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    • 2. 发明申请
    • DIRECTION FINDING OF WIRELESS DEVICES
    • 无线设备方向查找
    • US20100321240A1
    • 2010-12-23
    • US12487469
    • 2009-06-18
    • Peter DusaitisTyler RobinsonJohn J. KellyJoseph Warner
    • Peter DusaitisTyler RobinsonJohn J. KellyJoseph Warner
    • G01S5/02
    • G01S5/04G01S3/785
    • Techniques are disclosed that allow for the detection, identification, and direction finding of wireless emitters in a given multipath environment. For example, the techniques can be used to detect and identify a line of bearing (LOB) to an IEEE 802.11 emitter in a building or in an open field or along a roadside. In some cases, multiple LOBs can be used to geolocate the target emitter if so desired. The techniques can be embodied, for instance, in a handheld device that can survey the target environment, detect an IEEE 802.11 emitter and identify it by MAC address, and then precisely determine the LOB to that emitter. In some cases, a sample array of response data from the target emitter is correlated to a plurality of calibrated arrays having known azimuths to determine the LOB to the target emitter.
    • 公开了允许在给定的多路径环境中的无线发射器的检测,识别和方向发现的技术。 例如,这些技术可用于检测并识别建筑物中的一个IEEE 802.11发射器,或者在开放场或沿着路边识别一条承载线(LOB)。 在某些情况下,如果需要,可以使用多个LOB来定位目标发射器。 这些技术可以例如在可以测量目标环境的手持设备中实现,检测IEEE 802.11发射器并通过MAC地址识别,然后精确地确定到该发射器的LOB。 在一些情况下,来自目标发射器的响应数据的样本阵列与具有已知方位角的多个校准阵列相关,以确定到目标​​发射器的LOB。
    • 5. 发明授权
    • Pipe coupling
    • 管接头
    • US4457541A
    • 1984-07-03
    • US309439
    • 1981-10-07
    • John J. KellyJeremy R. Hughes
    • John J. KellyJeremy R. Hughes
    • F16L21/04F16L41/02F16L55/00F16L21/06
    • F16L41/021F16L21/04
    • The pipe coupling has an annular flange member having a tapered inner surface portion and a plurality of holes therethrough. Bolts project through the holes. A pipe-engageable collet is mounted in the flange member and has a tapered outer surface portion engaged with the tapered inner surface portion. An annular, retainer element engages a surface of the flange member from which the bolts project and overlaps an outer peripheral portion of the seal back-up member and has a plurality of holes therethrough which are in substantial alignment with the holes through the flange member. The bolts project through the holes in the retainer element whereby the bolts and the retainer element are retained in position by virtue of their mutual interengagement and the seal back-up member and collet are retained in position by virtue of the engagement of the retainer element with the seal back-up member. The coupling can be relatively easily handled and easily manipulated into position even in a confined space without risk of the back-up member, the collet, and/or the bolts becoming inadvertently disengaged.
    • 管接头具有环形凸缘构件,其具有锥形内表面部分和穿过其中的多个孔。 螺栓通过孔突出。 管接合夹头安装在凸缘构件中,并且具有与锥形内表面部分接合的锥形外表面部分。 环形保持器元件接合凸缘构件的表面,螺栓从该凸缘构件的表面突出并与密封件支撑构件的外周部分重叠,并且具有穿过其的多个孔,该多个孔通过凸缘构件与孔大致对准。 螺栓突出通过保持器元件中的孔,由此螺栓和保持器元件由于它们的相互接合而保持在适当位置,并且密封件支撑构件和夹头由于保持器元件与 密封件备件。 联轴器可以相对容易地处理,并且即使在密闭空间中也容易操纵到位,而不会造成备用构件,夹头和/或螺栓无意中脱离的风险。
    • 6. 发明申请
    • ADJUSTABLE PLANT SUPPORT
    • 可调整植物支持
    • US20150033623A1
    • 2015-02-05
    • US13953824
    • 2013-07-30
    • Ed MauroJohn J. Kelly
    • Ed MauroJohn J. Kelly
    • A01G9/12
    • A01G9/12
    • An adjustable plant support is disclosed. The support includes an upright support, a plurality of holes disposed along a length of the upright support, and at least one support arm configured to be removably secured to the upright support through a selected hole of the plurality of holes. The support arm also includes a hook at a distal end of the support arm and is configured to define an interior portion of the support arm and adapted to support a plant. A pin of the support arm is at a proximate end of the support arm, where a free end of the pin is configured to slidingly engage the selected hole. In addition, the pin of the support arm extends back towards the U-shape collar in a different lateral plane, where a width of the U-shaped collar is configured to slidingly engage an outer surface of the upright support.
    • 公开了可调节的植物支架。 所述支撑件包括直立支撑件,沿所述直立支撑件的长度设置的多个孔以及至少一个支撑臂,所述至少一个支撑臂构造成通过所述多个孔的选定孔可移除地固定到所述直立支撑件。 支撑臂还包括在支撑臂的远端处的钩,并且构造成限定支撑臂的内部并适于支撑植物。 支撑臂的销在支撑臂的近端处,其中销的自由端构造成滑动地接合所选择的孔。 此外,支撑臂的销在不同的横向平面中向U形领环延伸,其中U形环的宽度被构造成滑动地接合直立支撑件的外表面。
    • 7. 发明授权
    • Locationing of communication devices
    • 通讯设备的定位
    • US08089406B2
    • 2012-01-03
    • US12487544
    • 2009-06-18
    • Milton JanoskyTyler RobinsonJohn J. KellyPeter Dusaitis
    • Milton JanoskyTyler RobinsonJohn J. KellyPeter Dusaitis
    • G01S3/02
    • G01S3/785G01S5/04G01S13/751
    • Techniques are disclosed for detecting, identifying, and/or geolocating RF communications devices, such as FRS radios, high-power cordless phones, cellular phones, and other wireless communications receiver devices. The techniques exploit a vulnerability present in such devices, and can be used to detect (e.g., up to 300 meters) and geolocate (e.g., within +/−3 meters) those devices. The vulnerability is that receiver circuitry of the target devices emanate RF mixing products when flooded with RF energy or suitable stimulus signal. Such a response to a stimulus signal is unexpected or otherwise unintentional, as receiver circuitry is generally not designed to transmit information. The RF frequency, phase, and amplitude of these sideband RF responses can be used to detect and location the devices. The techniques work in the presence of interference, and can be used on devices that are powered on or off.
    • 公开了用于检测,识别和/或定位RF通信设备(例如FRS无线电,大功率无绳电话,蜂窝电话和其他无线通信接收机设备)的技术。 这些技术利用了这种设备中存在的漏洞,并且可以用于检测(例如,高达300米)和地理位置(例如,在+/- 3米内)这些设备。 该漏洞是目标器件的接收器电路在充满RF能量或合适的激励信号时发出RF混合产物。 对刺激信号的这种响应是意外的或其他无意的,因为接收机电路通常不被设计为传送信息。 这些边带RF响应的RF频率,相位和幅度可用于检测和定位设备。 这些技术在存在干扰的情况下工作,并且可以在通电或关闭的设备上使用。
    • 8. 发明授权
    • Direction finding and geolocation of wireless devices
    • 无线设备的方向查找和地理定位
    • US07978139B2
    • 2011-07-12
    • US12487511
    • 2009-06-18
    • Tyler RobinsonPeter DusaitisJohn J. KellyJoseph Warner
    • Tyler RobinsonPeter DusaitisJohn J. KellyJoseph Warner
    • G01S3/02
    • G01S3/48G01S5/0252
    • Techniques are disclosed that allow for the detection, identification, direction finding, and geolocation of wireless emitters in a given multipath environment. For example, the techniques can be used to detect and identify a line of bearing (LOB) to an IEEE 802.11 emitter in a building or in an open field or along a roadside. Multiple LOBs computed from different geographic locations can be used to geolocate the target emitter. The techniques can be embodied, for instance, in a vehicle-based device that can survey the target environment, detect an IEEE 802.11 emitter and identify it by MAC address, and then determine various LOBs to that emitter to geolocate the emitter. In some cases, a sample array of response data from the target emitter is correlated to a plurality of calibrated arrays having known azimuths to determine the LOB to the target emitter.
    • 公开了允许在给定的多路径环境中的无线发射器的检测,识别,方向发现和地理定位的技术。 例如,这些技术可用于检测并识别建筑物中的一个IEEE 802.11发射器,或者在开放场或沿着路边识别一条承载线(LOB)。 可以使用从不同地理位置计算的多个LOB来定位目标发射器。 这些技术可以例如在可以测量目标环境的基于车辆的设备中实现,检测IEEE 802.11发射器并通过MAC地址识别它,然后确定到该发射器的各种LOB以对发射器进行地理定位。 在一些情况下,来自目标发射器的响应数据的样本阵列与具有已知方位角的多个校准阵列相关,以确定到目标​​发射器的LOB。
    • 9. 发明授权
    • Apparatus and method for in situ pH measurement of aqueous medium
    • 水介质原位pH测量仪器及方法
    • US5925572A
    • 1999-07-20
    • US907324
    • 1997-08-06
    • Robert H. ByrneRobert D. WaterburyJohn J. KellyBram LeaderRandy RussellCharles W. JonesJoseph R. KolesarSean McElligott
    • Robert H. ByrneRobert D. WaterburyJohn J. KellyBram LeaderRandy RussellCharles W. JonesJoseph R. KolesarSean McElligott
    • G01N21/27G01N21/80G01N21/00
    • G01N21/272
    • A pH sensor based upon spectrophotometric techniques has been developed for in situ analysis of an aqueous medium, e.g., surface seawater. This sensor utilizes a spectrophotometric pH indicator (Thymol Blue), which has been calibrated for use in seawater as a function of temperature and salinity. Shipboard spectrophotometric pH analyses routinely demonstrate a precision on the order of .+-.0.0004 pH units. In situ analysis of seawater pH has demonstrated a precision on the order of .+-.0.001 and an accuracy, using shipboard measurements as a standard, on the order of .+-.0.01. The sensor is a self-contained system that pumps seawater, meters in indicator, and spectrophotometrically determines indicator absorbance cells, each with three wavelength channels, to obtain the spectrophotometric absorbance. The sensor system, rated for depths up to 500 m, provides pH, conductivity, and temperature and can be operated via computer or in a standalone mode with internal data storage. The sensor utilizes less than 12 watts of power and is packaged in an aluminum housing.
    • 已经开发了基于分光光度技术的pH传感器用于水性介质例如表面海水的原位分析。 该传感器使用分光光度计pH指示剂(百里酚蓝),其已经被校准用于海水,作为温度和盐度的函数。 船用分光光度计pH值分析通常显示±0.0004个pH单位的精度。 海水pH值的原位分析表明,使用船上测量作为标准,精度为+/- 0.001,精度为+/- 0.01。 该传感器是一个独立的系统,用于泵送海水,仪表在指示器中,分光光度法测定每个具有三个波长通道的指示剂吸光度单元,以获得分光光度吸光度。 传感器系统的深度达500米,提供pH,电导率和温度,可通过计算机或独立模式进行内部数据存储。 该传感器使用的功率小于12瓦,并封装在铝外壳中。