会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 72. 发明授权
    • Low quiescent current pull-down circuit
    • 低静态电流下拉电路
    • US09391519B2
    • 2016-07-12
    • US14311907
    • 2014-06-23
    • Analog Devices Global
    • Danzhu LuXiaohan GongBin Shao
    • H03K3/356H02M3/158H03K19/017
    • H02M3/158H03K3/356H03K19/01721
    • A device to detect an electrical signal is provided. The device includes sensing, output, and pull-down nodes. The device includes a pull-down circuit having a native metal-oxide-semiconductor field-effect transistor (MOSFET) to pull down the output node to approximately a voltage of the pull-down node. The device includes a switch circuit having a junction field-effect transistor (JFET). The JFET turns on the pull-down circuit in response to a voltage of the sensing node being less than a first threshold. The JFET also turns off the pull-down circuit in response to the voltage of the sensing node being greater than the first threshold.
    • 提供了一种用于检测电信号的装置。 该设备包括感测,输出和下拉节点。 该器件包括具有天然金属氧化物半导体场效应晶体管(MOSFET)的下拉电路,以将输出节点下拉到大约下拉节点的电压。 该器件包括具有结型场效应晶体管(JFET)的开关电路。 JFET响应于感测节点的电压小于第一阈值而导通下拉电路。 JFET还响应于感测节点的电压大于第一阈值而关断下拉电路。
    • 74. 发明授权
    • All N-type transistor inverter circuit
    • 所有N型晶体管逆变电路
    • US09214475B2
    • 2015-12-15
    • US13937752
    • 2013-07-09
    • Pixtronix, Inc.
    • Ilias Pappas
    • G09G3/20H01L27/12G09G3/34G11C19/28H03K19/0944H03K19/017H03K19/20
    • H01L27/1225G09G3/3433G09G2310/0267G09G2310/0286G09G2310/0291G09G2330/021G11C19/28H01L27/1255H03K19/01714H03K19/09441H03K19/20
    • This disclosure provides systems, methods and apparatus for an all n-type transistor inverter circuit. A circuit can include an input thin film transistor (TFT), a pull-down TFT, a discharge TFT, a first pull-up TFT, a second pull-up TFT, and a floating capacitor. The circuit also can include first and second low-voltage voltage sources and first and second high-voltage voltage sources. The TFTs, the capacitor, and the voltage sources can be coupled such that an output of the circuit is the logical opposite of an input of the circuit. In some implementations, the circuit can exhibit zero DC current in both logic states and can output voltages substantially equal to the voltage output by the first low-voltage voltage source and the second high-voltage voltage source. In some implementations, the circuit can be used to construct D flip-flops, buffers, and controllers for an active matrix electronic display.
    • 本公开提供了用于全n型晶体管反相器电路的系统,方法和装置。 电路可以包括输入薄膜晶体管(TFT),下拉式TFT,放电TFT,第一上拉TFT,第二上拉TFT和浮动电容器。 电路还可以包括第一和第二低压电压源以及第一和第二高压电压源。 TFT,电容器和电压源可以被耦合,使得电路的输出与电路的输入逻辑相反。 在一些实施方案中,电路可以在两个逻辑状态下呈现零直流电流,并且可以输出基本上等于由第一低压电压源和第二高压电压源输出的电压的电压。 在一些实现中,该电路可用于构建用于有源矩阵电子显示器的D触发器,缓冲器和控制器。
    • 79. 发明授权
    • Bootstrap circuit
    • 自举电路
    • US08779850B2
    • 2014-07-15
    • US13903055
    • 2013-05-28
    • Orise Technology Co., Ltd.
    • Che-Wei Wu
    • H03K17/16H03K3/013H03K19/017
    • H03K3/013H03K19/01735
    • A bootstrap circuit includes an input terminal, an inverting input terminal, an output terminal, an inverting output terminal, a first sub-bootstrap circuit, a second sub-bootstrap circuit, and a charging path providing circuit. The first sub-bootstrap circuit includes a first bootstrap capacitor, a first charging path, a first discharging path, and a first high voltage providing path. The charging path providing circuit includes a third charging path. In response to a high voltage level inputted into the input terminal, the first charging path and the third charging path are turned on, the first bootstrap capacitor is charged to a capacitor voltage, and the first discharging path is turned on to discharge the output terminal. In response to a low voltage level inputted into the input terminal, a first superimposed voltage including the high voltage level and the capacitor voltage is provided to the output terminal.
    • 自举电路包括输入端子,反相输入端子,输出端子,反相输出端子,第一子自举电路,第二子自举电路和充电路径提供电路。 第一子自举电路包括第一自举电容器,第一充电路径,第一放电路径和第一高电压提供路径。 充电路径提供电路包括第三充电路径。 响应于输入到输入端子的高电压电平,第一充电路径和第三充电路径导通,第一自举电容器被充电到电容器电压,并且第一放电路径导通以使输出端子 。 响应于输入到输入端子的低电压电平,向输出端子提供包括高电压电平和电容器电压的第一叠加电压。
    • 80. 发明申请
    • Reducing Narrow Gate Width Effects in an Integrated Circuit Design
    • 降低集成电路设计中的窄门宽度效应
    • US20120274357A1
    • 2012-11-01
    • US13097537
    • 2011-04-29
    • Edgardo F. Klass
    • Edgardo F. Klass
    • H03K19/017G06F17/50
    • H03K19/00307G06F2217/78G06F2217/80G06F2217/84
    • A method for reducing narrow gate width effects in an integrated circuit includes finding the smallest transistor channel widths that are larger than the minimum width for the technology for library cells that produce logic blocks that meet timing constraints while using the least amount of power and have the smallest possible area. The method may include characterizing a device library while varying process, voltage and temperature parameters, and synthesizing an HDL representation of a functional logic block including cells from the device library. The method may also include determining whether timing, area, and power values of the functional logic block are within a predetermined range. In response to the timing, area, and power values not being within the predetermined range, iteratively increasing the channel width of at least a portion of the transistors of at least one of the cells in the device library.
    • 一种用于减小集成电路中的窄栅极宽度效应的方法包括找到最大的晶体管沟道宽度,该晶体管沟道宽度大于用于在使用最小量的功率时产生符合时序约束的逻辑块的库单元的技术的最小宽度,并且具有 尽可能小的区域。 该方法可以包括在改变过程,电压和温度参数的同时表征设备库,以及合成包括来自设备库的单元的功能逻辑块的HDL表示。 该方法还可以包括确定功能逻辑块的定时,区域和功率值是否在预定范围内。 响应于定时,面积和功率值不在预定范围内,迭代地增加设备库中至少一个单元的至少一部分晶体管的沟道宽度。