SHIFT CONTROL SYSTEM FOR ELECTRIC VEHICLE
    4.
    发明公开
    SHIFT CONTROL SYSTEM FOR ELECTRIC VEHICLE 审中-公开
    SCHALTSTEUERUNGSSYSTEMFÜRELEKTROFAHRZEUG

    公开(公告)号:EP2821305A1

    公开(公告)日:2015-01-07

    申请号:EP13754273.4

    申请日:2013-02-13

    发明人: TOYOTA, Ryohey

    摘要: In order to prevent deceleration (G) shock due to a braking torque on a driving wheel temporarily reaching zero during a coast down shift, this control system for an electric vehicle is provided with: an automatic transmission (3) that is positioned on a drive train from a motor generator (MG2) to a driving wheel (14), and carries out down shifting according to combination of the disengagement of a friction clutch (9c) and the engagement of an engagement clutch (8c); and a shift controller (21) that carries out shift control of the automatic transmission (3). An integrated controller (30), which carries out regenerative cooperative brake control through a substitution in which a friction torque is increased by a friction braking device (15) provided to the driving wheel (14) by tracking a reduction in a regenerative torque when a regenerative torque is reduced by the second motor generator (M2), is provided to a hybrid vehicle. The shift controller (21) matches the timing of the start of coast down shift control, which involves disengaging the friction clutch (9c), with the timing after at least a substitution involving regenerative cooperative braking control has started.

    摘要翻译: 为了防止在滑行降档期间由于驱动轮上的制动力矩暂时达到零减速(G)的冲击,该电动车辆控制系统设置有:位于驱动器上的自动变速器(3) 从电动发电机(MG2)到驱动轮(14)的列车,并且根据摩擦离合器(9c)的分离和啮合离合器(8c)的接合的组合来进行下降换档。 以及执行自动变速器(3)的变速控制的变速控制器(21)。 一种集成控制器(30),其通过在通过跟踪当再生转矩减小时通过跟踪所述驱动轮(14)的摩擦制动装置(15)来增加摩擦转矩而进行再生协调制动控制 通过第二电动发电机(M2)减少再生转矩,提供给混合动力车辆。 变速控制器(21)将至少涉及再生合作制动控制的替换开始后的定时与将摩擦离合器(9c)分离的滑行降挡变速控制开始的定时进行匹配。

    REGENERATIVE BRAKE METHOD AND SYSTEM
    9.
    发明公开
    REGENERATIVE BRAKE METHOD AND SYSTEM 审中-公开
    再生制动系统和程序

    公开(公告)号:EP2981443A1

    公开(公告)日:2016-02-10

    申请号:EP14726802.3

    申请日:2014-03-26

    IPC分类号: B60T1/10

    摘要: A vehicle 100 (Figure 1) includes a braking system 100a (Figure 2) that includes a foundation braking system 111 and a hydraulic braking system 112. According to method 100b (Figures 3 and 4), system controller 117 (Figure 2) at successive steps 120-127 determines when hydraulic regenerative braking system 112 cannot provide full commanded braking torque and acts through proportional treadle valve 116a to provide a proportional transition between an isolated hydraulic braking mode and an isolated foundation braking mode. According to methods 200b (Figures 7-8) and 200b (Figures 9-10), proportional braking is approximated. According to method 300 (Figure 11), hydraulic braking is reduced at the initiation of a braking event based upon the estimated kinetic energy of the vehicle and available capacity for storing that energy.