fabric (28) with electronic components (10, 12) mounted thereon. The fabric (28) comprises a warp and weft of fibres (30, 32), each of the warp and weft comprising a combination of electrically conducting fibres (30) and electrically non-conducting fibres (32). The electronic components (10, 12) are connected to at least one electrically conducting fibre (30). The electronic components, in a preferred embodiment comprise a plurality of end of line elements (10) and a corresponding plurality of groups of line elements (12), each group of line elements (12) connected to an end of line element (10).
    • 一种结构包括其上安装有电子部件(10,12)的织物(28)。 织物(28)包括纤维的经纱和纬纱(30,32),每个经线和纬纱包括导电纤维(30)和非导电纤维(32)的组合。 电子部件(10,12)连接到至少一个导电纤维(30)。 在优选实施例中,电子部件包括多个线路元件端部(10)和相应的多组线路元件组(12),每组线路元件(12)连接到线路元件(10)的端部, 。
    • 3. 发明授权
    • Active discharge of electrode
    • 电极主动放电
    • US08400169B2
    • 2013-03-19
    • US12599063
    • 2008-05-07
    • Alexander Ulrich Douglas
    • Alexander Ulrich Douglas
    • G01R27/26
    • A61B5/04284A61B5/0424
    • The disclosure is directed to a capacitive sensor for measuring a small biomedical electrical charge originating from an object under test comprising input circuit elements having an electrode for sensing the charge to provide an output signal that is a function of the charge being measured, wherein the electrode has no electrical contact with the object; amplification circuit elements (A) connected to the input circuit elements; processing circuit elements configured for receiving and processing the amplified output signal and to provide the measurement; and conditioning and monitoring circuit elements coupled to at least the input circuit elements comprising monitoring circuit elements and conditioning circuit elements; (R1) wherein the monitoring circuit elements are configured for monitoring the amplified output signal to detect an error in a measurement that is greater than a preset value caused by charge buildup on the electrode; and wherein the conditioning circuit elements are configured to be activated for. discharging the electrode when the error in the measurement is detected by the monitoring circuit elements and the conditioning circuit elements are configured to be deactivated, when the error in the measurement is no longer detected.
    • 本发明涉及用于测量源自被测物体的小生物医学电荷的电容传感器,包括具有用于感测电荷的电极的输入电路元件,以提供作为被测量电荷的函数的输出信号,其中电极 与物体没有电接触; 连接到输入电路元件的放大电路元件(A) 处理电路元件,被配置为接收和处理放大的输出信号并提供测量; 以及调节和监测电路元件,其耦合到至少所述输入电路元件,包括监控电路元件和调理电路元件; (R1),其中监视电路元件被配置用于监视放大的输出信号,以检测测量中的误差大于由电极上的电荷积累引起的预设值; 并且其中所述调理电路元件被配置为被激活。 当测量中的误差由监视电路元件检测到并且调节电路元件被配置为停止时,当不再检测到测量中的误差时,放电电极。
    • 5. 发明申请
    • ACTIVE DISCHARGE OF ELECTRODE
    • 主动放电电极
    • US20100219847A1
    • 2010-09-02
    • US12599063
    • 2008-05-07
    • Alexander Ulrich Douglas
    • Alexander Ulrich Douglas
    • G01R27/26
    • A61B5/04284A61B5/0424
    • The disclosure is directed to a capacitive sensor for measuring a small biomedical electrical charge originating from an object under test comprising input circuit elements having an electrode for sensing the charge to provide an output signal that is a function of the charge being measured, wherein the electrode has no electrical contact with the object; amplification circuit elements (A) connected to the input circuit elements; processing circuit elements configured for receiving and processing the amplified output signal and to provide the measurement; and conditioning and monitoring circuit elements coupled to at least the input circuit elements comprising monitoring circuit elements and conditioning circuit elements; (Re wherein the monitoring circuit elements are configured for monitoring the amplified output signal to detect an error in a measurement that is greater than a preset value caused by charge buildup on the electrode; and wherein the conditioning circuit elements are configured to be activated for discharging the electrode when the error in the measurement is detected by the monitoring circuit elements and the conditioning circuit elements are configured to be deactivated, when the error in the measurement is no longer detected.
    • 本发明涉及用于测量源自被测物体的小生物医学电荷的电容传感器,包括具有用于感测电荷的电极的输入电路元件,以提供作为被测量电荷的函数的输出信号,其中电极 与物体没有电接触; 连接到输入电路元件的放大电路元件(A) 处理电路元件,被配置为接收和处理放大的输出信号并提供测量; 以及调节和监测电路元件,其耦合到至少所述输入电路元件,包括监控电路元件和调理电路元件; (Re),其中监视电路元件被配置用于监视放大的输出信号以检测测量中的误差大于由电极上的电荷积聚引起的预设值;并且其中调节电路元件被配置为被激活以用于放电 当不再检测到测量中的误差时,监测电路元件和调理电路元件检测到测量中的误差时的电极被配置为停用。
    • 7. 发明申请
    • Jitter-Based Calibration Procedure With Improved Resolution For Optical Disc Drives
    • 基于抖动的校准程序,提高光盘驱动器的分辨率
    • US20080221813A1
    • 2008-09-11
    • US11914261
    • 2006-05-10
    • Alexander Ulrich Douglas
    • Alexander Ulrich Douglas
    • G06F19/00
    • G11B7/005
    • An optical disc drive apparatus (1), suitable for storing information on or reading information from an optical disc (2), typically a DVD or a CD or a BD, is designed for performing a method for calibrating a jitter factor (X) on the basis of optimising jitter, the method comprising the steps of: receiving a read signal (SR) from the optical disc (2); detecting a zero-crossing in the read signal; measuring (steps 111, 112) a timing error (tπ(i)) of the zero-crossing; measuring (step 113) a steepness (β(i)) of the zero-crossing; calculating (step 114) a weighing factor (α(i)) on the basis of the measured steepness (β(i)), this weighing factor (α(i)) being smaller for smaller values of the steepness (P(O); calculating (step 115) a weighed single jitter value (tw(i) by multiplying said timing error (tπ(i)) and said weighing factor (α(i)); and using this weighed single jitter value for calibration.
    • 适于存储关于来自光盘(2)(通常为DVD或CD或BD)的信息的信息的光盘驱动装置(1)被设计为执行用于校准抖动因子(X)的方法 优化抖动的基础,该方法包括以下步骤:从光盘(2)接收读取信号(S SUB R>); 检测读信号中的零交叉; 测量(步骤111,112)过零点的定时误差(tpi(i)); 测量(步骤113)过零点的陡度(β(i)); 基于测量的陡度(β(i))计算(步骤114)称重系数(α(i)),对于较小的陡度值(P(0)),该称重系数(α(i) ;通过将所述定时误差(tpi(i))和所述称重系数(α(i))相乘,计算(步骤115)称重的单个抖动值(t i) 用于校准的单个抖动值。