LATENCY CONTROL CIRCUIT AND SEMICONDUCTOR DEVICE INCLUDING THE CIRCUIT
    192.
    发明申请
    LATENCY CONTROL CIRCUIT AND SEMICONDUCTOR DEVICE INCLUDING THE CIRCUIT 有权
    包括电路的延迟控制电路和半导体器件

    公开(公告)号:US20140010029A1

    公开(公告)日:2014-01-09

    申请号:US13797574

    申请日:2013-03-12

    CPC classification number: G11C7/222 G11C2207/2272

    Abstract: A latency control circuit includes a clock delay configured to output a plurality of serial delay signals obtained by serially delaying an input clock signal with the same intervals, a deviation information generating unit configured to generate a deviation information on the basis of a delay value, which the clock signal undergoes in a chip, and latency information, a clock selector configured to output a plurality of clock selection signals based on the plurality of serial delay signals and the deviation information, a command signal processing unit configured to generate a read signal based on an input command signal, and output a variable delay duplication signal by variably delaying the read signal, and a latency shifter configured to output a latency signal by combining the plurality of clock selection signals with the variable delay duplication signal.

    Abstract translation: 延迟控制电路包括:时钟延迟,被配置为输出通过以相同间隔串行延迟输入时钟信号而获得的多个串行延迟信号;偏差信息生成单元,被配置为基于延迟值生成偏差信息, 时钟信号经历芯片,等待时间信息,时钟选择器,被配置为基于多个串行延迟信号和偏差信息输出多个时钟选择信号;命令信号处理单元,被配置为基于 输入命令信号,并通过可变地延迟读取信号来输出可变延迟复制信号;以及等待时间移位器,配置为通过将多个时钟选择信号与可变延迟复制信号组合来输出等待时间信号。

    UNLOCKING SCHEMES
    193.
    发明申请
    UNLOCKING SCHEMES 有权
    解锁方案

    公开(公告)号:US20130198837A1

    公开(公告)日:2013-08-01

    申请号:US13755128

    申请日:2013-01-31

    Inventor: Jin Suk KIM

    CPC classification number: G06F21/36 G06F3/0425 G06F3/0488 G06F21/45

    Abstract: An end device may include a camera configured to capture an image of an object, a touch screen configured to receive a touch input and a processor configured to determine to unlock the end device based, at least in part, on the image of the object and the touch input.

    Abstract translation: 终端设备可以包括被配置为捕获对象的图像的照相机,被配置为接收触摸输入的触摸屏和被配置为至少部分地基于对象的图像来确定解锁终端设备的处理器,以及 触摸输入。

    ORGANIC PLANAR DIODE WITH CU ELECTRODE VIA MODIFICATION OF THE METAL SURFACE BY SAM OF FLUOROBIPHENYL BASED THIOL

    公开(公告)号:US20230217664A1

    公开(公告)日:2023-07-06

    申请号:US18092165

    申请日:2022-12-30

    Inventor: Hyuk KIM

    CPC classification number: H10K10/23 H10K71/60 H10K85/6576 H10K85/60

    Abstract: A surface of a copper (Cu) electrode is modified by a combination of preliminary oxidation treatment and grafting of a bifunctional self-assembled monolayer based on fluorobiphenylthiol (FBPS) or biphenylthiol (BPS). Under these conditions, a dinaphtho[2,3-b:2′,3′-f]thieno[3,2-b]thiophene (DNTT)-based diode exhibits high mobility (0.35 cm2·V−1·s−1) due to the formation of an organized assembly of FBPS on copper oxide that has been partially reduced to Cu2O. This organization controls that of a semiconductor film. On the other hand, the same treatment of a copper electrode with BPS molecules does not function due to the disorganization of both the BPS self-assembled monolayer (SAM) and the DNTT film. These results suggest that a monolayer of dipole-oriented molecules lowers an injection barrier and determines the semiconductor organization, thereby improving the performance of derived electronic parts.

    TEXTILE TRIBOELECTRIC NANOGENERATORS WITH DIVERSE 3D-SPACER FABRICS FOR IMPROVED OUTPUT VOLTAGE

    公开(公告)号:US20230208323A1

    公开(公告)日:2023-06-29

    申请号:US18090028

    申请日:2022-12-28

    Inventor: Hyuk KIM

    CPC classification number: H02N1/04 H02N2/18

    Abstract: A triboelectric nanogenerator (TENG) using a 3D-spacer fabric and polydimethylsiloxane (PDMS) shows great application potential for biokinetic energy harvesting and a multifunctional self-power device. In the present disclosure, a TENG with a fabric-PDMS-fabric structure is fabricated using diverse three-dimensional (3D) fabrics and PDMS. Peak-to-peak output voltages of the diverse 3D-spacer fabrics are compared. The output voltages are changed due to structures and vertical fibers. In addition, a coefficient of surface friction between PDMS and fabric improves the output voltage. TENGs using different 3D-spacer polymeric fabrics show different maximum peak-to-peak output voltage performances. This is due to the stiffness, lateral elasticity, and 3D morphology of the fabrics. It is considered that those factors including the stiffness, the lateral elasticity, and the 3D morphology influence the densities in vertical and lateral fiber-to-fiber interaction.

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