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    • 1. 发明申请
    • Acoustic wave touch detecting apparatus
    • 声波触摸检测装置
    • US20050156911A1
    • 2005-07-21
    • US10712874
    • 2003-11-12
    • Yoshikazu TanakaJoel KentJames Roney
    • Yoshikazu TanakaJoel KentJames Roney
    • G01B17/00G06F3/033G06F3/043G09G5/00
    • G06F3/0436
    • Two groups of inclined lines, which are included in a spurious wave scattering means, are formed at opposite angles with respect to each other in the vicinity of an upper edge of a substrate. The angles of the inclined lines are such that they are close to perpendicular toward the central portion of the substrate, and gradually decrease toward the edges thereof. In a similar manner, two other groups inclined lines, which are also included in the spurious wave scattering means, are formed at opposite angles with respect to each other, with gradually changing angles. The spurious waves that reach these regions are diffuse by the inclined lines, so that they are not propagated to converters (sensors). Three rectangular spurious wave scattering means, formed by inclined lines, inclined at angles other than 45°, also function to diffuse and eliminate spurious waves that propagate along the front surface of the substrate.
    • 包括在寄生波散射装置中的两组倾斜线在衬底的上边缘附近相对于彼此以相反的角度形成。 倾斜线的角度使得它们接近垂直于基板的中心部分,并且朝向其边缘逐渐减小。 以类似的方式,还包括在杂散波散射装置中的另外两组倾斜线以相对于彼此具有逐渐变化的角度的相反角度形成。 到达这些区域的杂散波被倾斜的线漫射,使得它们不传播到转换器(传感器)。 由斜线形成的三个矩形寄生波散射装置,其以45°以外的角度倾斜,还起着扩散和消除沿着衬底前表面传播的寄生波的作用。
    • 2. 发明授权
    • Touch confirming touchscreen utilizing plural touch sensors
    • 使用多个触摸传感器触摸确认触摸屏
    • US06504530B1
    • 2003-01-07
    • US09390207
    • 1999-09-07
    • Geoffrey D. WilsonVictor E. BorgnisJoel KentMike LewisDrew LoucksJames RoneyMichael Bruno Patti
    • Geoffrey D. WilsonVictor E. BorgnisJoel KentMike LewisDrew LoucksJames RoneyMichael Bruno Patti
    • G09G500
    • G06F3/0418
    • A method and apparatus for discriminating against false touches in a touchscreen system is provided. The system is designed to confirm a touch registered by one touch sensor with another touch sensor, preferably of a different sensor type, prior to acting upon the touch (i.e., sending touch coordinates to the operating system). If the touch registered by the first touch sensor is not confirmed by the second touch sensor, the touch is invalidated. Thus the strengths of one type of sensor are used to overcome the deficiencies of another type of sensor. In one aspect, the secondary touch sensor comprises a force sensor to discriminate between true and false touches on other types of touch sensors, such as contaminants on optical and surface acoustic wave sensors, noise or weak signals on capacitive sensors, etc. The force sensor may be a simple one-element system that merely indicates that a touch has occurred or a multi-element system that can provide confirming or supplementary coordinate data. In another aspect, a capacitive sensor is used to confirm or veto touch data from optical, surface acoustic wave, and force sensors. As is the case with the secondary force sensor, a secondary capacitive sensor may be a simple discrete type or capable of providing touch coordinates in its own right. In a specific embodiment, one in which no touch overlay is used on a CRT monitor, the secondary touch sensor may employ the resistive coating on the surface of the CRT in combination with a current monitoring circuit that measures the amplitude of the electromagnetic noise signal coupled to the resistive coating. In this application when the screen is touched by a grounded object, the detected signal amplitude change exceeds a preset threshold thus indicating a valid touch.
    • 提供了一种用于区分触摸屏系统中的假触摸的方法和装置。 该系统被设计为在触摸之前(即,向操作系统发送触摸坐标),确认由一个触摸传感器与另一个触摸传感器(最好是不同的传感器类型)登记的触摸。 如果第一触摸传感器登录的触摸未被第二触摸传感器确认,则触摸无效。 因此,使用一种类型的传感器的优点来克服另一种传感器的缺陷。 在一个方面,二次触摸传感器包括力传感器,以区分其他类型的触摸传感器的真实和错误触摸,例如光学和表面声波传感器上的污染物,电容传感器上的噪声或弱信号等。力传感器 可以是仅仅表示触摸已经发生的简单的单元件系统或者可以提供确认或辅助坐标数据的多元件系统。 另一方面,电容传感器用于确认或否决来自光学,表面声波和力传感器的触摸数据。 与次级力传感器的情况一样,次级电容式传感器可以是简单的离散型或能够自己提供触摸坐标。 在具体实施例中,在CRT监视器上没有使用触摸覆盖的实施例中,辅助触摸传感器可以与电流监视电路结合使用CRT表面上的电阻涂层,该电流监测电路测量耦合的电磁噪声信号的幅度 到电阻涂层。 在本应用中,当屏幕被接地物体触摸时,检测到的信号幅度变化超过预设的阈值,从而指示有效触摸。
    • 3. 发明授权
    • Acoustic wave touch detecting apparatus
    • 声波触摸检测装置
    • US07204148B2
    • 2007-04-17
    • US10712874
    • 2003-11-12
    • Yoshikazu TanakaJoel KentJames Roney
    • Yoshikazu TanakaJoel KentJames Roney
    • G01N29/036G09G5/00G06F3/033G01H11/06
    • G06F3/0436
    • Two groups of inclined lines, which are included in a spurious wave scattering means, are formed at opposite angles with respect to each other in the vicinity of an upper edge of a substrate. The angles of the inclined lines are such that they are close to perpendicular toward the central portion of the substrate, and gradually decrease toward the edges thereof. In a similar manner, two other groups inclined lines, which are also included in the spurious wave scattering means, are formed at opposite angles with respect to each other, with gradually changing angles. The spurious waves that reach these regions are diffuse by the inclined lines, so that they are not propagated to converters (sensors). Three rectangular spurious wave scattering means, formed by inclined lines, inclined at angles other than 45°, also function to diffuse and eliminate spurious waves that propagate along the front surface of the substrate.
    • 包括在寄生波散射装置中的两组倾斜线在衬底的上边缘附近相对于彼此以相反的角度形成。 倾斜线的角度使得它们接近垂直于基板的中心部分,并且朝向其边缘逐渐减小。 以类似的方式,还包括在杂散波散射装置中的另外两组倾斜线以相对于彼此具有逐渐变化的角度的相反角度形成。 到达这些区域的杂散波被倾斜的线漫射,使得它们不传播到转换器(传感器)。 由斜线形成的三个矩形寄生波散射装置,其以45°以外的角度倾斜,还起着扩散和消除沿着衬底前表面传播的寄生波的作用。
    • 4. 发明授权
    • Acoustic touchscreen constructed directly on a cathode ray tube
    • 直接在阴极射线管上构建的声学触摸屏
    • US06225985B1
    • 2001-05-01
    • US09277571
    • 1999-03-26
    • Donald B. ArmstrongJoel KentJames Roney
    • Donald B. ArmstrongJoel KentJames Roney
    • G09G500
    • G06F3/0436
    • A touchscreen is constructed directly on the glass surface of a cathode ray tube (CRT). To solve the problem of insufficient space between the CRT's bezel and frontal region to accommodate the transducers for the touchscreen, the transducers are moved away from the frontal region, to the highly curved shoulder region of the CRT. To preserve acoustic signal strength, the positioning of the transducers is chosen to take advantage of the fact that an acoustic wave on a non-Euclidean surface travels along a geodesic path. Allowance is also made for the acoustic lens and prism effect of the corner regions of the CRT, where the transducer may be located.
    • 触摸屏直接构造在阴极射线管(CRT)的玻璃表面上。 为了解决CRT的边框和正面区域之间的空间不足以容纳触摸屏的换能器的问题,换能器从前部区域移动到CRT的高度弯曲的肩部区域。 为了保持声信号强度,选择换能器的定位以利用非欧几里德表面上的声波沿着测地线路行进的事实。 还可以对传感器所在的CRT的拐角区域的声透镜和棱镜效应进行补偿。