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    • 35. 发明公开
    • Proximity sensor interface device and method for its use
    • Näherungssensorschnittstellenvorrichtungund Verfahren zu dessen Verwendung
    • EP2492631A1
    • 2012-08-29
    • EP12156989.1
    • 2012-02-24
    • The Boeing Company
    • Lumbab, Alex C.
    • G01B7/02G01D18/00
    • G01B7/023H03K2217/9401H03K2217/945
    • A proximity sensor interface device (PSID) for determining if a proximity sensor is in an acceptable position with respect to a target device is described. The PSID includes a frequency generator, a processing device, a memory associated with the processing device, a display, and an RC circuit. The processing device is programmed to route a signal generated by the frequency generator through the proximity sensor and the RC circuit for a prescribed period of time and the processing device is programmed to measure a discharge time of the RC circuit. The processing device is further programmed to cause the display to provide an indication of whether the relative position of the proximity sensor and the target device are within prescribed tolerances, based on the discharge time.
    • 描述了用于确定接近传感器是否处于相对于目标设备的可接受位置的接近传感器接口设备(PSID)。 PSID包括频率发生器,处理装置,与处理装置相关联的存储器,显示器和RC电路。 处理装置被编程为通过接近传感器和RC电路将频率发生器产生的信号路由规定的时间段,并且处理装置被编程以测量RC电路的放电时间。 处理装置进一步被编程为基于放电时间使显示器提供接近传感器和目标装置的相对位置是否在规定的公差内的指示。
    • 36. 发明专利
    • Capacitive touch panel
    • 电容触控面板
    • JP2011186508A
    • 2011-09-22
    • JP2010047641
    • 2010-03-04
    • Smk CorpSmk株式会社
    • YOSHIKAWA OSAMU
    • G06F3/044G06F3/041
    • G06F3/044G06F3/0416H03K17/9622H03K2217/9401H03K2217/960715
    • PROBLEM TO BE SOLVED: To provide a capacitive touch panel allowing selection of a voltage control method having excellent detection accuracy according to operation environment. SOLUTION: The capacitive touche panel performing charge/discharge control of stray capacitance of a plurality of detection electrodes and detecting a detection electrode wherein the stray capacitance increases by approach of an input operation body from a change of potential of the detection electrode, allows selection control of any of the charge control and the discharge control of the stray capacitance, and selects one optimum control method according to the operation environment. COPYRIGHT: (C)2011,JPO&INPIT
    • 要解决的问题:提供一种允许选择根据操作环境具有优异检测精度的电压控制方法的电容式触摸面板。 电容式接触面板对多个检测电极进行杂散电容的充电/放电控制,并检测由检测电极的电位变化引起的输入操作体接近的寄生电容的检测电极, 允许对杂散电容的任何充电控制和放电控制的选择控制,并根据操作环境选择一种最佳控制方法。 版权所有(C)2011,JPO&INPIT
    • 38. 发明授权
    • Device and method for evaluating the capacitance of a sensor electrode of a proximity sensor
    • 用于评估接近传感器的传感器电极的电容的装置和方法
    • US09354035B2
    • 2016-05-31
    • US14651135
    • 2013-11-22
    • Berthold Sieg
    • Berthold Sieg
    • G01R27/26G01B7/14G01V13/00G01V3/08E05F15/73H03K17/955H03K17/96
    • G01B7/14E05F15/73E05Y2900/50G01V3/088G01V13/00H03K17/955H03K17/962H03K2217/9401H03K2217/960705H03K2217/960725
    • A method for evaluating a capacitance of a sensor electrode of a proximity sensor includes charging the electrode with a charge voltage. Simultaneously, a compensation capacitance is charged by coupling the compensation capacitance between a reference voltage and ground. The sensor electrode and the compensation capacitance are decoupled from voltage sources and a state of charge of the sensor electrode and of the compensation capacitance is maintained. The sensor electrode is coupled to the compensation capacitance and the charges are balanced; then decoupled from the compensation capacitance and the charge is maintained. The compensation capacitance is then coupled to an evaluation network. The charge of a hold capacitance in the evaluation network is reversed by a charge-reversal current which is dependent on the current flow of the compensation capacitance. The charge of the hold capacitance is evaluated after one or more such cycles.
    • 用于评估接近传感器的传感器电极的电容的方法包括用充电电压对电极进行充电。 同时,通过将参考电压和地之间的补偿电容耦合来补偿补偿电容。 传感器电极和补偿电容与电压源解耦,并保持传感器电极和补偿电容的充电状态。 传感器电极耦合到补偿电容,电荷平衡; 然后从补偿电容解耦,并保持电荷。 然后将补偿电容耦合到评估网络。 评估网络中的保持电容的电荷由依赖于补偿电容的电流的电荷反转电流反转。 在一个或多个这样的循环之后评估保持电容的电荷。
    • 39. 发明申请
    • CAPACITIVE SENSOR DEVICE WITH ASSOCIATED EVALUATION CIRCUIT
    • 具有相关评估电路的电容式传感器装置
    • US20150330768A1
    • 2015-11-19
    • US14650790
    • 2013-11-22
    • HUF HÜLSBECK & FÜRST GMBH & CO. KG
    • Berthold Sieg
    • G01B7/14E05F15/73
    • G01B7/14E05F15/73E05Y2900/50G01V3/088G01V13/00H03K17/955H03K17/962H03K2217/9401H03K2217/960705H03K2217/960725
    • A capacitive sensor device includes a sensor electrode coupled to a first switch and coupleable either to a sensor operating voltage or to an evaluation circuit, configured as a power source circuit. A first current path is coupleable to the sensor electrode at an input end and to ground via a collector and emitter of a first transistor by an auxiliary resistor. A second current path is coupled to a reference potential at one end. A capacitor is coupled between the reference potential and a second transistor. A second auxiliary resistor is arranged in the second current path. The first transistor's base and collector are coupled to the base of the second transistor. A compensation capacitor has a first terminal coupled to the first current path and a second terminal couplable to a compensation voltage, to ground, or in a floating manner via a second switch.
    • 电容传感器装置包括耦合到第一开关的传感器电极,或者耦合到传感器工作电压或被配置为电源电路的评估电路。 第一电流路径在输入端耦合到传感器电极,并且通过辅助电阻器通过第一晶体管的集电极和发射极接地。 第二电流路径在一端耦合到参考电位。 电容器耦合在参考电位和第二晶体管之间。 第二辅助电阻器布置在第二电流路径中。 第一晶体管的基极和集电极耦合到第二晶体管的基极。 补偿电容器具有耦合到第一电流路径的第一端子和可经由第二开关以浮动方式耦合到补偿电压,接地或浮动的第二端子。
    • 40. 发明申请
    • CAPACITIVE TOUCH PANEL
    • 电容触控面板
    • US20120019266A1
    • 2012-01-26
    • US13251298
    • 2011-10-03
    • Osamu YOSHIKAWA
    • Osamu YOSHIKAWA
    • G01R27/26
    • G06F3/044G06F3/0416H03K17/9622H03K2217/9401H03K2217/960715
    • A capacitive touch panel can select a way of voltage control with a high degree of detection accuracy according to operating environment. In response to approach of an input unit, the stray capacitance of the sensing electrode the input unit approached increases. Accordingly, charge and discharge of the stray capacitances of a plurality of sensing electrodes are controlled, and a sensing electrode the potential change of which is made slow by the increase in stray capacitance and resultant increase in time constant is detected as a sensing electrode the input unit approached. The stray capacitance of a sensing electrode can selectively be controlled either by the charge control or by the discharge control, and optimum one of the controls is selected according to operating environment.
    • 电容式触摸屏可根据操作环境以高度的检测精度选择电压控制方式。 响应于输入单元的接近,输入单元接近的感测电极的杂散电容增加。 因此,控制多个感测电极的杂散电容的充电和放电,并且将其电位变化由于寄生电容的增加而减慢的感测电极和由此导致的时间常数的增加作为感测电极被检测为输入 单位走近。 感测电极的杂散电容可以通过充电控制或放电控制来选择性地控制,并且根据操作环境选择最佳的一个控制。