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    • 11. 发明申请
    • RECOGNIZING TIRE SENSOR LOCATION IN FACTORY MODE FOR TPMS AND SMART ENTRY SYSTEM
    • 在TPMS和智能进入系统的工厂模式中识别轮胎传感器位置
    • US20110304442A1
    • 2011-12-15
    • US12851441
    • 2010-08-05
    • Brian K. LickfeltNicky Strock
    • Brian K. LickfeltNicky Strock
    • H04Q5/22
    • B60C23/0418B60C23/044B60C23/0442B60C23/0444B60C23/0445B60C23/045B60C23/0452B60C23/0454B60C23/0461B60C23/0462
    • A method for localizing tire sensors includes determining a wake up field power, transmitting an LF wake up field having the wake up field power from an LF antenna on the vehicle, receiving an identification signal from each tire sensor awakened by the transmitted LF wake up field, and determining whether a desired number of tire sensors have woken up in response to the transmitted LF wake up field based on the received identification signals. When the desired number of tire sensors have woken up, the method can further include recording the identification signals received from the awakened tire sensors and the respective antennas that awoke the respective tire sensors. The method further includes determining whether a desired number of antennas have transmitted a respective LF wake up field. When the desired number of antennas have transmitted a respective LF wake up field, the method can further include comparing the received identification signals and determining locations for the tire sensors based on which respective antenna woke up which respective tire sensor and whether the received identification signals match other received identification signals.
    • 用于定位轮胎传感器的方法包括确定唤醒场功率,从车辆上的LF天线发送具有唤醒场功率的LF唤醒场,从由发射的LF唤醒场唤醒的每个轮胎传感器接收识别信号 并且基于所接收的识别信号来确定所响应的所述数量的轮胎传感器是否响应于所发送的LF唤醒场而被唤醒。 当期望数量的轮胎传感器已经醒来时,该方法还可以包括记录从唤醒的轮胎传感器接收的识别信号和唤醒各个轮胎传感器的各个天线。 该方法还包括确定期望数量的天线是否已经发送了相应的LF唤醒场。 当所需数量的天线已经发送了相应的LF唤醒场时,该方法还可以包括比较接收到的识别信号并确定轮胎传感器的位置,基于哪个相应的天线唤醒哪个相应的轮胎传感器以及接收到的识别信号是否匹配 其他收到的识别信号。
    • 12. 发明授权
    • Recognizing tire sensor location in factory mode for TPMS and smart entry system
    • 识别轮胎传感器在工厂模式下的位置,用于TPMS和智能进入系统
    • US09399376B2
    • 2016-07-26
    • US12851441
    • 2010-08-05
    • Brian K. LickfeltNicky Strock
    • Brian K. LickfeltNicky Strock
    • H04Q5/22B60C23/04
    • B60C23/0418B60C23/044B60C23/0442B60C23/0444B60C23/0445B60C23/045B60C23/0452B60C23/0454B60C23/0461B60C23/0462
    • A method for localizing tire sensors includes determining a wake up field power, transmitting an LF wake up field having the wake up field power from an LF antenna on the vehicle, receiving an identification signal from each tire sensor awakened by the transmitted LF wake up field, and determining whether a desired number of tire sensors have woken up in response to the transmitted LF wake up field based on the received identification signals. When the desired number of tire sensors have woken up, the method can further include recording the identification signals received from the awakened tire sensors and the respective antennas that awoke the respective tire sensors. The method further includes determining whether a desired number of antennas have transmitted a respective LF wake up field. When the desired number of antennas have transmitted a respective LF wake up field, the method can further include comparing the received identification signals and determining locations for the tire sensors based on which respective antenna woke up which respective tire sensor and whether the received identification signals match other received identification signals.
    • 用于定位轮胎传感器的方法包括确定唤醒场功率,从车辆上的LF天线发送具有唤醒场功率的LF唤醒场,从由发射的LF唤醒场唤醒的每个轮胎传感器接收识别信号 并且基于所接收的识别信号来确定所响应的所述数量的轮胎传感器是否响应于所发送的LF唤醒场而被唤醒。 当期望数量的轮胎传感器已经醒来时,该方法还可以包括记录从唤醒的轮胎传感器接收的识别信号和唤醒各个轮胎传感器的各个天线。 该方法还包括确定期望数量的天线是否已经发送了相应的LF唤醒场。 当所需数量的天线已经发送了相应的LF唤醒场时,该方法还可以包括比较接收到的识别信号并确定轮胎传感器的位置,基于哪个相应的天线唤醒哪个相应的轮胎传感器以及接收到的识别信号是否匹配 其他收到的识别信号。
    • 14. 发明申请
    • VEHICLE KEYLESS OPERATION SYSTEM AND METHOD
    • 车辆无键操作系统及方法
    • US20110040424A1
    • 2011-02-17
    • US12541419
    • 2009-08-14
    • Brian K. LickfeltHideaki AraiJason D. DiSalvo
    • Brian K. LickfeltHideaki AraiJason D. DiSalvo
    • G06F7/00G08B29/00G01C21/00
    • G07C9/00182B60R25/24E05B77/48G07C9/00309G07C2009/00261G07C2209/63
    • A keyless function system and method includes a portable device having a vehicle function actuator thereon for initiating operation of a vehicle function. The portable device transmits an actuation signal to the vehicle when the vehicle function actuator is actuated. The receiver onboard the vehicle receives the actuation signal from the portable device. A controller onboard the vehicle and operatively connected to the receiver determines at least one of: whether the vehicle is located at a predetermined location or whether the portable device is located less than a predetermined distance from the vehicle. The controller selectively commands performance of the vehicle function when the actuation signal is received by the receiver based on at least one of: whether the vehicle is at the predetermined location or the portable device is less than the predetermined distance from the vehicle.
    • 无钥匙功能系统和方法包括具有用于启动车辆功能的操作的车辆功能致动器的便携式设备。 当车辆功能致动器被致动时,便携式设备向车辆发送致动信号。 车辆上的接收器从便携式设备接收致动信号。 车辆上的控制器并且可操作地连接到接收器确定以下至少一个:车辆是位于预定位置还是位于距离车辆不到预定距离的位置。 当所述致动信号由所述接收机接收时,所述控制器选择性地指示所述车辆功能的性能,所述至少一个基于以下各项中的至少一个:所述车辆是否在所述预定位置,或者所述便携式设备是否小于距离所述车辆的预定距离
    • 16. 发明授权
    • Automatic detection of valet mode for smart entry systems
    • 自动检测智能入门系统的代客模式
    • US09305410B2
    • 2016-04-05
    • US13197920
    • 2011-08-04
    • Brian K. LickfeltHideaki AraiThomas G. Kracker
    • Brian K. LickfeltHideaki AraiThomas G. Kracker
    • G07C9/00B60R25/00
    • G07C9/00111B60R25/00G07C9/00309
    • A key fob assembly includes a mechanical key, a key fob, a control in the key fob, Hall effect switches in the key fob, and magnets associated with the mechanical key. The mechanical key is configured to cooperate with a mechanical lock. The key fob is configured to selectively connect with the mechanical key. The control in the key fob is for transmitting wireless signals to a vehicle to actuate components on the vehicle. The Hall effect switches in the key fob are each in electrical communication with the control. At least one of the Hall effect switches changes an operating state based on detecting a positive magnetic field and at least one other Hall effect switch changes an operating state based on detecting a negative magnetic field. Respective poles of the magnets are disposed such that connection of the mechanical key with the key fob in a storage position aligns the poles of the magnets with respective Hall effect switches for changing the operating state of the respective Hall effect switches.
    • 密钥组件包括机械钥匙,钥匙扣,钥匙扣中的控制器,钥匙扣中的霍尔效应开关以及与机械钥匙相关联的磁体。 机械键被配置成与机械锁配合。 密钥卡被配置为选择性地连接机械密钥。 密钥卡中的控制用于向车辆发送无线信号以致动车辆上的部件。 密钥卡中的霍尔效应开关各自与控制器电气通信。 霍尔效应开关中的至少一个基于检测正磁场而改变操作状态,并且至少一个其它霍尔效应开关基于检测到负磁场而改变操作状态。 这些磁体的各极设置成使得机械钥匙与密钥卡在存储位置的连接将磁体的磁极与相应的霍尔效应开关对准,以改变各个霍尔效应开关的工作状态。
    • 17. 发明申请
    • AUTOMATIC DETECTION OF VALET MODE FOR SMART ENTRY SYSTEMS
    • 自动检测智能进入系统的阀门模式
    • US20130033361A1
    • 2013-02-07
    • US13197920
    • 2011-08-04
    • Brian K. LickfeltHideaki AraiThomas G. Kracker
    • Brian K. LickfeltHideaki AraiThomas G. Kracker
    • G06F7/04
    • G07C9/00111B60R25/00G07C9/00309
    • A key fob assembly includes a mechanical key, a key fob, a control in the key fob, Hall effect switches in the key fob, and magnets associated with the mechanical key. The mechanical key is configured to cooperate with a mechanical lock. The key fob is configured to selectively connect with the mechanical key. The control in the key fob is for transmitting wireless signals to a vehicle to actuate components on the vehicle. The Hall effect switches in the key fob are each in electrical communication with the control. At least one of the Hall effect switches changes an operating state based on detecting a positive magnetic field and at least one other Hall effect switch changes an operating state based on detecting a negative magnetic field. Respective poles of the magnets are disposed such that connection of the mechanical key with the key fob in a storage position aligns the poles of the magnets with respective Hall effect switches for changing the operating state of the respective Hall effect switches.
    • 密钥组件包括机械钥匙,钥匙扣,钥匙扣中的控制器,钥匙扣中的霍尔效应开关和与机械钥匙相关联的磁体。 机械键被配置成与机械锁配合。 密钥卡被配置为选择性地连接机械密钥。 密钥卡中的控制用于向车辆发送无线信号以致动车辆上的部件。 密钥卡中的霍尔效应开关各自与控制器电气通信。 霍尔效应开关中的至少一个基于检测正磁场而改变操作状态,并且至少一个其它霍尔效应开关基于检测到负磁场而改变操作状态。 这些磁体的各极设置成使得机械钥匙与密钥卡在存储位置的连接将磁体的磁极与相应的霍尔效应开关对准,以改变各个霍尔效应开关的工作状态。
    • 18. 发明授权
    • Vehicle keyless operation system and method
    • 车辆无钥匙操作系统及方法
    • US08249802B2
    • 2012-08-21
    • US12541419
    • 2009-08-14
    • Brian K. LickfeltHideaki AraiJason D. DiSalvo
    • Brian K. LickfeltHideaki AraiJason D. DiSalvo
    • G06F7/00
    • G07C9/00182B60R25/24E05B77/48G07C9/00309G07C2009/00261G07C2209/63
    • A keyless function system and method includes a portable device having a vehicle function actuator thereon for initiating operation of a vehicle function. The portable device transmits an actuation signal to the vehicle when the vehicle function actuator is actuated. The receiver onboard the vehicle receives the actuation signal from the portable device. A controller onboard the vehicle and operatively connected to the receiver determines at least one of: whether the vehicle is located at a predetermined location or whether the portable device is located less than a predetermined distance from the vehicle. The controller selectively commands performance of the vehicle function when the actuation signal is received by the receiver based on at least one of: whether the vehicle is at the predetermined location or the portable device is less than the predetermined distance from the vehicle.
    • 无钥匙功能系统和方法包括具有用于启动车辆功能的操作的车辆功能致动器的便携式设备。 当车辆功能致动器被致动时,便携式设备向车辆发送致动信号。 车辆上的接收器从便携式设备接收致动信号。 车辆上的控制器并且可操作地连接到接收器确定以下至少一个:车辆是位于预定位置还是位于距离车辆不到预定距离的位置。 当所述致动信号由所述接收机接收时,所述控制器选择性地指示所述车辆功能的性能,所述至少一个基于以下各项中的至少一个:所述车辆是否在所述预定位置,或者所述便携式设备是否小于距离所述车辆的预定距离