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    • 1. 发明授权
    • Heat storage type air conditioner, and defrosting method
    • 蓄热式空调,除霜方式
    • US5388420A
    • 1995-02-14
    • US199839
    • 1994-02-22
    • Takeshi YoshidaYasufumi HatamuraHideaki TagashiraMasami ImanishiKeiji Nonami
    • Takeshi YoshidaYasufumi HatamuraHideaki TagashiraMasami ImanishiKeiji Nonami
    • F24F11/02F25B1/00F25B5/00F25B7/00F25B13/00F25B41/04F25D16/00
    • F25B7/00F25B13/00F25B41/04F25D16/00F25B2313/0231F25B2313/02741F25B2400/24Y10S165/902
    • A heat storage type air conditioner which is free from a difficulty that, when a general cooling and heating circuit and a cold radiating and heat radiating circuit are operated separately or simultaneously, the quantities of refrigerant in those circuits become smaller or larger than required, so that its compressor is damaged or the cooling or heating capacity is lowered. When, in a heat storage type air conditioner, first and second bypass circuits 22 and 23 are closed, a general cooling and heating circuit 18 driven by a compressor 1 and a cold radiating and heat radiating circuit 21 driven by a refrigerant gas pump 13 are made independent of each other, so that a cooling operation or a heating operation is carried out with the aid of a first use-side heat exchanger 4a and a second use-side heat exchanger 4b. Therefore, in the air conditioner, the refrigerant or refrigerating machine oil will never concentrate in any one of the two circuits. In a cold storing operation or a heat storing operation for a heat storage tank 8, the two bypass circuits 22 and 23 are opened, so that the general cooling and heating circuit 18 is communicated with the cold radiating and heat radiating circuit 21. As a result, the refrigerant is led from the general cooling and heating circuit into the heat storage tank 8 to store cold or heat in the heat storing medium 7 therein.
    • 一种储热式空调器,其难度在于,当通用冷却加热回路和冷热辐射和散热回路分开或同时运行时,这些电路中的制冷剂量变得比所需要的更小或更大,因此 其压缩机损坏或冷却或加热能力降低。 当在储热式空调机中关闭第一和第二旁路回路22和23时,由制冷剂气泵13驱动的由压缩机1驱动的通用冷却和加热回路18以及冷辐射和散热回路21, 彼此独立,从而借助于第一利用侧热交换器4a和第二使用侧热交换器4b进行冷却操作或加热操作。 因此,在空调机中,制冷剂或制冷机油不会集中在两个回路中的任何一个中。 在冷藏运转或储热箱8的蓄热运转中,两个旁通回路22,23打开,使得一般的制冷加热回路18与冷热辐射回路21连通。作为 结果,制冷剂从一般的冷却和加热回路引导到储热罐8中,以将蓄热介质7中的冷或热储存在其中。
    • 2. 发明授权
    • Apparatus for controlling refrigeration cycle and a method of controlling the same
    • 用于控制制冷循环的装置及其控制方法
    • US06499308B2
    • 2002-12-31
    • US09312700
    • 1999-05-17
    • Seiji InoueKeiji NonamiMoriya Miyamoto
    • Seiji InoueKeiji NonamiMoriya Miyamoto
    • F25B2900
    • F25B13/00F25B49/02F25B2313/0313F25B2313/0314F25B2500/18F25B2600/02F25B2700/1931F25B2700/1933
    • An apparatus for controlling a refrigeration cycle for circulating a refrigerant through a compressor 2, a heat exchanger for condensation 4, a flow rate control valve 5, and a heat exchanger for evaporation 6, connected each other, comprising: a first operation means for changing a heat exchanging capability of said heat exchanger for condensation 4, a second operation means for changing a heat exchanging capability of said heat exchanger for evaporation 6, a means for operating a running capacity for changing a running capacity of said compressor, and a control means for reducing a difference between a running condition on a high pressure side or a low pressure side of said refrigeration cycle and a target, wherein when a difference between a running condition on a high or low pressure side and its target is reduced, the control means 15 bring the running condition closer to the target, minimizes a consumption energy, and bring a temperature difference of a heat exchanging fluid between an inlet and an outlet of the heat exchanger for condensation 6 closer to a target temperature difference.
    • 一种用于控制用于使制冷剂循环通过压缩机2,冷凝用热交换器4,流量控制阀5和用于蒸发的热交换器6的制冷循环的装置,其彼此连接,包括:第一操作装置,用于改变 所述热交换器用于冷凝的热交换能力4,用于改变所述用于蒸发的热交换器6的热交换能力的第二操作装置,用于操作用于改变所述压缩机的运行能力的运行能力的装置,以及控制装置 用于减小所述制冷循环的高压侧或低压侧的行驶状态与目标之间的差异,其中当高压侧或低压侧的行驶状态与其目标之间的差减小时,所述控制单元 15使运行状态更接近目标,使消耗能量最小化,并使热交换流体的温差变差 使冷凝器6的入口和出口更接近目标温度差。