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    • 1. 发明专利
    • Heat pump type snow melting air conditioner
    • 热泵型滑雪空调
    • JP2007009680A
    • 2007-01-18
    • JP2006149091
    • 2006-05-30
    • Mitsubishi Electric Corp三菱電機株式会社
    • INOUE SEIJIMORISHITA KUNIHIROYAMASHITA TETSUHISA
    • E01C11/26F25B1/00F25B6/04F25B30/02
    • PROBLEM TO BE SOLVED: To provide a heat pump type snow melting air conditioner having also a snow melting apparatus by a heat pump using a cooling cycle, in addition to an ordinary air-conditioner.
      SOLUTION: The heat pump type snow melting air conditioner is equipped with a snow melting section 7 set near a house and under a road surface, a pump for circulating a secondary heat medium to the snow melting pipe 7a of the snow melting section 7, a heat exchanger for melting snow wherein the secondary heat medium and a refrigerant exchange heat, a hot water unit 16 having a sub-restriction device, an indoor unit 11, an outdoor unit 15, and a snowfall sensor 14, a snow melting remote controller 13 wherein the snowfall sensor 14 and the outdoor control unit of the outdoor unit 15 are connected by a cable. The refrigerating cycle is constituted by connecting in order a compressor, the heat exchanger for melting snow, the sub-restriction device, an indoor heat exchanger, a restriction device and an outdoor heat exchanger. When the snowfall sensor 14 detects snowfall or when a user instructs snow melting operation using the snow melting remote controller 13, an outdoor unit control section starts the operation of the hot water unit 16.
      COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:除了普通的空调机之外,还提供一种也可以通过使用冷却循环的热泵具有雪融化装置的热泵式雪熔空气调节器。 解决方案:热泵式雪熔空调装置在房屋附近设置有雪融化部7,在路面下方设置有用于将二次热介质循环到雪熔化部的雪熔融管7a的泵 7,一种用于熔化雪的热交换器,其中二次热介质和制冷剂交换热,具有子限制装置的热水单元16,室内单元11,室外单元15和降雪传感器14,融雪 遥控器13,其中,降雪传感器14和室外机15的室外控制单元通过电缆连接。 制冷循环是按照压缩机,雪融雪换热器,副限制装置,室内热交换器,限制装置和室外热交换器连接构成的。 当降雪传感器14检测到降雪时,或者当用户使用雪融化遥控器13指示雪融化操作时,室外机控制部分开始热水单元16的操作。(C)2007,JPO&INPIT
    • 2. 发明专利
    • Using method for existing refrigerant piping
    • 现有制冷管道的使用方法
    • JP2005061830A
    • 2005-03-10
    • JP2004349547
    • 2004-12-02
    • Mitsubishi Electric Corp三菱電機株式会社
    • INOUE SEIJIISHIKAWA NORIKAZUYOSOMIYA MASATOKAZEMURA NORIHIDE
    • F25B45/00
    • F25B2400/18
    • PROBLEM TO BE SOLVED: To solve a problem wherein a conventional existing refrigerant piping using method requires work such as evacuation after replacing a refrigerator oil in a removed compressor and sealing a new refrigerator oil, and requires some frequencies of repetitions of works of sealing a new refrigerant or the like, requiring troublesome inconvenience for the works, and causing increase of a construction cost and expense accompanied thereto.
      SOLUTION: A cooling operation is carried out for a fixed time by an outdoor equipment, when the outdoor unit constituting a refrigeration cycle is operable, and the old refrigerant recovered from the refrigeration cycle is separated from the oil by a refrigerant regenerator and a refrigerant liquid reduced in a concentration of the contained refrigerator oil is circulated to clean the refrigeration cycle, when the outdoor unit constituting a refrigeration cycle is not operable.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:为了解决现有的现有的制冷剂管道使用方法需要诸如在更换除去的压缩机中的冷冻机油并且密封新的冷冻机油之后撤离的工作的问题,并且需要一些重复的工作频率 密封新的制冷剂等,对工程造成麻烦,造成施工成本和费用增加。 解决方案:当构成制冷循环的室外单元可操作时,通过室外设备进行固定时间的冷却操作,并且从制冷循环中回收的旧制冷剂通过制冷剂再生器与油分离, 当构成制冷循环的室外机不可操作时循环冷冻机油浓度降低的制冷剂液体,以​​清洁制冷循环。 版权所有(C)2005,JPO&NCIPI
    • 7. 发明专利
    • HEAT STORAGE TYPE COOLING DEVICE
    • JP2001124419A
    • 2001-05-11
    • JP30423199
    • 1999-10-26
    • MITSUBISHI ELECTRIC CORP
    • INOUE SEIJINEGORO KOICHIKOBAYAKAWA HIROYUKI
    • F25B1/00F25B5/00
    • PROBLEM TO BE SOLVED: To obtain a heat storage type cooling device, capable of processing preferentially the cooling load of a utilizing side heat exchanger and provided with an inexpensive, simple and miniaturized constitution. SOLUTION: Three kinds of operation modes of a normal cooling operation, in which the cooling operation of only a utilizing side heat exchanger 14 is effected by separating a heat storage tank 90 from a refrigerating cycle, a cold storage cooling operation, in which the cooling operation of utilizing side heat exchanger 14 and the heat storage of the heat storage tank 90 are effected in parallel by connecting the heat storage tank 90 to the utilizing side heat exchanger 14 in parallel, and cooling operation utilizing cold storage, in which cooling operation of the utilizing side heat exchanger 14 is effected by connecting the heat storage tank 90 in series to the utilizing side heat exchanger 14 while effecting cooling operation utilizing cold storage in which the cooling capacity of the utilizing side heat exchanger 14 is increased in accordance with the amount of super-cooling in the heat storage tank 90, are switched by the operation of a second evacuating device 15, a first opening and closing valve 11, a second opening and closing valve 12 and a third opening and closing valve 13.
    • 8. 发明专利
    • REFRIGERATING CYCLE AND METHOD FOR CONTROLLING REFRIGERATING CYCLE
    • JP2000121193A
    • 2000-04-28
    • JP29478898
    • 1998-10-16
    • MITSUBISHI ELECTRIC CORP
    • INOUE SEIJIOKAZAKI TAKASHI
    • F25B1/00F25B13/00F25C1/00
    • PROBLEM TO BE SOLVED: To reduce a comsumption power energy and to cut a peak of power with a simple structure by circulating a refrigerant to a heat exchanger for heat exchanging the refrigerant with a thermal storage material, a user side pressure reducing unit and a user side heat exchanger, and cooling the refrigerant with the cold heat stored in the material at the user side exchanger. SOLUTION: In a refrigerant natural circulation cooling of cooling modes, a compressor 1 is stopped, and a cold heat stored as an ice in a thermal storage tank 99 is used for cooling in a cold heat thermal storage operation. Vapor refrigerant sent from two user side heat exchanges 8a, 8b is sent from uppermost parts to a thermal storage exchanger 6 through vapor piping 82 and an opening/closing valve 11 to radiate heat to a thermal storage material 98 in the tank 99 so that the refrigerant itself is condensed and liquefied. The liquefied refrigerant is fed from a lowermost part of the exchanger 6 to liquid extended piping 84 through a thermal storage pressure reducing unit 5 and an opening/closing valve 13. The fed refrigerant flows to the exchanges 8a, 8b through user side pressure reducing units 7a, 7b. Thus, the refrigerant natural circulation is conducted by using a temperature difference and gravity of the material 98.
    • 9. 发明专利
    • AIR-CONDITIONING DEVICE
    • JPH10267428A
    • 1998-10-09
    • JP6805997
    • 1997-03-21
    • MITSUBISHI ELECTRIC CORP
    • SHIBA KOUYUUIIJIMA HITOSHIINOUE SEIJIMATSUOKA FUMIOYOSHIKAWA TOSHIAKIINUI KUNIHIRO
    • F25B1/00
    • PROBLEM TO BE SOLVED: To perform high-efficient operation through proper distribution of a refrigerant and refrigerator oil by a method wherein one end of a whole heat-exchanger incorporated in outdoor and indoor units is made to communicate with the lower end bottom part of a medium pressure receiver through an electronic expansion valve incorporated in a function unit. SOLUTION: Refrigerant gas discharged from compressors 1a and 1b flows in an oil separator 4 through discharge pipings 10a and 10b and flows in outdoor and indoor heat-exchangers 2a and 2z through a high pressure gas piping 8 and heat-exchange is effected thereat for liquefaction. A liquefied refrigerant is reduced in a pressure halfway by electronic expansion valves 14a and 14z and flows in a medium pressure receiver 5 through refrigerant liquid pipings 6a and 6z. The liquefied refrigerant flows in indoor-exchangers 2x and 2y through refrigerant liquid pipings 6x and 6y and electronic expansion valves 14x and 14y, and is heat exchanged with indoor air hereat for gasification. A gasified refrigerant flows in an equalizing oil tank 3, exchanges heat with a refrigerant in a medium pressure receiver 5 through heat-exchangers 21a and 21b, and returns to the compressors 1a and 1b.