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    • 31. 发明申请
    • THE PFN/TRAC SYSTEM<TM> FAA UPGRADES FOR ACCOUNTABLE REMOTE AND ROBOTICS CONTROL TO STOP THE UNAUTHORIZED USE OF AIRCRAFT AND TO IMPROVE EQUIPMENT MANAGEMENT AND PUBLIC SAFETY IN TRANSPORTATION
    • PFN / TRAC系统FAA升级用于可靠的远程和机器人控制,以停止未经授权的飞机使用和改进设备管理和公共交通安全
    • WO03029922A2
    • 2003-04-10
    • PCT/US0230857
    • 2002-10-01
    • KLINE & WALKER LLCWALKER RICHARD C
    • WALKER RICHARD C
    • B64C13/20B64D45/00G07C5/00G06F
    • G07C5/008B64C13/20B64D45/0015B64D2045/0035B64D2045/0045B64D2045/0055G08B13/1965G08B27/008G08B31/00Y02T50/44
    • This invention, a Protected Primary Focal Node PFN is a Trusted Remote Activity Controller TRAC and mobile communication router platform that provides accountable remote and robotics control to transportation vehicles by interfacing with the vehicles E/E systems. It connects each vehicle either on the earth's surface or near the earth's surface with application specific intranets for air, sea and land travel, via either host commercial servers or agency providers through wireless communication gateways and then further interfaces these vehicles in a larger machine messaging matrix via wireless and IP protocols to further coordinate movement assess and manage equipment use and impact on the world resources, societies infrastructure and the environment. This filing focuses directly on PFN/TRAC System use to augment and upgrade public safety and security in the Airline Industry and restrict any unauthorized use of an aircraft. Additionally, this application and related filings teaches the PFN/TRAC System use for all vehicle platforms to increase safety and security in a free society like the United State of America. The other related filings instruct in the technology's use for robust and accountable remote control for personal applications, stationary equipment and standalone functions, and coordinates them and interfaces them within the communication matrix. The TRAC controller also performs translation and repeating functions across a wide variety of communication protocols to complete a more mobile flexible matrix or web. This connected communication matrix of computers and humans provides an enhanced Human Machine Interfacing HMI scenario both locally and systemically in real-time for improve equipment management and world stability.
    • 本发明,受保护的主要焦点节点PFN是可信赖的远程活动控制器TRAC和移动通信路由器平台,其通过与车辆E / E系统接口来为运输车辆提供负责任的远程和机器人控制。 它通过无线通信网关通过主机商业服务器或代理提供商将每个车辆在地球表面或地球表面附近与应用专用的空中,海上和陆地旅行的内部网络连接,然后在更大的机器消息矩阵中将这些车辆进一步接口 通过无线和IP协议进一步协调运动评估和管理设备使用和对世界资源,社会基础设施和环境的影响。 该文件直接关注PFN / TRAC系统用途,以增强和提升航空业的公共安全和安保,并限制任何未经授权的飞机使用。 此外,该应用程序和相关文件教导了PFN / TRAC系统用于所有车辆平台,以增加像美利坚合众国这样的自由社会的安全和保障。 其他相关文件指示该技术用于个人应用,固定设备和独立功能的强大和负责任的远程控制,并协调它们并在通信矩阵内将它们进行接口。 TRAC控制器还通过各种通信协议执行翻译和重复功能,以完成更多移动的灵活矩阵或网络。 这种连接的计算机和人类通信矩阵实时提供了本地和全系统的增强的人机界面HMI场景,以改善设备管理和世界稳定性。
    • 33. 发明申请
    • COMPENSATION FOR ROTORCRAFT PITCH AXIS CONTROL SATURATION
    • 旋转摇杆轴控制饱和补偿
    • WO99032951A1
    • 1999-07-01
    • PCT/US1998/025869
    • 1998-12-04
    • B64C27/20B64C13/16B64C13/20B64C39/02G05D1/00G05D1/06G05D1/08
    • G05D1/0033G05D1/0858
    • A control system for small unmanned rotorcraft (100) compensates for vehicle pitch control saturation caused by the need for sudden vehicle pitch attitude correction, in turn often caused by wind gusts. The rotorcraft has a pitch-variable rotor (60) system responsive to a vehicle pitch servo command (psc) for cyclically controlling rotor pitch and responsive to a collective servo command (csc) for collectively controlling rotor pitch. A compensating signal (cs) derived from the unlimited vehicle pitch servo command signal (upsc) is cross-connected to the unlimited collective servo command signal (ucsc) to compensate for pitch control saturation, typically by reducing the magnitude of the resulting collective servo command signal (csc). The compensating signal is derived by passing the unlimited vehicle pitch servo command signal through a dead band (132) which responds as the signal approaches saturation and by preferably also then providing high and low frequency shaping to that signal.
    • 用于小型无人驾驶旋翼飞机(100)的控制系统补偿由于需要突然的车辆俯仰姿态校正而引起的车辆俯仰控制饱和度,反过来又常常由阵风引起。 旋翼航空器具有响应于车辆俯仰伺服指令(psc)的变桨转子(60)系统,用于循环地控制转子间距并且响应于集体伺服指令(csc)以共同控制转子间距。 从无限车辆俯仰伺服指令信号(upsc)导出的补偿信号(cs)被交叉连接到无限集体伺服命令信号(ucsc),以补偿俯仰控制饱和度,通常通过减小所得到的集体伺服命令的大小 信号(csc)。 通过使无限车辆俯仰伺服命令信号通过死区(132)而得到补偿信号,死区(132)随着信号接近饱和而响应,并且优选地还向该信号提供高频和低频整形。