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    • 71. 发明申请
    • ACCIDENT AVOIDANCE DURING VEHICLE BACKUP
    • 车辆备份期间的意外事故
    • US20090174536A1
    • 2009-07-09
    • US11971383
    • 2008-01-09
    • Manoharprasad K. Rao
    • Manoharprasad K. Rao
    • B60Q1/00
    • B60T7/22
    • In one embodiment, the present invention is directed to a method to operate a host vehicle having a rearview camera vision sensor, and an electronic controller with memory. The method comprises the steps of determining whether the host vehicle is in reverse gear, activating a rearview camera vision sensor on said host vehicle to detect objects, determining host vehicle motion and path of travel, simultaneously determining an inter-frame difference metric and a histogram difference metric of the field of view of said rearview camera, determining a dynamic scene change, determining a collision threat assessment based upon said dynamic scene change, and activating warnings and collision avoidance moves,
    • 在一个实施例中,本发明涉及一种操作具有后视摄像机视觉传感器的主车辆和具有存储器的电子控制器的方法。 该方法包括以下步骤:确定主车辆是否处于倒档,激活所述主车辆上的后视摄像机视觉传感器以检测物体,确定主车辆运动和行驶路径,同时确定帧间差异度量和直方图 所述后视摄像机的视野的差分度量,确定动态场景变化,基于所述动态场景变化确定碰撞威胁评估,以及激活警告和避免碰撞移动,
    • 73. 发明授权
    • Occupant protection system
    • 乘员保护系统
    • US07455314B2
    • 2008-11-25
    • US11163946
    • 2005-11-04
    • Sean RyanManoharprasad K. RaoJerry BrownRich RuthinowskiBrian Spahn
    • Sean RyanManoharprasad K. RaoJerry BrownRich RuthinowskiBrian Spahn
    • B60R21/16
    • B60R21/207B60R2021/23146
    • A system and method for protecting an occupant in a vehicle seat, through the use of an occupant protection system is disclosed, wherein the vehicle seat includes a backrest section and a seat section. The occupant protection system includes a first airbag assembly having a first inflatable airbag, wherein the first airbag assembly is containable within an airbag recess located within a vehicle roof portion. A second airbag assembly is included having a second inflatable airbag and a deployment location. The second airbag assembly is mounted to a frame that is integrated with the seat while being external to a seat cushion. The first inflatable airbag is configured to extend downward from the roof portion to below a passenger shoulder-thorax protection region while in an inflated state. The second inflatable airbag is configured to extend upward from the deployment location through a passenger pelvic-thorax protection region while in an inflated state.
    • 公开了一种通过使用乘员保护系统来保护乘客在车辆座椅中的系统和方法,其中车辆座椅包括靠背部分和座椅部分。 乘员保护系统包括具有第一可充气安全气囊的第一安全气囊组件,其中第一安全气囊组件可容纳在位于车顶部内的气囊凹部内。 包括具有第二可充气安全气囊和展开位置的第二安全气囊组件。 第二安全气囊组件安装在与座椅一体的框架上,同时位于座垫的外部。 第一可充气安全气囊构造成在充气状态下从屋顶部分向下延伸到乘客肩部 - 胸部保护区域的下方。 第二可充气安全气囊构造成在充气状态下从展开位置向上延伸穿过客运骨盆 - 胸部保护区域。
    • 76. 发明授权
    • Active adaptation of vehicle restraints for enhanced performance robustness
    • 主动适应车辆限制,提高性能鲁棒性
    • US07236865B2
    • 2007-06-26
    • US10935926
    • 2004-09-08
    • Kwaku O. Prakah-AsanteManoharprasad K. RaoGary Steven Strumolo
    • Kwaku O. Prakah-AsanteManoharprasad K. RaoGary Steven Strumolo
    • B60R21/015G08G1/16G06F19/00
    • B60R21/0134B60R2021/0002B60R2021/003
    • A vehicle crash safety system includes a pre-crash sensing system generating an object threat assessment and vehicle dynamics data, an occupant sensing system generating occupant characteristic data, and an Occupant Safety Reference Model (OSRM) controller for generating a reference safety restraint deployment profile as a function of the object threat assessment, vehicle dynamics data and occupant characteristic data. An active restraint adaptation (ARA) controller in operative communication with the OSRM controller and a decentralized restraint controller. The ARA controller sends restraint deployment targets, and the safety restraint deployment profile to the decentralized restraint controller. The ARA controller may modify input signals to the decentralized controller based on the real-time occupant position trajectory. The decentralized restraint controller is adapted to operate the restraint system as a function of signals from the ARA controller and real-time occupant-restraint system interactions.
    • 车辆碰撞安全系统包括产生对象威胁评估和车辆动力学数据的预碰撞感测系统,产生乘员特征数据的乘员感知系统以及乘员安全参考模型(OSRM)控制器,用于生成参考安全约束部署简档作为 对象威胁评估,车辆动力学数据和乘员特征数据的功能。 与OSRM控制器和分散式约束控制器可操作通信的主动约束适配(ARA)控制器。 ARA控制器向分散式约束控制器发送约束部署目标和安全约束部署配置文件。 ARA控制器可以基于实时乘员位置轨迹来修改分散控制器的输入信号。 分散式约束控制器适用于作为来自ARA控制器的信号和实时乘员约束系统相互作用的功能来操作约束系统。
    • 78. 发明授权
    • Adaptive vehicle safety system for collision compatibility
    • 自适应车辆安全系统的碰撞兼容性
    • US06944544B1
    • 2005-09-13
    • US10711314
    • 2004-09-10
    • Kwaku O. Prakah-AsanteManoharprasad K. Rao
    • Kwaku O. Prakah-AsanteManoharprasad K. Rao
    • G01S13/93
    • B60R21/0134G01S13/931G01S2013/9339G01S2013/9353G01S2013/9367
    • A safety system for a host vehicle includes a pre-crash sensing system generating host vehicle dynamics data, a target vehicle threat assessment, and target vehicle bumper or doorsill location data. A ride-height, Dynamic State Self-Turning (DSST) controller generates a reference ride-height signal as a function of the host vehicle dynamics data, target vehicle threat assessment, and target vehicle bumper or doorsill location data. A Rule-Based Height Regulator (RBHR) controller is feedback communication with an adjustable suspension system, is programmed to continuously adjust the host vehicle ride-height with reference to the ride-height signal, and the host vehicle bumper location to optimize the collision conditions between the two vehicles until just prior to impact.
    • 用于主车辆的安全系统包括产生主车辆动态数据,目标车辆威胁评估和目标车辆保险杠或门槛位置数据的预碰撞感测系统。 行驶高度动态状态自转(DSST)控制器根据主车辆动态数据,目标车辆威胁评估以及目标车辆碰撞或门槛位置数据产生参考行驶高度信号。 基于规则的高度调节器(RBHR)控制器是与可调节悬挂系统的反馈通信,被编程为参考乘坐高度信号和主车辆保险杠位置来连续调整主车辆高度,以优化碰撞条件 在两辆车之间,直到碰撞之前。
    • 80. 发明授权
    • Remote sensing based pre-crash threat assessment system
    • 基于遥感的预碰撞威胁评估系统
    • US06775605B2
    • 2004-08-10
    • US09995503
    • 2001-11-29
    • Manoharprasad K. RaoKwaku O. Prakah-AsanteMd Abul Masrur
    • Manoharprasad K. RaoKwaku O. Prakah-AsanteMd Abul Masrur
    • B60R2200
    • B60R21/013B60R21/0134G01S13/931G01S2013/9375
    • A pre-crash assessment system (1) includes a host vehicle (3) in motion and a high frequency sensor (4), which detects position and relative velocity of a target object in the near zone of the host vehicle (3). A safety device actuator (5) is also coupled to the host vehicle (3). A pre-crash algorithm provides a comparison of a future position prediction of the target object relative to the host vehicle (3). A safety device controller (9) is coupled to the host vehicle (3). The controller (9) generates a threshold assessment based on the target object future relative position and relative velocity. The controller (9) also controls the safety device actuator (5) by providing an actuation signal. The controller (9) operates through logic designed to estimate whether a potential for crash between the host vehicle (3) and the target object is within the threshold for the safety device actuator (5). The controller (9) activates the safety device actuator 5 when the potential for crash is within the pre-determined threshold and safety device specific deployment criteria are met.
    • 预碰撞评估系统(1)包括运动中的主车辆(3)和高频传感器(4),其检测主车辆(3)的近区域中的目标物体的位置和相对速度。 安全装置致动器(5)也联接到主车辆(3)。 预碰撞算法提供了目标对象相对于主车辆的未来位置预测的比较(3)。 安全装置控制器(9)联接到主车辆(3)。 控制器(9)基于目标物体未来的相对位置和相对速度产生阈值评估。 控制器(9)还通过提供致动信号来控制安全装置致动器(5)。 控制器(9)通过设计成用于估计主车辆(3)和目标物体之间的碰撞潜能是否在安全装置致动器(5)的阈值内的逻辑运行。 当碰撞的可能性在预定的阈值内并满足安全装置特定的部署标准时,控制器(9)激活安全装置致动器5。