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    • 3. 发明授权
    • Electronic package
    • 电子包装
    • US08173911B2
    • 2012-05-08
    • US12626361
    • 2009-11-25
    • Michael R. HughesJames Hebert
    • Michael R. HughesJames Hebert
    • H01R4/48H05K9/00
    • H05K9/0045
    • The present invention relates to a device package, such as an electronic system package, that is suitable for use in harsh military or commercial environments. The package components, including a base enclosure and mating cover, comprise a series of interconnected electrically conductive materials, forming a tortuous electrically conductive path, that advantageously shield electromagnetic interference (“EMI”). The electrically conductive, EMI-shielding layers and other coated layers (e.g., insulative electrocoated paint layers) are smooth layers that provide corrosion resistance to the interior and exterior surfaces of the package. The package is also designed such that its components form a water tight seal. Thus, innovatively, the package comprises a combination of components that synergistically shield electromagnetic interference, resist interior and exterior corrosion, and form a water tight seal. The package is configured to pass military specification EMI and salt fog standard testing.
    • 本发明涉及一种适用于苛刻的军事或商业环境的装置封装,例如电子系统封装。 封装部件,包括基座外壳和配对盖,包括一系列互连的导电材料,形成曲折的导电路径,有利于屏蔽电磁干扰(“EMI”)。 导电EMI屏蔽层和其它涂层(例如,绝缘电涂漆层)是提供对包装的内表面和外表面的耐腐蚀性的光滑层。 包装也被设计成使其组件形成防水密封。 因此,创新地,包装包括协同地屏蔽电磁干扰,抵抗内部和外部腐蚀并形成防水密封的组件的组合。 该套件配置为通过军用规格EMI和盐雾标准测试。
    • 4. 发明申请
    • Electronic Package
    • 电子封装
    • US20100128456A1
    • 2010-05-27
    • US12626361
    • 2009-11-25
    • Michael R. HughesJames Hebert
    • Michael R. HughesJames Hebert
    • H05K9/00
    • H05K9/0045
    • The present invention relates to a device package, such as an electronic system package, that is suitable for use in harsh military or commercial environments. The package components, including a base enclosure and mating cover, comprise a series of interconnected electrically conductive materials, forming a tortuous electrically conductive path, that advantageously shield electromagnetic interference (“EMI”). The electrically conductive, EMI-shielding layers and other coated layers (e.g., insulative electrocoated paint layers) are smooth layers that provide corrosion resistance to the interior and exterior surfaces of the package. The package is also designed such that its components form a water tight seal. Thus, innovatively, the package comprises a combination of components that synergistically shield electromagnetic interference, resist interior and exterior corrosion, and form a water tight seal. The package is configured to pass military specification EMI and salt fog standard testing.
    • 本发明涉及一种适用于苛刻的军事或商业环境的装置封装,例如电子系统封装。 封装部件,包括基座外壳和配对盖,包括一系列互连的导电材料,形成曲折的导电路径,有利于屏蔽电磁干扰(“EMI”)。 导电EMI屏蔽层和其它涂层(例如,绝缘电涂漆层)是提供对包装的内表面和外表面的耐腐蚀性的光滑层。 包装也被设计成使其组件形成防水密封。 因此,创新地,包装包括协同地屏蔽电磁干扰,抵抗内部和外部腐蚀并形成防水密封的组件的组合。 该套件配置为通过军用规格EMI和盐雾标准测试。
    • 5. 发明授权
    • Compact energy storage system
    • 紧凑型储能系统
    • US5610802A
    • 1997-03-11
    • US447975
    • 1995-05-23
    • Phillip A. EidlerMichael R. Hughes
    • Phillip A. EidlerMichael R. Hughes
    • H01M2/10H01M10/42H02B7/00H02B7/01H02B11/00H02B1/01
    • H02B11/00H02B7/00H02B7/01
    • An energy storage system including a housing adapted to rest on a supporting surface. The housing has a plurality of openings formed therein. Each of a predetermined number of the plurality of openings has a door mounted therein. The housing includes a sump, and located inside the housing are one or more racks. Each of the racks is adapted to hold a plurality of energy storing devices. The racks may include sliding shelves or energy storing device access mechanisms which permit each energy storing device to be moved from a first position to a second position. In addition, and optionally, the racks may be mounted on wheels so that they may be moved within the housing in order to provide access to the energy storing devices mounted thereon.
    • 一种能量存储系统,包括适于搁置在支撑表面上的壳体。 壳体具有形成在其中的多个开口。 预定数量的多个开口中的每一个具有安装在其中的门。 壳体包括贮槽,并且位于壳体内部的是一个或多个机架。 每个机架适于容纳多个能量存储装置。 机架可以包括允许每个能量存储装置从第一位置移动到第二位置的滑动架或能量存储装置进入机构。 此外,并且可选地,机架可以安装在轮子上,使得它们可以在壳体内移动,以便提供对安装在其上的能量存储装置的通路。
    • 6. 发明授权
    • Telescoping material handling bin
    • 伸缩材料处理箱
    • US07819270B1
    • 2010-10-26
    • US12033048
    • 2008-02-19
    • Michael R. Hughes
    • Michael R. Hughes
    • B65D6/28B65D6/00
    • B65D21/086
    • A bulk materials bin is able to contain heavy landscape materials such as gravel. A base has a box shape with an open front along a long side. U shaped side panels nest inside the base for transport. In the extended mode some or all of the side panels are lifted from the base to a desired depth of the bin. Bolts secure the side panels together. Side struts prevent bowing and slipping of bins. A retractable ramp allows front loader to enter the bin for loading/unloading. A lifting bar provides loading/unloading of bins and can lock into place to provide secure storage area for equipment.
    • 散装材料箱能够包含重型景观材料,如砾石。 底座具有长边的敞开前部的箱形。 U型侧板嵌在基座内运输。 在延伸模式中,一些或所有侧板从基座提升到箱的所需深度。 螺栓将侧板固定在一起。 侧支柱防止蹦床和滑倒。 可伸缩的斜坡允许前装载机进入垃圾箱进行装卸。 提升杆提供料仓的装卸,并可锁定到位,为设备提供安全的存放区域。
    • 7. 发明授权
    • Sensor system with improved operator input devices
    • 传感器系统具有改进的操作员输入设备
    • US07253398B2
    • 2007-08-07
    • US10897180
    • 2004-07-22
    • Michael R. HughesThomas M. Sommer
    • Michael R. HughesThomas M. Sommer
    • H01J5/02
    • G03B37/02G03B15/006G03B17/02H04N5/23203
    • A sensor system includes a sensor payload (20) capable of generating image signals, an electronic control unit (ECU) (40) for controlling the sensor payload and a hand held control unit (80) in communication with the ECU for use by an operator to input control commands to the ECU. The hand held control unit (80) includes a front facing control panel surface (84) having control elements distributed thereon and an orthogonally disposed bottom surface (94). A handle (96) extends from the enclosure bottom surface (94) with the handle longitudinal axis disposed at an angle (A) of between 175 and 135 degrees with respect to the control panel surface (84). In a second embodiment, the senor system includes a lap top control unit (LCU) (300) reconfigurable by an operator to swap movable control module (312, 306) from a base unit left side receiving port (320) to a base unit right side receiving port (318) to accommodate both left and right-handed users.
    • 传感器系统包括能够产生图像信号的传感器有效载荷(20),用于控制传感器有效载荷的电子控制单元(ECU)(40)和与ECU通信的手持控制单元(80),以供操作者使用 向ECU输入控制命令。 手持控制单元(80)包括其上分布有控制元件的正面对的控制面(84)和正交配置的底面(94)。 把手(96)从外壳底表面(94)延伸,手柄纵向轴线相对于控制面板表面(84)以相对于控制面板表面(84)的角度(A)设置在175度和135度之间。 在第二实施例中,传感器系统包括膝盖顶部控制单元(LCU)(300),可由操作者重构,以将可移动控制模块(312,306)从基本单元左侧接收端口(320)交换到基座单元 侧接收端口(318)以容纳左手和右手用户。
    • 8. 发明授权
    • Network clock synchronization using total-field magnetometers and the spatial coherence of the earth's geomagnetic field
    • 使用全场磁力计的网络时钟同步和地球地磁场的空间相干性
    • US08954608B1
    • 2015-02-10
    • US13355141
    • 2012-01-20
    • Mihajlo TomicMichael R. Hughes
    • Mihajlo TomicMichael R. Hughes
    • G06F15/16
    • G06F1/12
    • A method for synchronizing network clocks comprising the following steps: measuring with a first magnetometer the geomagnetic field at a first network node; processing data measured by the first magnetometer to generate first sensor spatially-coherent data; measuring with a second total field magnetometer the Earth's magnetic field at a second network node, wherein the second magnetometer is physically separated from the first magnetometer by a distance of up to one kilometer; processing data measured by the second magnetometer to generate second sensor spatially-coherent data; transmitting the first sensor spatially-coherent data from the first network node to the second network node; calculating a clock drift between the first and second network nodes based on the first sensor spatially-coherent data and the second sensor spatially-coherent data; and adjusting the second node system clock to match the first node system clock based on the calculated clock drift.
    • 一种用于同步网络时钟的方法,包括以下步骤:用第一磁力计测量第一网络节点处的地磁场; 处理由第一磁力计测量的数据以产生第一传感器空间相干数据; 用第二总磁场强度计测量第二网络节点处的地球磁场,其中第二磁力计在物理上与第一磁力计分离距离达一公里; 处理由第二磁力计测量的数据以产生第二传感器空间相干数据; 将所述第一传感器空间相干数据从所述第一网络节点传送到所述第二网络节点; 基于所述第一传感器空间相干数据和所述第二传感器空间相干数据,计算所述第一和第二网络节点之间的时钟漂移; 以及基于所计算的时钟漂移来调整所述第二节点系统时钟以匹配所述第一节点系统时钟。