Air conditioner
    43.
    发明公开
    Air conditioner 有权
    冷气机

    公开(公告)号:EP2437009A3

    公开(公告)日:2013-06-26

    申请号:EP11155873.0

    申请日:2011-02-24

    摘要: An air conditioner has a refrigerating cycle in which a refrigerant flows through a compressor 6, a four-way valve 8, an indoor heat exchanger 16, an expansion valve 12, an outdoor heat exchanger 14, and the four-way valve 8 in this order during heating, and also has a heat storage tank 32 that accommodates a heat storage material 36 for storing therein heat generated by the compressor 6 and a heat storage heat exchanger 34,. The air conditioner includes a heat storage bypass circuit for connecting a refrigerant pipe between the indoor heat exchanger 16 and the expansion valve 12 and a refrigerant pipe between the four-way valve 8 and an inlet port defined in the compressor 6, a defrosting bypass circuit for connecting a refrigerant pipe between the expansion valve 12 and the outdoor heat exchanger 16 and a refrigerant pipe between an outlet port defined in the compressor 6 and the four-way valve 8, and a heat storage two-way valve 42 provided in the heat storage bypass circuit. Also, a normal heating mode and a quick heating mode are provided, and a warm wind is blown out more quickly in the quick heating mode than in the normal heating mode.

    摘要翻译: 在该空调机中,制冷剂在压缩机6,四通阀8,室内热交换器16,膨胀阀12,室外热交换器14,四通阀8中流动的制冷循环 并且还具有容纳用于储存由压缩机6和储热换热器34产生的热的储热材料36的储热罐32。 该空气调节器包括蓄热旁路回路,用于连接室内热交换器16和膨胀阀12之间的制冷剂管路和四通阀8与限定在压缩机6中的入口之间的制冷剂管路,除霜旁路回路 用于连接膨胀阀12和室外热交换器16之间的制冷剂管和限定在压缩机6中的出口和四通阀8之间的制冷剂管以及设置在热量中的蓄热二通阀42 存储旁路电路。 此外,提供正常加热模式和快速加热模式,并且在快速加热模式下比在正常加热模式下更快速地吹出暖风。

    Refrigeration cycle apparatus and hot water producing apparatus
    44.
    发明公开
    Refrigeration cycle apparatus and hot water producing apparatus 审中-公开
    制冷循环装置和热水生产装置

    公开(公告)号:EP2592367A2

    公开(公告)日:2013-05-15

    申请号:EP12191501.1

    申请日:2012-11-06

    IPC分类号: F25B7/00 F25B25/00 F25B47/02

    摘要: A refrigeration cycle apparatus includes a low temperature-side refrigeration cycle 110, a high temperature-side refrigeration cycle 120, defrosting detecting means 116 which detects a frost-formed state of the low temperature-side refrigeration cycle 110, and a controller 140. When an operation should be shifted to a defrosting operation for thawing frost of the low temperature-side evaporator 114, an operation of the low temperature-side compressor 111 of the low temperature-side refrigeration cycle 110 is continued, an operation of the high temperature-side compressor 121 of the high temperature-side refrigeration cycle 120 is stopped, and the operation is shifted to the defrosting operation. When the operation is shifted to the defrosting operation, heat-accumulated high temperature low temperature-side refrigerant is supplied to the low temperature-side evaporator 114 to defrost. Therefore, it is possible to shorten the defrosting time and to enhance the operation efficiency of a refrigeration cycle.

    摘要翻译: 制冷循环装置具备低温侧制冷循环110,高温侧制冷循环120,检测低温侧制冷循环110的结霜状态的除霜检测单元116,以及控制部140。 为了解冻低温侧蒸发器114的霜而进行除霜运转,使低温侧冷冻循环系统110的低温侧压缩机111的运转继续, 高温侧冷冻循环120的高压侧压缩机121停止,运转转移到除霜运转。 当操作转换到除霜操作时,蓄热的高温低温侧制冷剂被供应到低温侧蒸发器114以除霜。 因此,可以缩短解冻时间并提高制冷循环的运转效率。

    METHOD AND DEVICE FOR HEAT RECOVERY ON A VAPOUR REFRIGERATION SYSTEM
    46.
    发明公开
    METHOD AND DEVICE FOR HEAT RECOVERY ON A VAPOUR REFRIGERATION SYSTEM 有权
    VERFAHREN UND VORRICHTUNG ZURWÄRMERÜCKGEWINNUNGBEI EINEMDAMPFKÜHLUNGSSYSTEM

    公开(公告)号:EP2459944A1

    公开(公告)日:2012-06-06

    申请号:EP09781141.8

    申请日:2009-07-27

    申请人: Ecolactis

    IPC分类号: F25B29/00 F25B49/02

    摘要: A method and a device for heat recovery on a vapour compression refrigeration system allowing to produce hot water, includes at least a first piping closed refrigerating circuit in which a refrigerant fluid circulates, a compressor, an evaporator, an expansion valve, a condenser and/or a heat recovery unit including a water inlet and a water outlet respectively connected to a second piping circuit comprising a circulating pump. At least one physical unit of the refrigerant fluid and/or water of the second piping circuit is determined. When the physical unit is lower than a predetermined threshold, condensing temperature is increased, and when said physical unit is greater than said predetermined threshold, condensing temperature is decreased to a minimum value.

    摘要翻译: 一种允许制造热水的蒸气压缩式制冷系统的热回收方法和装置,至少包括制冷剂流体循环的第一配管闭式制冷回路,压缩机,蒸发器,膨胀阀,冷凝器和/ 或包括分别连接到包括循环泵的第二管道回路的进水口和出水口的热回收单元。 确定第二配管回路的制冷剂流体和/或水的至少一个物理单元。 当物理单元低于预定阈值时,冷凝温度升高,并且当所述物理单元大于所述预定阈值时,将冷凝温度降低到最小值。

    REFRIGERATING SYSTEM AND METHOD FOR CONTROLLING COMPRESSOR SETS IN SUCH A REFRIGERATING SYSTEM
    49.
    发明授权
    REFRIGERATING SYSTEM AND METHOD FOR CONTROLLING COMPRESSOR SETS IN SUCH A REFRIGERATING SYSTEM 有权
    冷却系统及其控制方法压缩站在这样的冷却系统

    公开(公告)号:EP2153138B1

    公开(公告)日:2011-01-05

    申请号:EP07725094.2

    申请日:2007-05-10

    发明人: GASSEN, Heinz

    IPC分类号: F25B25/00 F25B49/02

    摘要: A refrigerating system (2) according to the invention comprises at least one refrigerant circuit (4) having a set of compressors (6, 8, 10), each of said compressors (6, 8, 10) being operable at least one compressor power stage, a control unit for the set of compressors (6, 8, 10), a liquefied (12), an evaporator also forming a heat exchanger (14), refrigerant conduits connecting the set of compressors (6, 8, 10), the liquefied (12), and the heat exchanger (14), and circulating a refrigerant, and a pressure sensor (16) arranged between the heat exchanger (14) and the set of compressors (6, 8, 10) sensing the refrigerant pressure; a cold carrier circuit (22) having a cold carrier pump (36), a cold consumer region (24), cold carrier conduits connecting the cold carrier pump (36), the heat exchanger (14) and the cold consumer region (24) and circulating a cold carrier, which is refrigerated in the heat exchanger (14), and a temperature sensor (26, 28) sensing the cold carrier temperature. The control unit for the set of compressors (6, 8, 10) is configured such that, in case of the temperature sensor (26, 28) sensing a too high cold carrier temperature, it prevents turning on additional compressor power stages, if the refrigerant pressure is below a first critical value (pmin + Δpi) and decreases, and it switches off at least one running compressor power stage, if the refrigerant pressure falls below a second critical value (pmin - Δp2).