SOLID STATE SWITCH POWER EMULATOR
    271.
    发明申请

    公开(公告)号:US20170350941A1

    公开(公告)日:2017-12-07

    申请号:US15615861

    申请日:2017-06-07

    CPC classification number: G01R31/2608 G01R31/31926 G01R31/3271

    Abstract: A solid state switch power emulator circuit, the circuit including a high voltage section including a high voltage power supply (HVPS); a high voltage capacitor (HVC) electronically connected to the HVPS in parallel; a high voltage switch (HVS) electronically connected to the HVC and the HVPS in series; and a high voltage load (HVL) electronically connected to the HVS in series; a low voltage section including a low voltage power supply (LVPS); a low voltage capacitor (LVC) electronically connected to the LVPS in parallel; a low voltage switch (LVS) electronically connected to the LVPS and the LVC in series; a low voltage load (LVL) electronically connected to the LVS in series; and a high voltage diode (HVD) electronically connected to the LVL in series, wherein voltage levels associated with the low voltage section are less than voltage levels associated with the high voltage section.

    Nano structured paraelectric or superparaelectric varactors for agile electronic systems

    公开(公告)号:US09666729B2

    公开(公告)日:2017-05-30

    申请号:US14490777

    申请日:2014-09-19

    Abstract: An electronic device in the form a two-dimensional array of nanopillars extending generally normal to a substrate is provided. The nanopillars are made from a paraelectric or superparaelectric material. In addition, a linear dielectric medium is located between individual nanopillars. A two-dimensional array of paraelectric or superparaelectric nanopillars and a linear dielectric medium form the effective dielectric medium of a paraelectric or superparaelectric varactor. In some instances, the nanopillars are cylindrical nanopillars that have an average diameter and/or average height/length between 1-300 nanometers. In other instances, the nanopillars are quasi-nanoparticles that form self-aligned nano-junctions. In addition, each of the nanopillars has a single paraelectric or superparaelectric dipole domain therewithin. As such, each of the nanopillars can be void of crystallographic defects, polycrystallinity, interactions between ferroic domains, and defects due to ferroic domain walls.

    METHODS AND SYSTEMS FOR DEFENDING CYBER ATTACK IN REAL-TIME
    280.
    发明申请
    METHODS AND SYSTEMS FOR DEFENDING CYBER ATTACK IN REAL-TIME 审中-公开
    实时保护网络攻击的方法和系统

    公开(公告)号:US20170046519A1

    公开(公告)日:2017-02-16

    申请号:US15213434

    申请日:2016-07-19

    Inventor: Hasan Cam

    CPC classification number: G06F21/577 G06N5/043 G06N7/005

    Abstract: Provided are processes of monitoring or modifying a network of electronically connected assets that dynamically builds relationships and dependencies among detected vulnerabilities in one or more of the assets and sensor measurements so that risk assessment can be achieved more accurately and in real-time. A process includes: identifying a plurality of vulnerabilities on a network of electronically interconnected devices representing one or more critical assets; determining dependencies between each vulnerability in the plurality of vulnerabilities; creating a hidden Markov model representing an attack state of each vulnerability of the plurality of vulnerabilities; determining the exploit likelihood of each of the attack states at a first time; determining the most probable sequences or paths of the attack states; and identifying dynamically the risk of one or more of the critical assets based on the sequences or paths of attack states.

    Abstract translation: 提供了监控或修改电子连接资产网络的过程,该网络在一个或多个资产和传感器测量中动态建立检测到的漏洞之间的关系和依赖关系,从而可以更准确和实时地实现风险评估。 一个过程包括:识别代表一个或多个关键资产的电子互连设备的网络上的多个脆弱性; 确定所述多个漏洞中的每个漏洞之间的依赖关系; 创建代表多个漏洞的每个漏洞的攻击状态的隐马尔可夫模型; 确定每个攻击状态在第一时间的利用可能性; 确定攻击状态的最可能的序列或路径; 以及基于攻击状态的序列或路径动态地识别一个或多个关键资产的风险。

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