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    • 4. 发明申请
    • OPTICAL NAVIGATION AID WITHIN A BEACON FIELD
    • 光束导航在贝塔领域
    • US20120089323A1
    • 2012-04-12
    • US13271667
    • 2011-10-12
    • G. Edzko Smid
    • G. Edzko Smid
    • G01C21/00
    • G01C21/20G01S13/876G01S2013/466G05D1/0234G05D2201/0208
    • A secondary optical system for object navigation in an array of beacons is provided that includes an optical source having at least one optical emitter emitting an optical signal and that is mounted to either the moving object or a beacon of the array of beacons. The moving object in simultaneous radio frequency communication the array of beacons to determine dynamic position of the object. An optical detector is mounted to the other of a moving object or the beacon of the array of beacons and the optical detector receives the optical signal when line of sight exists between the moving object and a beacon of the array of beacons. Electronics are provided for determining the dynamic position of the moving object uses weighting factor that favors the communication and at least two beacons of the array of beacons for which a moving object-beacon optical line of sight exists.
    • 提供了一种用于信标阵列中的物体导航的辅助光学系统,其包括具有发射光信号的至少一个光发射器的光源,并且被安装到移动物体或信标阵列的信标。 移动物体在同时射频通信的信标阵列中确定物体的动态位置。 光检测器被安装到移动物体中的另一个或信标阵列的信标,并且当检测器与信标阵列的信标之间存在视线时,光学检测器接收光信号。 电子设备用于确定运动物体的动态位置使用有利于通信的加权因子和存在运动物体信标光学视线的信标阵列的至少两个信标。
    • 5. 发明申请
    • INTERTIAL TRACKING SYSTEM WITH PROVISION FOR POSITION CORRECTION
    • 具有位置校正功能的局部追踪系统
    • US20110313716A1
    • 2011-12-22
    • US13031933
    • 2011-02-22
    • G. Edzko SmidThomas P. Stiglich
    • G. Edzko SmidThomas P. Stiglich
    • G06F15/00G01P15/08
    • G01C21/165
    • A subject location tracking process is provided that includes the attachment of a system to a subject where the system includes a radiofrequency sensor integration module, an inertial tracking module, and a microprocessor. Radiofrequency signals are communicated from the radiofrequency sensor integration module to a remote radiofrequency transceiver beacon. A measured range is determined between the radiofrequency sensory integration module and the beacon. An error value E is then computed between the measured range and a predicted range. The predicted range is computed from the inertial tracking module alone based on positional data as to location and orientation of the system. The location data of the subject is determined with a microprocessor and displayed at the location. The present invention operates to provide a high degree of accuracy as to the position of a subject in spite of intermediate obstructions and without reliance on global position satellite systems, fixed reference signals, or line of sight.
    • 提供了一种主题位置跟踪过程,其包括将系统附接到系统包括射频传感器集成模块,惯性跟踪模块和微处理器的对象。 射频信号从射频传感器集成模块传送到远程射频收发信标。 在射频感觉整合模块和信标之间确定测量范围。 然后在测量范围和预测范围之间计算误差值E. 基于关于系统的位置和方位的位置数据,单独地从惯性跟踪模块计算预测范围。 用微处理器确定被摄体的位置数据,并显示在该位置。 尽管中间障碍物并且不依赖于全球定位卫星系统,固定的参考信号或视线,本发明的操作可以高度准确地提供对象的位置。
    • 6. 发明申请
    • DISTANCE SEPARATION TRACKING SYSTEM
    • 距离分离跟踪系统
    • US20110148710A1
    • 2011-06-23
    • US12974672
    • 2010-12-21
    • G. Edzko SmidThomas P. Stiglich
    • G. Edzko SmidThomas P. Stiglich
    • G01S1/30
    • G01S13/84G01S13/46G01S2013/466
    • A distance separation tracking process is provided that includes the transmission of a periodic radio frequency original signal from a beacon transceiver. The original periodic signal from the beacon transceiver is received at a remote target transceiver as a target received periodic signal. The target retransmits the received periodic signal to the beacon transceiver as a return periodic signal. Data points of the return periodic signal are sampled and used to calculate a phase differential between the original periodic signal and the return periodic signal that correlates to the distance separation range between the beacon transceiver and the target transceiver.
    • 提供了一种距离分离跟踪处理,其包括来自信标收发器的周期性射频原始信号的传输。 来自信标收发器的原始周期信号作为目标接收周期信号在远程目标收发器处被接收。 目标将接收到的周期信号重传到信标收发机作为返回周期信号。 返回周期信号的数据点被采样并用于计算与信标收发器和目标收发器之间的距离分离范围相关的原始周期信号和返回周期信号之间的相位差。
    • 7. 发明授权
    • Intertial tracking system with provision for position correction
    • 间距跟踪系统,提供位置校正
    • US08825435B2
    • 2014-09-02
    • US13031933
    • 2011-02-22
    • G. Edzko SmidThomas P. Stiglich
    • G. Edzko SmidThomas P. Stiglich
    • G06F15/00G01P15/08
    • G01C21/165
    • A subject location tracking process is provided that includes the attachment of a system to a subject where the system includes a radiofrequency sensor integration module, an inertial tracking module, and a microprocessor. Radiofrequency signals are communicated from the radiofrequency sensor integration module to a remote radiofrequency transceiver beacon. A measured range is determined between the radiofrequency sensory integration module and the beacon. An error value E is then computed between the measured range and a predicted range. The predicted range is computed from the inertial tracking module alone based on positional data as to location and orientation of the system. The location data of the subject is determined with a microprocessor and displayed at the location. The present invention operates to provide a high degree of accuracy as to the position of a subject in spite of intermediate obstructions and without reliance on global position satellite systems, fixed reference signals, or line of sight.
    • 提供了一种主题位置跟踪过程,其包括将系统附接到系统包括射频传感器集成模块,惯性跟踪模块和微处理器的对象。 射频信号从射频传感器集成模块传送到远程射频收发信标。 在射频感觉整合模块和信标之间确定测量范围。 然后在测量范围和预测范围之间计算误差值E. 基于关于系统的位置和方位的位置数据,单独地从惯性跟踪模块计算预测范围。 用微处理器确定被摄体的位置数据,并显示在该位置。 尽管中间障碍物并且不依赖于全球定位卫星系统,固定的参考信号或视线,本发明的操作可以高度准确地提供对象的位置。
    • 10. 发明授权
    • Optical navigation aid within a beacon field
    • 信标场内的光导航辅助
    • US08630799B2
    • 2014-01-14
    • US13271667
    • 2011-10-12
    • G. Edzko Smid
    • G. Edzko Smid
    • G01C21/04
    • G01C21/20G01S13/876G01S2013/466G05D1/0234G05D2201/0208
    • A secondary optical system for object navigation in an array of beacons is provided that includes an optical source having at least one optical emitter emitting an optical signal and that is mounted to either the moving object or a beacon of the array of beacons. The moving object in simultaneous radio frequency communication the array of beacons to determine dynamic position of the object. An optical detector is mounted to the other of a moving object or the beacon of the array of beacons and the optical detector receives the optical signal when line of sight exists between the moving object and a beacon of the array of beacons. Electronics are provided for determining the dynamic position of the moving object uses weighting factor that favors the communication and at least two beacons of the array of beacons for which a moving object-beacon optical line of sight exists.
    • 提供了一种用于信标阵列中的物体导航的辅助光学系统,其包括具有发射光信号的至少一个光发射器的光源,并且被安装到移动物体或信标阵列的信标。 移动物体在同时射频通信的信标阵列中确定物体的动态位置。 光检测器被安装到移动物体中的另一个或信标阵列的信标,并且当检测器与信标阵列的信标之间存在视线时,光学检测器接收光信号。 电子设备用于确定运动物体的动态位置使用有利于通信的加权因子和存在运动物体信标光学视线的信标阵列的至少两个信标。