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    • 24. 发明授权
    • Vehicular windshield washer system
    • 车载挡风玻璃清洗系统
    • US4922570A
    • 1990-05-08
    • US215842
    • 1988-07-06
    • Yuji HirohamaEiichi OnoYukiho Murata
    • Yuji HirohamaEiichi OnoYukiho Murata
    • B60S1/34B60S1/48B60S1/52
    • B60S1/48B60S1/3415B60S1/522
    • A vehicular windshield washer system in combination with a windshield wiper having a wiper arm. The washer system is comprised of a pair of washer nozzles mountd on the wiper arm and so directed to eject washer fluid to opposite sides of the wiper arm upon being supplied with washer fluid. The washer fluid from a washer fluid source is selectively supplied to the washer nozzles in accordance with movement of the wiper arm. The washer fluid is suppliable to one of the washer nozzles upon rotational movement of the wiper arm in one direction and to the other washer nozzle upon rotational movement of the wiper arm in the other direction. The rotational movements turn at a turning position of the wiper arm. Additionally, the washer fluid is supplied to the one washer nozzle until the wiper arm reaches a position slightly forward of the turning position and stopped to be supplied to the same washer nozzle for a duration of rotational movement of the wiper arm from the slightly forward position to the turning position, thereby saving washer fluid and preventing washer fluid from scattering sideward of a vehicle body.
    • 与具有刮水器臂的挡风玻璃刮水器组合的车辆挡风玻璃清洗器系统。 垫圈系统由一对安装在刮水器臂上的洗衣机喷嘴组成,并被引导以在提供清洗液时将清洗液喷射到刮水器臂的相对侧。 根据刮水臂的移动,来自洗涤液体源的洗涤液被选择性地供应到洗涤器喷嘴。 当刮水器臂沿着另一个方向旋转运动时,洗涤器臂在一个方向上旋转运动时,垫圈流体可供应到其中一个洗涤器喷嘴。 旋转运动在雨刷臂的转动位置转动。 此外,将清洗液供给到一个清洗器喷嘴,直到刮水器臂到达转动位置稍微前方的位置,并停止供给到同一洗涤器喷嘴,持续时间将雨刷臂从稍微向前的位置旋转 从而节约洗涤液,防止洗涤液从车身侧向散射。
    • 25. 发明授权
    • Vehicle, vehicle control device, and vehicle manufacturing method
    • 车辆,车辆控制装置和车辆制造方法
    • US08751107B2
    • 2014-06-10
    • US12357015
    • 2009-01-21
    • Eiichi OnoKatsuhiko FukuiYasuhiro IgaShigeru IketaniTomoaki Shida
    • Eiichi OnoKatsuhiko FukuiYasuhiro IgaShigeru IketaniTomoaki Shida
    • G06F19/00
    • B62D25/105B60J3/04B60K35/00
    • A shape of a boundary line between a forward view in a forward field of vision of a driver and a vehicle structural part that blocks a lower end of the forward view, i.e., the shape of a so-called visible edge of a vehicle hood, a shape of a visible edge of a vehicle instrument panel, or a shape of a top edge of a ceramic line formed at a windshield glass is made to be a curve. The curve may be expressed by hyperbolic function y2=Ax2+2Bx+C, where x is a depression angle, y is an azimuth angle, A is a constant expressed by a sum of a ratio of a distance between a viewpoint height and a roll axis with respect to the viewpoint height and a reciprocal of a product of a roll rate and the viewpoint height, B is a constant expressed by a reciprocal of the roll rate, and C is a constant expressed by the constant A, the constant B and a depression angle of a sight-line direction of a driver.
    • 在驾驶员的前视场中的前视图和阻挡前视图的下端的车辆结构部分即车辆罩的所谓可见边缘的形状之间的边界线的形状, 将车辆用仪表板的可视边缘的形状,或形成在挡风玻璃上的陶瓷线的上缘的形状设为曲线。 曲线可以由双曲线函数y2 = Ax2 + 2Bx + C表示,其中x是俯角,y是方位角,A是由视点高度和卷轴之间的距离的比值之和表示的常数 轴是相对于视点高度的倒数,滚动速度与视点高度的乘积的倒数B是由滚动速率的倒数表示的常数,C是由常数A表示的常数,常数B和 驾驶员的视线方向的俯角。
    • 26. 发明授权
    • Steering apparatus, steering method, and computer readable storage medium
    • 转向装置,转向方法和计算机可读存储介质
    • US08370025B2
    • 2013-02-05
    • US13420154
    • 2012-03-14
    • Eiichi OnoYuji MuragishiDaisuke YamadaShinsuke Sato
    • Eiichi OnoYuji MuragishiDaisuke YamadaShinsuke Sato
    • G06F19/00
    • B62D6/008B62D6/003
    • A target value for yaw angle velocity gain is computed according to a map expressing a relationship between steering wheel angle and yaw angle velocity gain predetermined such that a direction as seen from a driver of a target destination point for vehicle travel at a predetermined time after a forward gaze and a direction as seen from the driver are caused to match each other, and a steering gear ratio is controlled accordingly. A target value for a steering wheel torque corresponding to the detected steering wheel angle and the acquired yaw angular velocity is set, based on a relationship between yaw angular velocity and resistance-feel level predetermined such that the resistance feel level for a driver monotonically increases with increasing yaw angular velocity. Control is then preformed so as to realize the steering wheel torque target value.
    • 根据表示方向盘角度和偏航角速度增益之间的关系的映射来计算偏航角速度增益的目标值,所述映射表示预定的偏航角速度增益之间的关系,使得从车辆行驶的目标目标点的驾驶员所看到的方向在 使前进目视和从驾驶员看到的方向彼此匹配,并且相应地控制舵机比。 基于所确定的横摆角速度和电阻感觉水平之间的关系,设定与检测到的方向盘角度和所获得的横摆角速度相对应的方向盘扭矩的目标值,使得驾驶员的阻力感觉水平随着驾驶员的电阻感觉水平随单位增加而单调增加 增加偏航角速度。 然后进行控制,以实现方向盘转矩目标值。
    • 28. 发明申请
    • Vehicle body motion realization method and apparatus
    • 车身运动实现方法及装置
    • US20070055432A1
    • 2007-03-08
    • US10577732
    • 2004-11-12
    • Ken KoibuchiEiichi OnoYoshikazu HattoriYuji Muragishi
    • Ken KoibuchiEiichi OnoYoshikazu HattoriYuji Muragishi
    • B60T8/24
    • B62D6/006B60T8/172B60T8/17551B60T2210/12B60T2270/86B60W40/11B60W40/112B60W40/114B60W2710/207
    • Various state amounts of a vehicle body detected by various types of sensors are captured (step 102). A maximum frictional force Fimax is calculated for each of wheels (steps 104 to 110). By use of the maximum frictional force Fimax and other physical quantities, a performance function not dependent on respective magnitudes of a vehicle body generating force and a yaw moment is defined, which performance function is prepared by means of a performance function in a case in which the vehicle body generating force is larger than the yaw moment, and a performance function in a case in which the vehicle body generating force is not larger than the yaw moment (step 112). A resultant force qi of tire generating forces acting on respective wheels is calculated by means of a third performance function (step 114), and braking and driving forces of each wheel, and a steering angle of each wheel are obtained by means of the calculated direction in which the resultant force of tire generating forces acts on the wheels (step 116). Based on the obtained braking and driving forces and steering wheel of each of the wheels, these wheels are each controlled (step 118).
    • 捕获各种类型的传感器检测到的各种状态的车体(步骤102)。 对于每个车轮计算最大摩擦力F imax (步骤104至110)。 通过使用最大摩擦力F max和其他物理量,定义不依赖于车体产生力和横摆力矩的相应大小的性能函数,该性能函数通过 在车体产生力大于横摆力矩的情况下的演奏功能以及车身产生力不大于横摆力矩的情况下的演奏功能(步骤112)。 通过第三性能函数(步骤114)和每个车轮的制动和驱动力以及每个车轮的转向角来计算作用在相应车轮上的轮胎产生力的合力q 通过计算出的轮胎产生力的合力的方向(步骤116)获得。 基于获得的每个车轮的制动和驱动力和方向盘,这些轮被分别控制(步骤118)。
    • 30. 发明授权
    • Method and device for controlling maneuverability of vehicle
    • 控制车辆机动性的方法和装置
    • US07055645B2
    • 2006-06-06
    • US10507374
    • 2003-04-21
    • Hiroaki KatoMinekazu MomiyamaYoshiyuki YasuiWataru TanakaKenji AsanoYuzou ImotoEiichi OnoYuji Muragishi
    • Hiroaki KatoMinekazu MomiyamaYoshiyuki YasuiWataru TanakaKenji AsanoYuzou ImotoEiichi OnoYuji Muragishi
    • B62D5/04
    • B62D15/0235B62D5/008
    • In accordance with a vehicle motion control apparatus, a steering angle (θh) of a steering wheel is determined on the basis of a rotation angle (θpm) of an assist motor (24m) detected by a rotation angle sensor (24s) and a rotation angle (θvm) of a gear ratio variable motor (32m) detected by a rotation angle sensor (32s), and a VGRS control process (40a) of a gear ratio variable mechanism is executed on the basis of the determined steering angle (θh). Accordingly, since the steering angle (θh) of the steering wheel is determined on the basis of the rotation angle (θvm) used for the VGRS control process (40a) of the gear ratio variable mechanism and the rotation angle (θpm) used for an EPS control process (30a) of an EPS actuator, it is possible to obtain the steering angle (θh) of the steering wheel without a steering angle sensor. Therefore, it is possible to reduce the number of the parts of a vehicle motion control apparatus.
    • 根据车辆运动控制装置,基于由旋转角度传感器(24s)检测到的辅助马达(24m)的旋转角度(ttm)来确定方向盘的转向角(thetah),并且 通过旋转角度传感器(32s)检测到的齿轮比可变马达(32m)的旋转角(tavm)和齿轮比可变机构的VGRS控制处理(40a),基于所确定的 转向角(thetah)。 因此,由于根据用于变速比可变机构的VGRS控制处理(40a)的旋转角(tavm)和用于变速比可变机构的旋转角度(ttm)来确定方向盘的转向角(thetah) EPS致动器的EPS控制过程(30a),可以获得没有转向角传感器的方向盘的转向角(thetah)。 因此,可以减少车辆运动控制装置的部件的数量。