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    • 3. 发明授权
    • Constant speed traveling apparatus for vehicle with inter-vehicle
distance adjustment function
    • 具有车间距离调节功能的车辆恒速行驶装置
    • US5396426A
    • 1995-03-07
    • US111401
    • 1993-08-25
    • Katsuhiko HibinoMitsufumi HashimotoAkira Kurahashi
    • Katsuhiko HibinoMitsufumi HashimotoAkira Kurahashi
    • B60K31/00G06F15/50
    • B60W30/16B60K31/0008
    • An apparatus includes an inter-vehicle distance sensor for measuring a distance from a self vehicle to a vehicle traveling ahead, and a relative speed is calculated on the basis of the inter-vehicle distance data detected by the inter-vehicle distance sensor. When a variation of the relative speed is small, it is recognized that a vehicle is present ahead of the self vehicle. An acceleration/deceleration is obtained from a stored acceleration/deceleration basic map on the basis of a difference between the inter-vehicle distance and a target inter-vehicle distance, and the relative speed with the vehicle ahead, and an acceleration/deceleration correction coefficient is calculated from a correction map set with adjustment constants in correspondence with the measured inter-vehicle distance. An acceleration/deceleration is calculated by multiplying the acceleration/deceleration with the correction coefficient. A new target vehicle speed is calculated on the basis of the calculated acceleration/deceleration, and a previously set target vehicle speed.
    • 一种装置包括:车辆间距离传感器,用于测量从自车向前行驶的车辆的距离,并且基于由车辆间距离传感器检测到的车辆间距离数据来计算相对速度。 当相对速度的变化较小时,认识到车辆存在于自车辆之前。 基于车辆间距离与目标车间距离之间的差异以及与前方车辆的相对速度,加速/减速校正系数,从存储的加速/减速基准图获得加速/减速 由具有与测量的车辆间距离对应的调整常数设置的校正图计算。 通过将加减速与校正系数相乘来计算加减速。 基于所计算的加速度/减速度和先前设定的目标车速来计算新的目标车速。
    • 5. 发明授权
    • Boundary detection device for vehicles
    • 车辆边界检测装置
    • US08682033B2
    • 2014-03-25
    • US13347825
    • 2012-01-11
    • Hiroki NakanoKatsuhiko Hibino
    • Hiroki NakanoKatsuhiko Hibino
    • G06K9/00
    • G06K9/00798
    • In a lane boundary detection device, a plurality of edge components are extracted from a captured image capturing the periphery of the own vehicle. Candidates of a curve (including straight lines) that is to be the boundary of a driving area are extracted as boundary candidates based on the placement of the plurality of edge components. Then, an angle formed by a tangent in a predetermined section of each extracted boundary candidate and a vertical line in the captured image is calculated. Boundary candidates of which the formed angle is less than an angle reference value are set to have low probability. The boundary candidate having the highest probability among the boundary candidates is set as the boundary of the driving area.
    • 在车道边界检测装置中,从捕获本车辆的周边的拍摄图像中提取多个边缘成分。 基于多个边缘分量的位置,提取作为驱动区域的边界的曲线(包括直线)的候选者作为边界候选。 然后,计算由所提取的边界候补的预定部分中的切线和拍摄图像中的垂直线形成的角度。 形成角度小于角度参考值的边界候选者被设置为具有低概率。 边界候选中概率最高的边界候选被设定为驱动区域的边界。
    • 7. 发明授权
    • Radar system detecting plural obstacles and measuring distance based on
full gain and automatic gain control
    • 雷达系统基于全增益和自动增益控制检测多个障碍物和测量距离
    • US5485155A
    • 1996-01-16
    • US346297
    • 1994-11-23
    • Katsuhiko Hibino
    • Katsuhiko Hibino
    • G01S7/285G01S7/489G01S7/497G01S13/10G01S17/10G01S17/93G01S13/93
    • G01S17/936G01S17/10G01S7/489G01S7/497
    • First, a variable gain amplifier amplifies an output of a light-receiving element with the gain fixed at the maximum value and a laser diode is repeatedly actuated. Distance data obtained in each measurement is stored in a RAM. Second, the measurement is executed by varying the gain of the variable gain amplifier based on automatic gain control AGC technology. Meanwhile, a full gain distance calculation and a full gain relative speed calculation are carried out based on the distance data stored during the first step. Furthermore, in a third step, an AGC distance calculation and an AGC relative speed calculation are carried out based on the distance data stored during the second step. The full-gain based detection and the AGC based detection are alternately repeated, thereby accurately and reliably detecting a plurality of obstacles in a radar detection area.
    • 首先,可变增益放大器以增益固定为最大值放大光接收元件的输出,并且激光二极管被重复地致动。 在每个测量中获得的距离数据存储在RAM中。 第二,通过基于自动增益控制AGC技术改变可变增益放大器的增益来执行测量。 同时,基于在第一步骤期间存储的距离数据,进行全增益距离计算和全增益相对速度计算。 此外,在第三步骤中,基于在第二步骤期间存储的距离数据来执行AGC距离计算和AGC相对速度计算。 交替地重复基于全增益检测和基于AGC的检测,从而准确可靠地检测雷达检测区域中的多个障碍物。
    • 8. 发明申请
    • BOUNDARY DETECTION DEVICE FOR VEHICLES
    • 车辆边界检测装置
    • US20120177250A1
    • 2012-07-12
    • US13347825
    • 2012-01-11
    • Hiroki NakanoKatsuhiko Hibino
    • Hiroki NakanoKatsuhiko Hibino
    • G06K9/46
    • G06K9/00798
    • In a lane boundary detection device, a plurality of edge components are extracted from a captured image capturing the periphery of the own vehicle. Candidates of a curve (including straight lines) that is to be the boundary of a driving area are extracted as boundary candidates based on the placement of the plurality of edge components. Then, an angle formed by a tangent in a predetermined section of each extracted boundary candidate and a vertical line in the captured image is calculated. Boundary candidates of which the formed angle is less than an angle reference value are set to have low probability. The boundary candidate having the highest probability among the boundary candidates is set as the boundary of the driving area.
    • 在车道边界检测装置中,从捕获本车辆的周边的拍摄图像中提取多个边缘成分。 基于多个边缘分量的位置,提取作为驱动区域的边界的曲线(包括直线)的候选者作为边界候选。 然后,计算由所提取的边界候补的预定部分中的切线和拍摄图像中的垂直线形成的角度。 形成角度小于角度参考值的边界候选者被设置为具有低概率。 边界候选中概率最高的边界候选被设定为驱动区域的边界。
    • 10. 发明授权
    • Obstacle recognition system for a vehicle
    • 车辆障碍物识别系统
    • US5574463A
    • 1996-11-12
    • US449116
    • 1995-05-24
    • Noriaki ShiraiKatsuhiko HibinoTakao Nishimura
    • Noriaki ShiraiKatsuhiko HibinoTakao Nishimura
    • B60R21/00B60W30/00G01S7/41G01S7/48G01S7/481G01S13/93G01S17/93G08G1/16G01S13/60
    • G01S17/936G01S13/93G01S7/4802G01S7/4817G01S7/412G01S7/481
    • A radar device emits a wave beam into a given angular range outside a vehicle, and scans the given angular range by the wave beam. The radar device detects a reflected wave beam. A recognizing device is operative for recognizing an obstacle with respect to the vehicle on the basis of the result of detection of the reflected wave beam by the radar device. In the recognizing device, a point recognizing section recognizes obstacles as points, and a uniting section is operative for uniting adjacent points among the points provided by the point recognizing section. The uniting section provides sets each having adjacent points. A line-segment recognizing section is operative for detecting a specific set or specific sets of adjacent points among the adjacent-point sets provided by the uniting section, and for recognizing every detected specific set as a line segment having a length only along a width direction of the vehicle. Every specific set has a length smaller than a given length along a longitudinal direction of the vehicle. A position estimating section estimates the position of a line segment, which will be provided by the line-segment recognizing section, in response to the position of a previously-provided line segment. An identity judging section is operative for comparing the line-segment position estimated by the position estimating section and the position of a line segment currently provided by the line-segment recognizing section to judge whether or not the line segment currently provided by the line-segment recognizing section and the previously-provided line segment are the same.
    • 雷达装置将波束发射到车辆外部的给定角度范围内,并通过波束扫描给定的角度范围。 雷达装置检测反射波束。 基于由雷达装置检测出的反射波束的结果,识别装置用于识别相对于车辆的障碍物。 在识别装置中,点识别部将障碍物识别为点,并且联合部分用于将由点识别部分提供的点之间的相邻点组合起来。 联合部分提供各具有相邻点的集合。 线段识别部分用于检测由联合部分提供的相邻点集合中的特定集合或特定的相邻点集合,并且用于将每个检测到的特定集合识别为仅沿着宽度方向具有长度的线段 的车辆。 每个特定组具有沿着车辆的纵向方向小于给定长度的长度。 位置估计部分响应于先前提供的线段的位置来估计将由线段识别部分提供的线段的位置。 一个身份判断部分,用于比较由位置估计部分估计的线段位置和由线段识别部分当前提供的线段的位置,以判断当前由线段提供的线段 识别部分和先前提供的线段是相同的。