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    • 1. 发明授权
    • Vehicle dynamic control system
    • 车辆动态控制系统
    • US06219609B1
    • 2001-04-17
    • US09174538
    • 1998-10-19
    • Koji MatsunoMunenori MatsuuraToshihiro KonnoAkira TakahashiAtsushi Mine
    • Koji MatsunoMunenori MatsuuraToshihiro KonnoAkira TakahashiAtsushi Mine
    • B60T800
    • B60T8/1755B60T2201/14B60T2201/16B60T2210/24B60T2210/36
    • The present invention provides a vehicle dynamic control system which alters characteristics of respective vehicle movement controllers so that they can function properly against coming and foreseeable running conditions and current running conditions, recognizing beforehand details of an emerging curve on the road to be traveled. The system comprises a vehicle movement control alterant and at least one among vehicle movement controllers, i.e., a brake controller, a left/right wheel differential limiter controller and power distribution controller. When the vehicle is approaching the curve, the vehicle movement control alterant alters characteristics of a braking controller, the left/right wheel differential limiter controller and the power distribution controller to those favorable to turning for driving through a curve appropriately. When the vehicle is approaching the curve end, the alternate alters characteristics of the left/right differential controller to those favorable to stabilizing running so that the vehicle can pass the curve end and go into straight road appropriately.
    • 本发明提供一种车辆动态控制系统,其改变各个车辆运动控制器的特性,使得它们能够适当地运行抵抗可预见的运行条件和当前运行状况,预先识别要行驶的道路上的出现曲线的细节。 该系统包括车辆运动控制变更和车辆运动控制器中的至少一个,即制动控制器,左/右车轮差速器限制器控制器和配电控制器。 当车辆接近曲线时,车辆移动控制改变了将制动控制器,左/右车轮差速器限制器控制器和配电控制器的特性改变成适合于通过曲线行驶的车轮。 当车辆接近曲线端时,交替改变左/右差速器控制器的特性,使其有利于稳定运行,使得车辆能够通过曲线端并适当地进入直路。
    • 2. 发明授权
    • Suspension control system for a vehicle
    • 车辆悬架控制系统
    • US5497325A
    • 1996-03-05
    • US193552
    • 1994-02-08
    • Atsushi Mine
    • Atsushi Mine
    • B60G17/0165B60G17/015
    • B60G17/0165B60G2400/204B60G2400/82B60G2401/176B60G2500/10
    • Suspension system for controlling switching attenuation forces at front wheels and rear wheels. A road surface sensor is provided under a front side of a vehicle body and moves so as to displace a road surface detecting position forwardly of the vehicle body. At the time of an intermediate speed, the road surface sensor itself is displaced forwardly of the vehicle body by an angular displacement apparatus. At the time of a high speed, the road surface sensor itself is further angularly displaced forwardly by an angle variable apparatus in a maximum displacing state to move the road surface detecting position forwardly. A delay time is calculated as required, and an attenuation force switching signal is outputted to the front and rear wheel suspensions, and a timing for at least the front wheel to arrive at the road surface detecting position is always brought substantially into coincidence with the timing for switching the attenuation force of the front wheel suspension by considering the delay time of the control system. Thus, the road surface sensor is suitably displaced and angularly displaced, thereby to optimize detection of a road surface and always switch suspension characteristics relative to a delay of a whole control system at an optimum timing in a whole travel area.
    • 用于控制前轮和后轮上的开关衰减力的悬架系统。 路面传感器设置在车体的前侧,并且移动,以使车身前方的路面检测位置位移。 在中速时,路面传感器本身通过角位移装置向车身前方移动。 在高速时,路面传感器本身进一步以最大位移状态的角度可变设备向前方向前移,以向前移动路面检测位置。 根据需要计算延迟时间,并且衰减力切换信号被输出到前轮和后轮悬架,并且至少前轮到达路面检测位置的定时总是基本上与定时 通过考虑控制系统的延迟时间来切换前轮悬架的衰减力。 因此,路面传感器被适当地移位和角位移,从而优化路面的检测,并且在整个行驶区域中的最佳定时处总是相对于整个控制系统的延迟来切换悬架特性。
    • 8. 发明授权
    • Vehicle maneuvering control device
    • 车辆操纵控制装置
    • US06208927B1
    • 2001-03-27
    • US09150194
    • 1998-09-09
    • Atsushi MineKoji Matsuno
    • Atsushi MineKoji Matsuno
    • B60T712
    • B60K31/0058B60K31/0083B60W2520/125B60W2550/142B60W2550/143B60W2550/402
    • A vehicle maneuvering control device is disclosed. A curve of a road is detected to calculate curve data including a distance between a vehicle and the curve, and a physical quantity indicating a degree of the curve. An allowable deceleration is set at which the vehicle can travel in accordance with conditions of the road. An allowable lateral acceleration is set at which the vehicle can travel in accordance with the conditions of the road. An allowable approaching speed is set at which the vehicle can approaches the curve based on the physical quantity and the lateral acceleration. A deceleration judging speed is calculated for judging whether a present speed at which the vehicle is traveling should be decreased based on the distance, the allowable deceleration and the allowable approaching speed. And, the present speed is decreased when it is higher than the deceleration judging speed.
    • 公开了一种车辆操纵控制装置。 检测道路的曲线,计算包括车辆和曲线之间的距离的曲线数据以及表示曲线的程度的物理量。 设定车辆可以根据道路的条件行驶的容许减速度。 设定车辆可以根据道路的条件行驶的允许横向加速度。 设定允许的接近速度,其中车辆可以基于物理量和横向加速度接近曲线。 根据距离,容许减速度和允许的接近速度,判断车辆行驶的当前速度是否应当减小的减速判定速度。 而当速度高于减速判定速度时,当前速度降低。
    • 9. 发明授权
    • Radius of curvature detecting apparatus and the method thereof
    • 曲率半径检测装置及其方法
    • US6138084A
    • 2000-10-24
    • US95529
    • 1998-06-10
    • Atsushi Mine
    • Atsushi Mine
    • G01C21/00B60W30/00G01B21/20G01C21/26G08G1/0969G08G1/16G06F15/00
    • G01C21/26
    • A radius of curvature detecting apparatus and method of a vehicle for detecting a radius of curvature of a curve based on road information obtained from a vehicle navigation system comprises, three-points detection of a first point, a second point and a third point in order of traveling direction of the vehicle from point data showing a road configuration which are provided by the vehicle navigation system, distance comparison of a distance of a straight line connecting the first point and the second point with a distance of a straight line connecting the second point and the third point and for determining a short straight line and a long straight line, respectively, mid-point calculation for finding a mid-point point located at a half distance of the short straight line from the second point, equivalent mid-point calculation for finding an equivalent mid-point located at the half distance from the second point on the long straight line, and radius of curvature calculation for determining a point of intersection of perpendicular lines from the mid-point point and the equivalent mid-point as a center of the curve and for calculating a radius of curvature based on the center of the curve. The calculated radius of curvature is corrected, for example when the road width is small or the distance of the short straight line is large.
    • 根据从车辆导航系统获得的道路信息,检测曲线的曲率半径的车辆的曲率半径检测装置和方法包括:按顺序对第一点,第二点和第三点进行三点检测 从由车辆导航系统提供的示出道路构造的点数据的车辆行驶方向的距离比较,连接第一点和第二点的直线的距离与连接第二点的直线的距离的距离比较 第三点和用于确定短直线和长直线的中点计算,用于找到位于短直线距离第二点的半点的中点点,等效中点计算 用于找到位于距离长直线上的第二点的半距离处的等效中点,以及用于确定的曲率半径计算 将从中点和等效中点的垂直线的交点作为曲线的中心,并根据曲线的中心计算曲率半径。 计算出的计算出的曲率半径例如当道路宽度小或短直线的距离大时被校正。