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    • 3. 发明申请
    • Method And System For Femtocell Positioning Using Low Earth Orbit Satellite Signals
    • 使用低地球轨道卫星信号进行毫微微小区定位的方法和系统
    • US20130150027A1
    • 2013-06-13
    • US13587193
    • 2012-08-16
    • Maxime LeclercqIoannis SpyropoulosNishant Kumar
    • Maxime LeclercqIoannis SpyropoulosNishant Kumar
    • H04W64/00
    • H04B7/18554G01S19/13G01S19/425H04W4/021H04W64/003H04W84/045
    • Methods and systems for femtocell positioning using low Earth orbit (LEO) satellite signals may comprise receiving an initial position of a wireless communication device (WCD) as entered by as user, service provider, or manufacturer, wherein the WCD comprises a LEO satellite signal receiver path (Rx). The WCD may be operable to provide wireless communication services to other WCDs. LEO signals may be received for determining a position of the WCD, which may be compared to a threshold radius defined by the initial position. The communication services may be enabled when the measured position is within the threshold radius. The WCD may comprise a femtocell device, a WiFi access point, or may provide cellular telephone service to the other WCDs. The position of the WCD may be measured upon powering up of the WCD, on a periodic basis, and/or when one or more motion sensors in the WCD detect motion.
    • 使用低地球轨道(LEO)卫星信号的毫微微小区定位的方法和系统可以包括接收由用户,服务提供商或制造商输入的无线通信设备(WCD)的初始位置,其中WCD包括LEO卫星信号接收机 路径(Rx)。 WCD可以用于向其他WCD提供无线通信服务。 可以接收LEO信号以确定WCD的位置,其可以与由初始位置定义的阈值半径进行比较。 当测量位置在阈值半径内时,可以启用通信服务。 WCD可以包括毫微微蜂窝设备,WiFi接入点,或者可以向其他WCD提供蜂窝电话服务。 WCD的位置可以在WCD的定时基础上和/或当WCD中的一个或多个运动传感器检测运动时测量。
    • 4. 发明授权
    • Method and system for repurposing of a global navigation satellite system receiver for receiving low-earth orbit communication satellite signals
    • 一种用于接收低地球轨道通信卫星信号的全球导航卫星系统接收机的再利用方法和系统
    • US09077429B2
    • 2015-07-07
    • US13413916
    • 2012-03-07
    • Maxime LeclercqIoannis SpyropoulosNishant KumarAnand Anandakumar
    • Maxime LeclercqIoannis SpyropoulosNishant KumarAnand Anandakumar
    • H04B7/185
    • G01S19/46H04B7/1853H04B7/18547H04W64/006
    • Methods and systems for repurposing of a global navigation satellite system receiver for receiving low-earth orbit (LEO) communication satellite timing signals may comprise receiving medium Earth orbit (MEO) satellite signals and/or LEO signals in a receiver of the communication device. A radio frequency (RF) path may be configured to down-convert either of the signals, and a position of the communication device may be calculated utilizing the down-converted signals. The signals may be down-converted utilizing a local oscillator signal generated by a phase locked loop (PLL), which may be delta-sigma modulated via a fractional-N divider. A clock signal may be communicated to the PLL utilizing a temperature-compensated crystal oscillator. The signals may be down-converted to an intermediate frequency or down-converted directly to baseband frequencies. The signals may be processed utilizing surface acoustic wave (SAW) filters. In-phase and quadrature signals may be processed in the RF path utilizing a two-stage polyphase filter.
    • 用于重新利用用于接收低地球轨道(LEO)通信卫星定时信号的全球导航卫星系统接收机的方法和系统可以包括在通信设备的接收机中接收介质地球轨道(MEO)卫星信号和/或LEO信号。 射频(RF)路径可以被配置为下变频信号中的任一个,并且可以利用下变频信号来计算通信设备的位置。 信号可以利用由锁相环(PLL)产生的本地振荡器信号进行下变频,锁相环(PLL)可经由分数N分频器进行Δ-Σ调制。 可以使用温度补偿晶体振荡器将时钟信号传送到PLL。 信号可以被下变频到中频或者直接下变频到基带频率。 可以使用表面声波(SAW)滤波器来处理信号。 可以使用两级多相滤波器在RF路径中处理同相和正交信号。
    • 6. 发明申请
    • Method And System For Repurposing Of A Global Navigation Satellite System Receiver For Receiving Low-Earth Orbit Communication Satellite Signals
    • 用于重新接收低地球轨道通信卫星信号的全球导航卫星系统接收机的方法和系统
    • US20130107910A1
    • 2013-05-02
    • US13413916
    • 2012-03-07
    • Maxime LeclercqIoannis SpyropoulosNishant KumarAnand Anandakumar
    • Maxime LeclercqIoannis SpyropoulosNishant KumarAnand Anandakumar
    • H04B1/7073
    • G01S19/46H04B7/1853H04B7/18547H04W64/006
    • Methods and systems for repurposing of a global navigation satellite system receiver for receiving low-earth orbit (LEO) communication satellite timing signals may comprise receiving medium Earth orbit (MEO) satellite signals and/or LEO signals in a receiver of the communication device. A radio frequency (RF) path may be configured to down-convert either of the signals, and a position of the communication device may be calculated utilizing the down-converted signals. The signals may be down-converted utilizing a local oscillator signal generated by a phase locked loop (PLL), which may be delta-sigma modulated via a fractional-N divider. A clock signal may be communicated to the PLL utilizing a temperature-compensated crystal oscillator. The signals may be down-converted to an intermediate frequency or down-converted directly to baseband frequencies. The signals may be processed utilizing surface acoustic wave (SAW) filters. In-phase and quadrature signals may be processed in the RF path utilizing a two-stage polyphase filter.
    • 用于重新利用用于接收低地球轨道(LEO)通信卫星定时信号的全球导航卫星系统接收机的方法和系统可以包括在通信设备的接收机中接收介质地球轨道(MEO)卫星信号和/或LEO信号。 射频(RF)路径可以被配置为下变频信号中的任一个,并且可以利用下变频信号来计算通信设备的位置。 信号可以利用由锁相环(PLL)产生的本地振荡器信号进行下变频,锁相环(PLL)可经由分数N分频器进行Δ-Σ调制。 可以使用温度补偿晶体振荡器将时钟信号传送到PLL。 信号可以被下变频到中频或者直接下变频到基带频率。 可以使用表面声波(SAW)滤波器来处理信号。 可以使用两级多相滤波器在RF路径中处理同相和正交信号。
    • 7. 发明授权
    • Method and system for indoor global navigation satellite system detection utilizing low-earth orbit satellite signals
    • 使用低地球轨道卫星信号的室内全球导航卫星系统检测方法和系统
    • US09151843B2
    • 2015-10-06
    • US13546794
    • 2012-07-11
    • Maxime LeclercqIoannis SpyropoulosNishant Kumar
    • Maxime LeclercqIoannis SpyropoulosNishant Kumar
    • G01S19/34G01S19/05G01S19/26G01S19/24
    • G01S19/26G01S19/05G01S19/24G01S19/34
    • Methods and systems for indoor global navigation satellite system detection utilizing low Earth orbit satellite signals may comprise receiving low Earth orbit (LEO) RF satellite signals utilizing a LEO satellite signal receiver path (LEO Rx) in a wireless communication device comprising the LEO satellite signal receiver path and a medium Earth orbit satellite signal receiver path (MEO Rx). A received signal strength indicator (RSSI) may be measured for the received LEO signals and an expected received MEO signal strength may be calculated. A power level of the MEO Rx may be configured based on the calculated MEO signal strength by powering down when the calculated expected MEO signal strength is below a threshold level for MEO positioning purposes and/or powered up when it increases above the threshold level. The RSSI may be measured at a plurality of points along the LEO Rx.
    • 使用低地球轨道卫星信号的室内全球导航卫星系统检测的方法和系统可包括在包括LEO卫星信号接收机的无线通信设备中利用LEO卫星信号接收机路径(LEO Rx)接收低地球轨道(LEO)RF卫星信号 路径和中等地球轨道卫星信号接收机路径(MEO Rx)。 可以测量接收到的LEO信号的接收信号强度指示符(RSSI),并且可以计算预期接收的MEO信号强度。 当计算出的预期MEO信号强度低于阈值水平以达到MEO定位目的时,和/或当其增加到高于阈值水平时通电时,MEO Rx的功率电平可以基于所计算出的MEO信号强度来配置。 可以沿着LEO Rx的多个点测量RSSI。
    • 8. 发明申请
    • Method And System For An Embedded And Hosted Architecture For A Medium Earth Orbit Satellite And Low Earth Orbit Satellite Positioning Engine
    • 用于中等轨道卫星和低地球轨道卫星定位引擎的嵌入式和托管架构的方法和系统
    • US20130187810A1
    • 2013-07-25
    • US13557413
    • 2012-07-25
    • Maxime LeclercqIoannis SpyropoulosNishant Kumar
    • Maxime LeclercqIoannis SpyropoulosNishant Kumar
    • G01S19/46
    • G01S19/46G01S19/37
    • Methods and systems for an embedded and hosted architecture for a medium Earth orbit satellite and low Earth orbit satellite positioning engine may comprise receiving LEO RF satellite signals and MEO satellite signals in a wireless communication device (WCD) comprising a low Earth orbit (LEO) satellite signal receiver path, a medium Earth orbit (MEO) satellite signal receiver path, and a dual-mode position engine comprising a coarse location module and a fine location module. The received LEO and MEO signals may be demodulated and coarse and fine positions may be determined from the demodulated signals utilizing the dual-mode position engine. A configuration input may be communicated to the position engine, wherein the configuration input comprises an initial position estimate for the WCD. The coarse position may be determined utilizing demodulated LEO signals and/or demodulated MEO signals. The fine position may be determined utilizing demodulated LEO signals and/or demodulated MEO signals.
    • 用于中等地球轨道卫星和低地球轨道卫星定位引擎的嵌入式和托管架构的方法和系统可包括在包括低地球轨道(LEO)卫星的无线通信设备(WCD)中接收LEO RF卫星信号和MEO卫星信号 信号接收机路径,中等地球轨道(MEO)卫星信号接收机路径,以及包括粗定位模块和精细位置模块的双模式位置引擎。 可以解调所接收的LEO和MEO信号,并且可以使用双模式位置引擎从解调信号确定粗略和精细位置。 配置输入可以被传送到位置引擎,其中配置输入包括WCD的初始位置估计。 可以使用解调的LEO信号和/或解调的MEO信号来确定粗略位置。 可以利用解调的LEO信号和/或解调的MEO信号来确定精细位置。
    • 9. 发明申请
    • METHOD AND SYSTEM FOR INDOOR GLOBAL NAVIGATION SATELLITE SYSTEM DETECTION UTILIZING LOW-EARTH ORBIT SATELLITE SIGNALS
    • 用于室内全球导航卫星系统的方法和系统利用低地球卫星信号
    • US20130106653A1
    • 2013-05-02
    • US13546794
    • 2012-07-11
    • Maxime LeclercqIoannis SpyropoulosNishant Kumar
    • Maxime LeclercqIoannis SpyropoulosNishant Kumar
    • G01S19/11
    • G01S19/26G01S19/05G01S19/24G01S19/34
    • Methods and systems for indoor global navigation satellite system detection utilizing low Earth orbit satellite signals may comprise receiving low Earth orbit (LEO) RF satellite signals utilizing a LEO satellite signal receiver path (LEO Rx) in a wireless communication device comprising the LEO satellite signal receiver path and a medium Earth orbit satellite signal receiver path (MEO Rx). A received signal strength indicator (RSSI) may be measured for the received LEO signals and an expected received MEO signal strength may be calculated. A power level of the MEO Rx may be configured based on the calculated MEO signal strength by powering down when the calculated expected MEO signal strength is below a threshold level for MEO positioning purposes and/or powered up when it increases above the threshold level. The RSSI may be measured at a plurality of points along the LEO Rx.
    • 使用低地球轨道卫星信号的室内全球导航卫星系统检测的方法和系统可包括在包括LEO卫星信号接收机的无线通信设备中利用LEO卫星信号接收机路径(LEO Rx)接收低地球轨道(LEO)RF卫星信号 路径和中等地球轨道卫星信号接收机路径(MEO Rx)。 可以测量接收到的LEO信号的接收信号强度指示符(RSSI),并且可以计算预期接收的MEO信号强度。 当计算出的预期MEO信号强度低于阈值水平以达到MEO定位目的时,和/或当其增加到高于阈值水平时通电时,MEO Rx的功率电平可以基于所计算出的MEO信号强度来配置。 可以沿着LEO Rx的多个点测量RSSI。
    • 10. 发明授权
    • Method and system for a dual mode global navigation satellite system
    • 双模式全球导航卫星系统的方法和系统
    • US09429658B2
    • 2016-08-30
    • US13462358
    • 2012-05-02
    • Maxime LeclercqIoannis SpyropoulosNishant Kumar
    • Maxime LeclercqIoannis SpyropoulosNishant Kumar
    • G01S19/42G01S19/33G01S19/34
    • G01S19/423G01S19/33G01S19/34
    • Methods and systems for a dual mode global navigation satellite system may comprise selectively enabling a medium Earth orbit (MEO) radio frequency (RF) path and a low Earth orbit (LEO) RF path in a wireless communication device to receive RF satellite signals. The signals may be down-converted to determine a position of the wireless device. The signals may be down-converted utilizing local oscillator signals from a phase locked loop (PLL). The RF paths may be time-division duplexed by the selective enabling of the MEO and LEO paths. Acquisition and tracking modules in the MEO RF path may be blanked when the LEO RF path is enabled. The MEO RF path may be powered down when the LEO RF path is enabled. The signals may be down-converted to an intermediate frequency before down-converting to baseband frequencies or may be down-converted directly to baseband frequencies. In-phase and quadrature signals may be processed.
    • 用于双模式全球导航卫星系统的方法和系统可以包括在无线通信设备中选择性地启用介质地球轨道(MEO)射频(RF)路径和低地球轨道(LEO)RF路径以接收RF卫星信号。 信号可以被下变频以确定无线设备的位置。 可以使用来自锁相环(PLL)的本地振荡器信号来对信号进行下变频。 RF路径可以通过MEO和LEO路径的选择性启用而被时分双工。 当LEO RF路径启用时,MEO RF路径中的采集和跟踪模块可能会被消隐。 当LEO射频路径启用时,MEO RF路径可能会关闭电源。 信号可以在下变频到基带频率之前下变频到中频,或者可以直接下变频到基带频率。 可以处理同相和正交信号。