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    • 92. 发明授权
    • Liquid crystal display panel and repair method thereof
    • 液晶显示面板及其修理方法
    • US08958049B2
    • 2015-02-17
    • US13700714
    • 2012-08-02
    • Tao LiuDong YeLiang XuPeijian YanXiangdeng Que
    • Tao LiuDong YeLiang XuPeijian YanXiangdeng Que
    • G02F1/13H01L21/70H01L27/15G02F1/00
    • H01L21/707G02F1/00G02F1/136259G02F2001/136268H01L27/156
    • The present invention provides a LCD panel and a method for repairing the LCD panel. The LCD panel includes a plurality of data lines and a plurality of subpixel areas. Each subpixel area includes a corresponding pixel electrode and thin film transistor. The subpixel area including a spot defect is electrically connected to a neighboring subpixel area having the same color and in normal operation. The connection between the thin film transistor in the subpixel area including the spot defect and the corresponding data line and the connection between the thin film transistor and the corresponding pixel electrode are cut. Consequently, the subpixel area including the bright spot defect is repaired and able to display normally. The display quality of the LCD panel display is improved. Moreover, the present invention repair method is suitable for the repairing of LCD panels without storage capacitors.
    • 本发明提供一种LCD面板及其修理方法。 LCD面板包括多条数据线和多个子像素区域。 每个子像素区域包括相应的像素电极和薄膜晶体管。 包括斑点缺陷的子像素区域电连接到具有相同颜色的相邻子像素区域并且在正常操作中。 切断包括点缺陷的子像素区域中的薄膜晶体管与对应的数据线之间的连接以及薄膜晶体管和相应的像素电极之间的连接。 因此,包括亮点缺陷的子像素区域被修复并且能够正常显示。 提高了LCD面板显示的显示质量。 此外,本发明的修补方法适用于没有存储电容器的LCD面板的修理。
    • 93. 发明授权
    • Light source and display system incorporating same
    • 光源与显示系统相结合
    • US08922733B2
    • 2014-12-30
    • US13502060
    • 2010-10-22
    • John A. WheatleyTao LiuEncai HaoWilliam Blake KolbMichael Benton Free
    • John A. WheatleyTao LiuEncai HaoWilliam Blake KolbMichael Benton Free
    • G02F1/1335F21V8/00
    • F21V13/14F21V9/14G02B6/005G02B6/0051G02B6/0096G02F1/133602
    • Light sources are disclosed. A disclosed light source includes an optically reflective cavity that includes an input port for receiving light and an output port for transmitting light, a lamp that is disposed at the input port, and an optical stack that is disposed at the output port. The optical stack includes a forward scattering optical diffuser that is disposed at the output port and has an optical haze that is not less than about 20%, and an optical film that is disposed on the optical diffuser. The optical film enhance total internal reflection at the interface between the optical film and the optical diffuser. The optical film has an index of refraction that is not greater than about 1.3 and an optical haze that is not greater than about 5%. The optical stack also includes a reflective polarizer layer that is disposed on the optical film. Substantial portions of each two neighboring major surfaces in the optical stack are in physical contact with each other.
    • 公开了光源。 所公开的光源包括光反射腔,其包括用于接收光的输入端口和用于传输光的输出端口,设置在输入端口处的灯以及设置在输出端口处的光学堆叠。 光学堆叠包括设置在输出端口并具有不小于约20%的光学雾度的前向散射光学漫射器,以及设置在光学漫射器上的光学膜。 光学膜增强了在光学膜和光学扩散器之间的界面处的全内反射。 光学膜的折射率不大于约1.3,光学雾度不大于约5%。 光学堆叠还包括设置在光学膜上的反射偏振器层。 光学堆叠中每两个相邻的主要表面的实质部分彼此物理接触。
    • 94. 发明授权
    • Extended enterprise connector framework using direct web remoting (DWR)
    • 使用直接Web远程处理(DWR)的扩展企业连接器框架
    • US08910112B2
    • 2014-12-09
    • US12182999
    • 2008-07-30
    • Yinghui LiYouneng XiaoTao Liu
    • Yinghui LiYouneng XiaoTao Liu
    • G06F9/44G06F9/54
    • G06F8/36G06F9/541
    • Techniques for extended enterprise connector framework are described herein. According to one embodiment, a Java proxy is generated in a form of Java beans at a Web server as a mid-layer, using an enterprise connector. The enterprise connector provides object oriented classes that encapsulate specific function calls of a Java connector which represents a set of proprietary APIs (application programming interfaces) to access RFC modules of a backend enterprise system. A JavaScript proxy is generated for a frontend client that communicates with the Web server over the Web using a DWR (direct Web remoting) mechanism to allow the JavaScript proxy to directly access the Java proxy of the mid-layer via an AJAX (asynchronous Java and extensible markup language or XML) communication mechanism, where the JavaScript is invoked by a Web application of the frontend client at runtime. Other methods and apparatuses are also described.
    • 本文描述了用于扩展企业连接器框架的技术。 根据一个实施例,使用企业连接器,Java代理在Web服务器上以Java Bean的形式作为中间层生成。 企业连接器提供面向对象的类,其封装代表一组专有API(应用程序编程接口)的Java连接器的特定函数调用以访问后端企业系统的RFC模块。 为使用DWR(直接Web远程处理)机制通过Web与Web服务器通信的前端客户端生成JavaScript代理,以允许JavaScript代理通过AJAX直接访问中间层的Java代理(异步Java和 可扩展标记语言或XML)通信机制,JavaScript在运行时由前端客户端的Web应用程序调用。 还描述了其它方法和装置。
    • 99. 发明申请
    • OPTICAL STACK AND LIGHTGUIDES
    • 光学堆叠和光源
    • US20130022315A1
    • 2013-01-24
    • US13634583
    • 2011-04-11
    • William F. EdmondsTao LiuJohn F. Van Deriofske IIIJohn A. Wheatley
    • William F. EdmondsTao LiuJohn F. Van Deriofske IIIJohn A. Wheatley
    • G02B5/30G02B6/26
    • G02B5/045F21V11/00G02B6/0053G02F1/133606G02F2001/133607Y10T428/24612
    • Optical stack is disclosed. The optical stack includes a first optical stack that includes, a first optical adhesive layer, and a reflective polarizer layer that is disposed on the first optical adhesive layer. The reflective polarizer layer substantially reflects light of a first polarization state and substantially transmits light of a second polarization state orthogonal to the first polarization state. The optical stack also includes a second optical stack that includes a second optical adhesive layer, a low index layer that is disposed on the second optical adhesive layer and includes a plurality of voids dispersed in a binder, and a light directing film that is disposed on the low index layer and includes a plurality of unitary discrete structures. Portions of each unitary discrete structure penetrate into the first optical adhesive layer. Portions of each unitary discrete structure do not penetrate into the first optical adhesive layer. Each unitary discrete structure defines a penetration depth and a penetration base at the interface between the penetrating and non-penetrating portions of the unitary discrete structure. The penetration base has a minimum penetration base dimension. The plurality of unitary discrete structures has an average penetration depth and an average minimum penetration base dimension. The ratio of the average penetration depth to the average minimum penetration base dimension is at least 1.5. The peel strength between the first and second optical stacks is greater than about 30 grams/inch.
    • 公开了光堆叠。 光学堆叠包括第一光学堆叠,其包括第一光学粘合剂层和设置在第一光学粘合剂层上的反射偏振器层。 反射型偏振层基本上反射第一偏振态的光,并且基本上透射与第一偏振状态正交的第二偏振状态的光。 光学堆叠还包括第二光学堆叠,其包括第二光学粘合剂层,设置在第二光学粘合剂层上并包括分散在粘合剂中的多个空隙的低折射率层,以及设置在 低折射率层并且包括多个单一离散结构。 每个单一离散结构的部分渗入第一光学粘合剂层。 每个单一离散结构的部分不会渗透到第一光学粘合剂层中。 每个单一离散结构在整体离散结构的穿透部分和非穿透部分之间的界面处限定穿透深度和穿透基部。 穿透底座具有最小穿透基座尺寸。 多个单一离散结构具有平均穿透深度和平均最小穿透基础尺寸。 平均渗透深度与平均最小穿透基础尺寸之比至少为1.5。 第一和第二光学叠层之间的剥离强度大于约30克/英寸。