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    • 1. 发明授权
    • Air-conditioning device for electric automobiles
    • 电动汽车空调装置
    • US5544493A
    • 1996-08-13
    • US271464
    • 1994-07-07
    • Takahisa SuzukiKunio IritaniHiroshi IshikawaAkira Isaji
    • Takahisa SuzukiKunio IritaniHiroshi IshikawaAkira Isaji
    • B60H1/32F25D21/06
    • B60H1/321B60H1/3213B60H1/3222B60H2001/325B60H2001/3255B60H2001/3266B60H2001/327B60H2001/3292
    • The invention prevents the temperature of supplied air from being decreased by a defrosting operation when a vehicle is in operation. During the heating operation, it is judged whether the vehicle is in operation. When the vehicle is in operation, it is judged whether an external heat exchanger is frosted or not relying upon the external air temperature, temperature of the external heat exchanger (coolant) and the time of heating operation. When it is judged that frost is formed, the rotational speed of the compressor is increased to increase the ability to supplying the coolant, to maintain heating ability and to prevent the drop of temperature of the supplied air. When the frost is formed after the operation of the vehicle has been finished, it is judged whether the secondary batteries are being charged or not, i.e., whether the charging circuit of the secondary batteries is connected to the external power source for charging or not. When it has not been connected, the device waits until it is connected, and the defrosting operation is executed at a moment when the charging circuit is connected.
    • 本发明通过在车辆运行时的除霜操作来防止供气的温度降低。 在加热操作期间,判断车辆是否在运转。 当车辆运行时,判断外部热交换器是否结霜或不依赖于外部空气温度,外部热交换器(冷却剂)的温度和加热操作时间。 当判断为形成霜时,增加压缩机的旋转速度,以增加供应冷却剂的能力,以保持加热能力并防止供应空气的温度下降。 当在车辆的操作完成之后形成霜时,判断二次电池是否正在充电,即二次电池的充电电路是否连接到用于充电的外部电源。 当没有连接时,设备等待直到连接,并且在连接充电电路的时刻执行除霜操作。
    • 5. 发明授权
    • Air-conditioning apparatus
    • 空调机
    • US5526650A
    • 1996-06-18
    • US308929
    • 1994-09-20
    • Kunio IritaniTakahisa SuzukiAkira Isaji
    • Kunio IritaniTakahisa SuzukiAkira Isaji
    • B60H1/32F24F3/153F25D17/02F25B41/04
    • B60H1/00907B60H1/3207F24F3/153B60H2001/00135
    • An air-conditioning apparatus that prevents a state of blowing temperature fluctuation due to magnitude of vehicle speed in a dehumidification mode. A condenser and evaporator are disposed within an air duct, and an exterior heat exchanger is disposed externally. A capillary and check valve are provided in a refrigerant passage between the condenser and exterior heat exchanger, and a capillary is provided in a refrigerant passage between the exterior heat exchanger and evaporator. During dehumidification mode, a four-way switching valve is switched so that the flow passage of refrigerant is from the condenser to the capillary, to the check valve, to the exterior heat exchanger, to the capillary, to the evaporator, and then to an accumulator. In this case, the condenser and exterior heat exchanger function as a refrigerant condenser in a series-connected state, but because in actuality the capillary is provided, the majority of refrigerant discharged from a compressor is condensed by the condenser.
    • 一种空气调节装置,其能够防止在除湿模式下由于车速的大小引起的温度波动的状态。 冷凝器和蒸发器设置在空气管道内,外部热交换器设置在外部。 在冷凝器和外部热交换器之间的制冷剂通道中设置毛细管和止回阀,并且在外部热交换器和蒸发器之间的制冷剂通道中设置毛细管。 在除湿模式下,切换四通切换阀,使得制冷剂的流路从冷凝器到毛细管,止回阀,到外部热交换器,毛细管,到蒸发器,然后到 累加器。 在这种情况下,冷凝器和外部热交换器用作串联连接状态的制冷剂冷凝器,但是由于实际上提供了毛细管,所以从压缩机排出的大部分制冷剂被冷凝器冷凝。
    • 6. 发明授权
    • Refrigerant cycle system
    • 制冷循环系统
    • US06006532A
    • 1999-12-28
    • US112884
    • 1998-07-09
    • Takahisa SuzukiKatsuya IshiiKunio IritaniSatoshi Itoh
    • Takahisa SuzukiKatsuya IshiiKunio IritaniSatoshi Itoh
    • F25B1/00B60H1/32F25B1/10F25B13/00F25B41/06F25B43/00F25B43/02F25B39/04
    • B60H1/3225F25B1/10F25B43/006F25B13/00F25B2341/065F25B2400/13F25B2400/23F25B2500/01F25B41/062Y02B30/72
    • In a refrigerant cycle system, a gas-liquid separator has a gas-suction pipe for introducing gas refrigerant from the gas-liquid separator to a compressor. The gas-suction pipe has an open end opened in a gas-refrigerant area in the gas-liquid separator, a first suction hole, provided in a liquid-refrigerant area of the gas-liquid separator, for sucking liquid refrigerant containing lubricating oil, and a second suction hole provided in the gas-refrigerant area of the gas-liquid separator. The second suction hole for sucking gas refrigerant is formed in the gas-suction pipe at a downstream refrigerant side of the first suction hole. Therefore, a flow rate of gas refrigerant passing through around the first suction hole in the gas-suction pipe is decreased due to introduction of gas refrigerant by the second suction hole, thereby decreasing quantity of liquid refrigerant sucked from the first suction hole. Thus, liquid refrigerant is prevented from excessively returning to the compressor, even if the first suction hole is enlarged.
    • 在制冷剂循环系统中,气液分离器具有用于将气体制冷剂从气 - 液分离器引入压缩机的吸气管。 吸气管具有在气液分离器的气体制冷剂区域中敞开的开口端,设置在气液分离器的液体制冷剂区域中的用于吸入含有润滑油的液体制冷剂的第一吸入孔, 以及设置在气液分离器的气体制冷剂区域中的第二吸入孔。 用于吸入气体制冷剂的第二吸入孔形成在第一吸入孔的下游制冷剂侧的吸气管中。 因此,由于吸入管中的第一吸入孔周围的气体制冷剂的流量由于第二吸入孔引入气体制冷剂而降低,从而减少从第一吸入孔吸入的液体制冷剂的量。 因此,即使第一吸入孔扩大,也能够防止液体制冷剂过度地返回压缩机。