MEMRISTIVE DEVICE
    1.
    发明申请
    MEMRISTIVE DEVICE 有权
    测量装置

    公开(公告)号:US20110182107A1

    公开(公告)日:2011-07-28

    申请号:US13119932

    申请日:2008-12-12

    IPC分类号: G11C11/00 H01L45/00

    摘要: A memristive routing device (200) includes a memristive matrix (240), mobile dopants (255) moving with the memristive matrix (240) in response to programming electrical fields and remaining stable within the memristive matrix (240) in the absence of the programming electrical fields; and at least three electrodes (210, 220, 230) surrounding the memristive matrix (240). A method for tuning electrical circuits with a memristive device (900) includes measuring a circuit characteristic (805) and applying a programming voltage to the memristive device (900) which causes motion of dopants within the memristive device (900) to alter the circuit characteristic (805). A method for increasing a switching speed of a memristive device (1300) includes drawing dopants from two geometrically separated locations into close proximity to form two conductive regions (1380, 1390) and then switching the memristive device (1300) to a conductive state by applying a programming voltage which rapidly merges the two conductive regions (1380, 1390) to form a conductive pathway between a source electrode (1310) and a drain electrode (1320).

    摘要翻译: 忆阻路由设备(200)包括忆阻矩阵(240),移动掺杂物(255)响应于编程电场而与忆阻矩阵(240)一起移动,并且在没有编程的情况下保持稳定在忆阻矩阵(240)内 电场; 以及围绕所述忆阻矩阵(240)的至少三个电极(210,220,230)。 一种利用忆阻器件(900)来调谐电路的方法包括测量电路特性(805)并将编程电压施加到忆阻器件(900),其使得忆阻器件(900)内的掺杂剂的运动改变电路特性 (805)。 提高忆阻装置(1300)的切换速度的方法包括将来自两个几何分离的位置的掺杂剂绘制成紧邻形成两个导电区域(1380,1390),然后通过应用将所述忆阻装置(1300)切换到导电状态 编程电压,其迅速地合并两个导电区域(1380,1390)以在源电极(1310)和漏电极(1320)之间形成导电通路。

    Memristive device
    2.
    发明授权
    Memristive device 有权
    忆阻器

    公开(公告)号:US08547727B2

    公开(公告)日:2013-10-01

    申请号:US13119932

    申请日:2008-12-12

    IPC分类号: G11C11/00

    摘要: A memristive routing device includes a memristive matrix, mobile dopants moving with the memristive matrix in response to programming electrical fields and remaining stable within the memristive matrix in the absence of the programming electrical fields; and at least three electrodes surrounding the memristive matrix. A method for tuning electrical circuits with a memristive device includes measuring a circuit characteristic and applying a programming voltage to the memristive device which causes motion of dopants within the memristive device to alter the circuit characteristic. A method for increasing a switching speed of a memristive device includes drawing dopants from two geometrically separated locations into close proximity to form two conductive regions and then switching the memristive device to a conductive state by applying a programming voltage which rapidly merges the two conductive regions to form a conductive pathway between a source electrode and a drain electrode.

    摘要翻译: 忆阻路由设备包括忆阻矩阵,响应于编程电场而与忆阻矩阵一起移动的移动掺杂物,并且在没有编程电场的情况下在忆阻矩阵内保持稳定; 以及围绕忆阻矩阵的至少三个电极。 一种用忆阻器件调谐电路的方法包括测量电路特性并将编程电压施加到忆阻器件,其使得忆阻器件内的掺杂剂的运动改变电路特性。 用于增加忆阻器件的切换速度的方法包括将来自两个几何分离位置的掺杂剂绘制成紧密接近形成两个导电区域,然后通过施加快速合并两个导电区域的编程电压将忆阻器件切换到导通状态 在源电极和漏电极之间形成导电路径。

    DETERMINING NODE LOCATION IN A WIRELESS NETWORK
    7.
    发明申请
    DETERMINING NODE LOCATION IN A WIRELESS NETWORK 有权
    确定无线网络中的节点位置

    公开(公告)号:US20110249594A1

    公开(公告)日:2011-10-13

    申请号:US12759350

    申请日:2010-04-13

    IPC分类号: H04L12/28

    CPC分类号: G01S5/06

    摘要: Transmitting nodes broadcast chirped signals on a wireless network. The transmitting nodes are time-synchronized with each other and location of the transmitting nodes is known. A receiver node detects beat frequencies created by pairs of chirped signals from different pairs of transmitting nodes. Time delay differences between chirped signals in respective beat frequency pairs are determined. The receiver node's location is determined in view of the time delay differences.

    摘要翻译: 发射节点在无线网络上广播啁啾信号。 发射节点彼此时间同步,发射节点的位置是已知的。 接收器节点检测由来自不同发送节点对的啁啾信号对产生的拍频。 确定各拍频对中的啁啾信号之间的延时差。 考虑到时间延迟差异来确定接收机节点的位置。

    Determining node location in a wireless network
    8.
    发明授权
    Determining node location in a wireless network 有权
    确定无线网络中的节点位置

    公开(公告)号:US08493890B2

    公开(公告)日:2013-07-23

    申请号:US12759350

    申请日:2010-04-13

    IPC分类号: H04L12/28

    CPC分类号: G01S5/06

    摘要: Transmitting nodes broadcast chirped signals on a wireless network. The transmitting nodes are time-synchronized with each other and location of the transmitting nodes is known. A receiver node detects beat frequencies created by pairs of chirped signals from different pairs of transmitting nodes. Time delay differences between chirped signals in respective beat frequency pairs are determined. The receiver node's location is determined in view of the time delay differences.

    摘要翻译: 发射节点在无线网络上广播啁啾信号。 发射节点彼此时间同步,发射节点的位置是已知的。 接收器节点检测由来自不同发送节点对的啁啾信号对产生的拍频。 确定各拍频对中的啁啾信号之间的延时差。 考虑到时间延迟差异来确定接收机节点的位置。

    Metamaterial inclusion structure and method
    9.
    发明授权
    Metamaterial inclusion structure and method 有权
    超材料夹杂物结构与方法

    公开(公告)号:US08315500B2

    公开(公告)日:2012-11-20

    申请号:US12245612

    申请日:2008-10-03

    IPC分类号: G02B6/00

    摘要: A metamaterial inclusion structure (MIS), a metamaterial and a method of producing an optical magnetic response employ interspersed plasmonic and dielectric materials. The MIS includes first petals of a plasmonic material and second petals of a dielectric material that alternate at a surface and along a periphery of the MIS. The MIS exhibits the magnetic resonance when illuminated by an optical signal at an optical wavelength. The optical signal has a magnetic field component that is parallel with an interface between the first petals and the second petals. The metamaterial includes a plurality of the MIS arranged in an array and provides an optical magnetic susceptibility at the optical wavelength. The method forms the MIS with the alternating petals and includes illuminating the MIS with the optical signal.

    摘要翻译: 超材料夹层结构(MIS),超材料和产生光磁响应的方法采用散射等离子体和介电材料。 MIS包括等离子体激元材料的第一瓣和电介质材料的第二瓣,其在MIS的表面和周边交替。 当由光学波长的光信号照明时,MIS显示磁共振。 光信号具有与第一瓣和第二瓣之间的界面平行的磁场分量。 超材料包括排列成阵列的多个MIS,并且在光波长处提供光学磁化率。 该方法与交替的花瓣形成MIS,并且包括用光信号照射MIS。