ELECTRONIC CONTROL UNIT OF A HYBRID VEHICLE
    1.
    发明公开

    公开(公告)号:EP3936398A2

    公开(公告)日:2022-01-12

    申请号:EP21184178.8

    申请日:2017-03-27

    IPC分类号: B60W20/00 B60W20/15 B60W40/09

    摘要: An electronic control unit (70) according to the invention calculates a utilization index of charging of a battery (50) by a battery charger (60) based on a ratio of an electric traveling utilization level to a hybrid traveling utilization level or a ratio of the electric traveling utilization level to a total traveling utilization level; and stores the calculated utilization index. The electronic control unit calculates the utilization index based on at least one of a) a ratio of the number of times that the battery charger charges the battery to the number of trips, and b) a ratio of total time of connecting the battery charger to an external power supply to total vehicle stop time with a system of a vehicle being turned off, c) a ratio of total electric traveling time achieved without involving operation of an engine to total hybrid traveling time achieved involving operation of the engine, d) a ratio of the total electric traveling distance to a total traveling distance, e) a ratio of the total electric traveling time to total traveling time, f) a ratio of an integrated value of energy used to charge the battery by the battery charger to an integrated value of energy consumed for traveling, g) a ratio of a total charge amount of the battery charged by the battery charger to a total fuel supply quantity to a fuel tank, and h) a ratio of the total traveling distance to total emission of carbon dioxide.
    In a first embodiment, the electronic control unit calculates the utilization index such that influence of a vehicle utilization status on the utilization index is smaller in a trip with a large traveling distance than in a trip with a small traveling distance, based on at least one of c) the ratio of the total electric traveling time to the total hybrid traveling time, d) the ratio of the total electric traveling distance to the total traveling distance, e) the ratio of the total electric traveling time to the total traveling time, and g) the ratio of the total charge amount of the battery charged by the battery charger to the total fuel supply quantity to the fuel tank.
    In a second embodiment, the electronic control unit is configured to calculate the utilization index such that influence of a vehicle utilization status on the utilization index is smaller in a case where a state of charge of the battery when the system is turned off is larger than in a case where the state of charge of the battery when the system is turned off is small, based on at least one of a) the ratio of the number of times that the battery charger charges the battery to the number of trips, and b) the ratio of the total time of connecting the battery charger to the external power supply to the total vehicle stop time with a system of the vehicle being turned off.
    In a third embodiment, the electronic control unit is configured to calculate the utilization index based on the ratio of the number of times that the battery charger charges the battery to the number of trips, without counting the number of times that the battery charger is connected to the external power supply without change in a state of charge of the battery as the number of times that the battery charger charges the battery, and without counting the number of times of trips without change in the state of charge of the battery as the number of trips.

    FUEL CELL
    2.
    发明授权

    公开(公告)号:EP2432059B1

    公开(公告)日:2016-05-18

    申请号:EP10829645.0

    申请日:2010-05-21

    摘要: A fuel cell is disclosed comprising: a power generation layer including an electrolyte membrane, and an anode and a cathode provided on respective surfaces of the electrolyte membrane; a fuel gas flow path layer located on a side of the anode of the power generation layer to supply a fuel gas to the anode while flowing the fuel gas along a flow direction of the fuel gas approximately orthogonal to a stacking direction in which respective layers of the fuel cell are stacked; and an oxidizing gas flow path layer located on a side of the cathode of the power generation layer to supply an oxidizing gas to the cathode while flowing the oxidizing gas along a flow direction of the oxidizing gas opposed to the flow direction of the fuel gas. A power generation area of the fuel cell, in which electric power is generated, has an upstream region including a most upstream position along the flow direction of the fuel gas and a downstream region including a most downstream position along the flow direction of the fuel gas. A midstream region, which is a remaining region of the power generation area other than the upstream region and the downstream region, has higher water vapor transfer resistance between the anode side and the cathode side than the upstream region and the downstream region.

    ELECTRONIC CONTROL UNIT OF A HYBRID VEHICLE
    4.
    发明公开

    公开(公告)号:EP3936398A3

    公开(公告)日:2022-04-13

    申请号:EP21184178.8

    申请日:2017-03-27

    IPC分类号: B60W20/00 B60W20/15 B60W40/09

    摘要: An electronic control unit (70) according to the invention calculates a utilization index of charging of a battery (50) by a battery charger (60) based on a ratio of an electric traveling utilization level to a hybrid traveling utilization level or a ratio of the electric traveling utilization level to a total traveling utilization level; and stores the calculated utilization index. The electronic control unit calculates the utilization index based on at least one of a) a ratio of the number of times that the battery charger charges the battery to the number of trips, and b) a ratio of total time of connecting the battery charger to an external power supply to total vehicle stop time with a system of a vehicle being turned off, c) a ratio of total electric traveling time achieved without involving operation of an engine to total hybrid traveling time achieved involving operation of the engine, d) a ratio of the total electric traveling distance to a total traveling distance, e) a ratio of the total electric traveling time to total traveling time, f) a ratio of an integrated value of energy used to charge the battery by the battery charger to an integrated value of energy consumed for traveling, g) a ratio of a total charge amount of the battery charged by the battery charger to a total fuel supply quantity to a fuel tank, and h) a ratio of the total traveling distance to total emission of carbon dioxide.
    In a first embodiment, the electronic control unit calculates the utilization index such that influence of a vehicle utilization status on the utilization index is smaller in a trip with a large traveling distance than in a trip with a small traveling distance, based on at least one of c) the ratio of the total electric traveling time to the total hybrid traveling time, d) the ratio of the total electric traveling distance to the total traveling distance, e) the ratio of the total electric traveling time to the total traveling time, and g) the ratio of the total charge amount of the battery charged by the battery charger to the total fuel supply quantity to the fuel tank.
    In a second embodiment, the electronic control unit is configured to calculate the utilization index such that influence of a vehicle utilization status on the utilization index is smaller in a case where a state of charge of the battery when the system is turned off is larger than in a case where the state of charge of the battery when the system is turned off is small, based on at least one of a) the ratio of the number of times that the battery charger charges the battery to the number of trips, and b) the ratio of the total time of connecting the battery charger to the external power supply to the total vehicle stop time with a system of the vehicle being turned off.
    In a third embodiment, the electronic control unit is configured to calculate the utilization index based on the ratio of the number of times that the battery charger charges the battery to the number of trips, without counting the number of times that the battery charger is connected to the external power supply without change in a state of charge of the battery as the number of times that the battery charger charges the battery, and without counting the number of times of trips without change in the state of charge of the battery as the number of trips.

    FUEL CELL DEVICE AND MANUFACTURING METHOD FOR SAME
    7.
    发明公开
    FUEL CELL DEVICE AND MANUFACTURING METHOD FOR SAME 审中-公开
    BRENNSTOFFZELLENVORRICHTUNG UND HERSTELLUNGSVERFAHRENDAFÜR

    公开(公告)号:EP2963724A1

    公开(公告)日:2016-01-06

    申请号:EP14757123.6

    申请日:2014-01-30

    IPC分类号: H01M8/24 H01M8/10

    摘要: A fuel cell apparatus comprises a fuel cell that has a stacked structure of a plurality of fuel cell units; an outer cover that is provided to cover at least part of a side face of the fuel cell along a stacking direction of the fuel cell; and an intermediate layer that is placed between the outer cover and the side face covered by the outer cover, wherein the outer cover and the intermediate layer are configured to satisfy X0> Fg/(K1+K2), where K1 represents a spring constant of the intermediate layer, K2 represents a spring constant of the outer cover, Fg represents an inertial force applied to the fuel cell and X0 represents an allowable amount of misalignment of the fuel cell unit in the fuel cell. This configuration of the fuel cell apparatus suppresses positional misalignment of the fuel cell.

    摘要翻译: 燃料电池装置包括燃料电池,其具有多个燃料电池单元的堆叠结构; 外盖,其被设置成沿着所述燃料电池的层叠方向覆盖所述燃料电池的侧面的至少一部分; 以及中间层,其被设置在所述外盖和被所述外盖覆盖的所述侧面之间,其中所述外盖和所述中间层被配置为满足X0> Fg /(K1 + K2),其中K1表示弹簧常数 中间层K2表示外盖的弹簧常数,Fg表示施加到燃料电池的惯性力,X0表示燃料电池中的燃料电池单元的容许偏移量。 燃料电池装置的这种构造抑制了燃料电池的位置偏移。

    FUEL CELL SYSTEM AND CONTROL METHOD THEREOF
    8.
    发明公开
    FUEL CELL SYSTEM AND CONTROL METHOD THEREOF 有权
    燃料电池系统及其控制方法

    公开(公告)号:EP2824742A1

    公开(公告)日:2015-01-14

    申请号:EP12870568.8

    申请日:2012-03-08

    IPC分类号: H01M8/04

    摘要: A fuel cell system 100 includes a fuel cell 10, a cathode gas supply system 30, a supply valve 34, an exhaust valve 43 and a controller 20. The fuel cell 10 has a supply manifold M1, an exhaust manifold M2, and a power generation area GA connected with these manifolds M1 and M2. The cathode gas supply system 30 causes a gas to be flowed into the supply manifold M1. The supply valve 34 is operable to seal the supply manifold M1, whereas the exhaust valve 43 is operable to seal the exhaust manifold M2. The controller 20 closes the supply valve 34 and the exhaust valve 43 after operation stop of the fuel cell 10 to seal the fuel cell 10 under a specified pressure and then waits for a predefined time. The controller 20 subsequently opens the supply valve 34 to move water remaining in the power generation area GA on the flow of the gas toward outside of the power generation area GA.

    摘要翻译: 燃料电池系统100具备燃料电池10,阴极气体供给系统30,供给阀34,排气阀43以及控制器20.燃料电池10具有供给歧管M1,排气歧管M2和电力 生成区域GA与这些歧管M1,M2连接。 阴极气体供给系统30使气体流入供给歧管M1。 供应阀34可操作以密封供应歧管M1,而排气阀43可操作以密封排气歧管M2。 在燃料电池10的运转停止之后,控制器20关闭供应阀34和排气阀43,以在特定压力下密封燃料电池10,然后等待预定时间。 随后,控制器20打开供应阀34,以将残留在发电区域GA中的水相对于气体流向发电区域GA的外部移动。