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    • 7. 发明申请
    • Method and System for Testing Temporal Latency in Device Having Optical Sensing Component and Touch-Sensitive Display Component
    • 用于测量具有光学感测组件和触敏显示组件的设备中的时间延迟的方法和系统
    • US20140036095A1
    • 2014-02-06
    • US13564451
    • 2012-08-01
    • John W. KaehlerAlexander KlementMark F. ValentineSandeep VuppuDaniel H. Wagner
    • John W. KaehlerAlexander KlementMark F. ValentineSandeep VuppuDaniel H. Wagner
    • H04N17/00
    • G06F3/0412G06F3/0416G06F3/042G06F3/044
    • A method and system for determining a camera-to-display latency of an electronic device (100) having a camera (134) and touch-sensitive display (108) are disclosed. In one example embodiment, the method (500) includes receiving (511) first light (136) at the camera, and essentially simultaneously receiving second light (138) at a first photosensitive structural portion (102, 602). The method (500) further includes detecting (512) a first simulated touch input at the display (108) in response to a first actuation of the first photosensitive structural portion (102, 602), receiving third light (140) at a second photosensitive structural portion (104, 604), the third light being generated based at least indirectly upon the received first light (136), detecting (514) a second simulated touch input at the display (108) as a result of the receiving of the third light (140), and determining the camera-to-display latency based at least indirectly upon the touch inputs (516).
    • 公开了一种用于确定具有相机(134)和触敏显示器(108)的电子设备(100)的相机到显示器延迟的方法和系统。 在一个示例性实施例中,方法(500)包括在相机处接收(511)第一光(136),并且基本上同时在第一感光结构部分(102,602)处接收第二光(138)。 方法(500)还包括响应于第一感光结构部分(102,602)的第一致动,在显示器(108)处检测(512)第一模拟触摸输入,在第二感光体处接收第三光(140) 结构部分(104,604),所述第三光源至少间接地基于所接收的第一光(136)产生,由于接收到所述第三光源(136)的所述第三光源 光(140),并且至少间接地基于触摸输入(516)确定相机到显示器的等待时间。
    • 8. 发明申请
    • Method and System for Performance Testing Touch-Sensitive Devices
    • 触摸敏感设备的性能测试方法和系统
    • US20130278539A1
    • 2013-10-24
    • US13451945
    • 2012-04-20
    • Mark F. ValentineJohn W. KaehlerAlexander KlementSandeep Vuppu
    • Mark F. ValentineJohn W. KaehlerAlexander KlementSandeep Vuppu
    • G06F3/044
    • G06F3/0418G06F3/044
    • A method and apparatus for testing a capacitive touch screen of a touch panel as commonly implemented on mobile and other electronic devices (or another touch-sensing device) are disclosed herein. In at least some embodiments, the method involves placing the touch screen in relation to a photoconductive panel (for example, a panel made from Cadmium Sulfide) so that the device and panel are adjacent to one another. Then, the panel is illuminated in a known manner, for example, by way of an image displayed on a display of the touch panel. Further, upon illumination of the panel, the panel conducts in a manner correlated to the illumination. Due to this conducting, capacitance change(s) occur that should actuate the touch screen in a corresponding manner. The capacitance change(s) detected at the touch screen can be compared with the known illumination pattern to determine whether the touch screen is operating properly.
    • 本文公开了一种用于测试通常在移动和其他电子设备(或另一触摸感测设备)上实现的触摸面板的电容式触摸屏的方法和装置。 在至少一些实施例中,该方法涉及将触摸屏相对于光电导面板(例如,由硫化镉制成的面板)放置,使得该装置和面板彼此相邻。 然后,以已知的方式,例如通过显示在触摸面板的显示器上的图像照亮面板。 此外,在面板照明时,面板以与照明相关的方式导通。 由于这种导电,发生电容变化,其应以相应的方式启动触摸屏。 可以将触摸屏上检测到的电容变化与已知的照明图案进行比较,以确定触摸屏是否正常工作。
    • 9. 发明申请
    • SMART MODULE AND METHOD WITH MINIMAL STANDBY LOSS
    • 智能模块和方法与最小的待机损失
    • US20110254383A1
    • 2011-10-20
    • US12761441
    • 2010-04-16
    • Roger L. FranzMark F. Valentine
    • Roger L. FranzMark F. Valentine
    • H02J1/00
    • H02J9/005H02J5/00H02J7/02H02J2009/007Y10T307/865
    • A smart method (100) and module (300) to minimize standby loss is disclosed. The method (100) can include the steps of: detecting (110) a current parameter at a load node; determining (120) whether a current parameter threshold has been reached; and disabling (13) power delivery based on determining whether the current parameter threshold has been reached. Advantageously, the smart method (100) can provide minimal to zero standby loss, when a current parameter threshold has been reached. This method has use in many electronic devices and particularly in battery chargers, for example, when a predetermined current parameter threshold has been reached or an energy storage device (battery) charge is complete, minimal or zero standby loss can be attained. In one embodiment, the smart method (100) can substantially fully switch off AC mains to eliminate standby loss.
    • 公开了一种使备用损耗最小化的智能方法(100)和模块(300)。 方法(100)可以包括以下步骤:在负载节点处检测(110)当前参数; 确定(120)是否已经达到当前参数阈值; 以及基于确定是否已经达到当前参数阈值来禁用(13)电力输送。 有利地,当已经达到当前参数阈值时,智能方法(100)可以提供最小到零的待机损耗。 该方法在许多电子设备中使用,特别是在电池充电器中,例如当达到预定的电流参数阈值或能量存储装置(电池)充电完成时,可以获得最小或零的待机损耗。 在一个实施例中,智能方法(100)可以基本上完​​全关闭AC电源以消除备用损耗。