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    • 1. 发明授权
    • Power system for a hybrid fuel cell vehicle that employs a floating base load strategy
    • 采用浮动基本负载策略的混合动力燃料电池车辆的动力系统
    • US07807306B2
    • 2010-10-05
    • US12492956
    • 2009-06-26
    • Peter KilianVolker FormanskiJochen Schaffnit
    • Peter KilianVolker FormanskiJochen Schaffnit
    • H01M8/04
    • H01M8/0494H01M8/04619H01M8/04626H01M2250/20Y02T90/32
    • A fuel cell system employing a floating base load hybrid strategy for reducing fast voltage transients of a FCPM. A power request signal is applied to an average power calculation processor that calculates the average power requested over a predetermined previous period of time. A weighting function processor provides a weighting function based on the state of charge of an EESS. The power available from the FCPM and the EESS is applied to a power comparison processor. The available power is compared to the power request to provide a difference value between what is currently being provided and what is desired. The difference value is compared to power limit values of the EESS. The output value of this comparison is added to a filtered value to generate a signal for the change in the output power of the fuel cell stack based on the power request.
    • 一种使用浮动基极负载混合策略来降低FCPM的快速电压瞬变的燃料电池系统。 功率请求信号被施加到平均功率计算处理器,其计算在预定的上一时间段内所请求的平均功率。 加权函数处理器基于EESS的充电状态提供加权函数。 从FCPM和EESS可用的功率被应用于功率比较处理器。 将可用功率与功率请求进行比较,以提供当前正在提供的内容与期望的值之间的差值。 将差值与EESS的功率极限值进行比较。 该比较的输出值被加到经滤波的值,以产生基于功率请求改变燃料电池堆的输出功率的信号。
    • 2. 发明授权
    • Floating base load hybrid strategy for a hybrid fuel cell vehicle to increase the durability of the fuel cell system
    • 用于混合燃料电池车辆的浮动基本负载混合策略以增加燃料电池系统的耐久性
    • US07597976B2
    • 2009-10-06
    • US11313162
    • 2005-12-20
    • Peter KilianVolker FormanskiJochen Schaffnit
    • Peter KilianVolker FormanskiJochen Schaffnit
    • H01M8/04
    • H01M8/0494H01M8/04619H01M8/04626H01M2250/20Y02T90/32
    • A fuel cell system employing a floating base load hybrid strategy for reducing fast voltage transients of a FCPM. A power request signal is applied to an average power calculation processor that calculates the average power requested over a predetermined previous period of time. A weighting function processor provides a weighting function based on the state of charge of an EESS. The power available from the FCPM and the EESS is applied to a power comparison processor. The available power is compared to the power request to provide a difference value between what is currently being provided and what is desired. The difference value is compared to power limit values of the EESS. The output value of this comparison is added to a filtered value to generate a signal for the change in the output power of the fuel cell stack based on the power request.
    • 一种使用浮动基极负载混合策略来降低FCPM的快速电压瞬变的燃料电池系统。 功率请求信号被施加到平均功率计算处理器,其计算在预定的上一时间段内所请求的平均功率。 加权函数处理器基于EESS的充电状态提供加权函数。 从FCPM和EESS可用的功率被应用于功率比较处理器。 将可用功率与功率请求进行比较,以提供当前正在提供的内容与期望的值之间的差值。 将差值与EESS的功率极限值进行比较。 该比较的输出值被加到经滤波的值,以产生基于功率请求改变燃料电池堆的输出功率的信号。
    • 5. 发明授权
    • Battery thermal system control strategy
    • 电池热系统控制策略
    • US08410760B2
    • 2013-04-02
    • US12848726
    • 2010-08-02
    • Volker FormanskiMarc Reischmann
    • Volker FormanskiMarc Reischmann
    • H02J7/04H01M10/50G01K1/14
    • H01M10/443H01M10/613H01M10/615H01M10/633
    • A method and system for controlling temperature in an electric vehicle battery pack which preserves battery pack performance and longevity while maximizing vehicle driving range. A controller prescribes a minimum allowable operating temperature in the battery pack, where the minimum operating temperature increases as battery pack state of charge and remaining useful life decrease. During vehicle driving operations, the minimum allowable temperature is computed, and a thermal management system is used to warm the battery pack only if necessary to raise its temperature above the calculated minimum level. By minimizing use of the thermal management system to warm the battery pack, energy consumption is reduced and vehicle driving range is increased, while not adversely affecting battery pack performance or durability. The same strategy is employed during charging, which reduces the amount of energy consumed from the grid for warming the battery pack.
    • 一种用于控制电动车辆电池组中的温度的方法和系统,其在最大化车辆行驶范围的同时保持电池组的性能和使用寿命。 控制器规定了电池组中的最小允许工作温度,其中最低工作温度随电池组充电状态而增加,剩余使用寿命降低。 在车辆驾驶操作期间,计算最小允许温度,并且仅在必要时使用热管理系统来加热电池组,以将其温度升高到计算的最低水平以上。 通过最小化使用热管理系统来加热电池组,能量消耗减少并且车辆行驶范围增加,同时不会对电池组性能或耐用性产生不利影响。 在充电期间采用相同的策略,这减少了从电网消耗的用于加热电池组的能量的量。
    • 9. 发明申请
    • BATTERY THERMAL SYSTEM CONTROL STRATEGY
    • 电池热系统控制策略
    • US20120029724A1
    • 2012-02-02
    • US12848726
    • 2010-08-02
    • Volker FormanskiMarc Reischmann
    • Volker FormanskiMarc Reischmann
    • G05D23/00G06F19/00G01N27/416G01K1/00
    • H01M10/443H01M10/613H01M10/615H01M10/633
    • A method and system for controlling temperature in an electric vehicle battery pack which preserves battery pack performance and longevity while maximizing vehicle driving range. A controller prescribes a minimum allowable operating temperature in the battery pack, where the minimum operating temperature increases as battery pack state of charge and remaining useful life decrease. During vehicle driving operations, the minimum allowable temperature is computed, and a thermal management system is used to warm the battery pack only if necessary to raise its temperature above the calculated minimum level. By minimizing use of the thermal management system to warm the battery pack, energy consumption is reduced and vehicle driving range is increased, while not adversely affecting battery pack performance or durability. The same strategy is employed during charging, which reduces the amount of energy consumed from the grid for warming the battery pack.
    • 一种用于控制电动车辆电池组中的温度的方法和系统,其在最大化车辆行驶范围的同时保持电池组的性能和使用寿命。 控制器规定了电池组中的最小允许工作温度,其中最低工作温度随电池组充电状态而增加,剩余使用寿命降低。 在车辆驾驶操作期间,计算最小允许温度,并且仅在必要时使用热管理系统来加热电池组,以将其温度升高到计算的最低水平以上。 通过最小化使用热管理系统来加热电池组,能量消耗减少并且车辆行驶范围增加,同时不会对电池组性能或耐用性产生不利影响。 在充电期间采用相同的策略,这减少了从电网消耗的用于加热电池组的能量的量。