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    • 1. 发明申请
    • A VAPOUR COMPRESSION SYSTEM WITH SPLIT EVAPORATOR
    • 具有分离蒸发器的蒸汽压缩系统
    • WO2011072679A1
    • 2011-06-23
    • PCT/DK2010/000100
    • 2010-06-29
    • DANFOSS A/STHYBO, ClausLARSEN, Lars, Finn, SlothMADER, Gunda
    • THYBO, ClausLARSEN, Lars, Finn, SlothMADER, Gunda
    • F25B5/02F25B1/10
    • F25B5/02F25B1/10F25B39/02F28D1/0417F28D1/0435
    • A vapour compression system (1) comprising a compressor (2), a condenser (3), an expansion device (4) and an evaporator (5) arranged along a refrigerant path is disclosed. The evaporator (5) comprises at least two evaporator paths (5a, 5b, 5c, 5d) arranged fluidly in parallel between the expansion device (4) and the compressor (2). Each evaporator path (5a, 5b, 5c, 5d) is fluidly connected to the compressor (2) via a separate suction line (7a, 7b, 7c), and the suction pressure in each of the suction lines (7a, 7b, 7c) is distinct from the suction pressure in each of the other suction line(s) (7a, 7b, 7c). The separate suction lines (7a, 7b, 7c) allows the evaporator paths (5a, 5b, 5c, 5d) to be operated at different evaporator temperatures and pressures. Thereby a large temperature change of a secondary flow (6) across the evaporator (5) can be obtained while the suction pressure of a part of the mass flow is kept at a high level. The work required by the compressor (2) is reduced and energy is conserved.
    • 公开了一种蒸气压缩系统(1),其包括沿制冷剂路径布置的压缩机(2),冷凝器(3),膨胀装置(4)和蒸发器(5)。 蒸发器(5)包括至少两个平行布置在膨胀装置(4)和压缩机(2)之间的蒸发器路径(5a,5b,5c,5d)。 每个蒸发器路径(5a,5b,5c,5d)经由单独的吸入管线(7a,7b,7c)与压缩机(2)流体连接,吸入管线(7a,7b,7c) )与其他吸入管线(7a,7b,7c)中的每一个的吸入压力不同。 分离的吸入管线(7a,7b,7c)允许蒸发器路径(5a,5b,5c,5d)在不同的蒸发器温度和压力下操作。 从而可以获得横跨蒸发器(5)的二次流(6)的大的温度变化,同时将质量流的一部分的吸入压力保持在高水平。 压缩机(2)所需的工作减少,节能。
    • 2. 发明申请
    • CONTROL OF A SYSTEM WITH A LARGE THERMAL CAPACITY
    • 控制一个具有较大热容量的系统
    • WO2007090405A3
    • 2007-10-18
    • PCT/DK2007000064
    • 2007-02-08
    • DANFOSS ASLARSEN LARS FINN SLOTHTHYBO HONGLIANTHYBO CLAUS
    • LARSEN LARS FINN SLOTHTHYBO HONGLIANTHYBO CLAUS
    • F24D3/12F24D19/10
    • F24D19/1009F24D3/12G05D23/1919
    • The invention provides a method and a system for controlling floor heating or climate regulating systems with long time constants. According to the invention, a flow of a fluid is provided through the floor or through a similar medium with large thermal inertia. An induced heat is determined by adding up a plurality of differences between an inlet temperature of the fluid when it enters the medium and an outlet temperature of the fluid when it leaves the medium. The temperatures are sampled with a fixed sampling time and within a fixed period of time, and a corresponding change in temperature of the medium over the fixed period of time is determined. In the future, the temperature of that medium is controlled by use of a ratio between the induced heat and the change in temperature.
    • 本发明提供了一种用于控制具有长时间常数的地板加热或气候调节系统的方法和系统。 根据本发明,通过地板或通过具有大的热惯性的类似介质提供流体流。 通过在流体进入介质时流体的入口温度与流体离开介质时的流体出口温度之间的多个差值相加来确定诱导热量。 在固定的采样时间内和在固定的时间段内对温度进行采样,并且确定介质在固定的时间段内的相应的温度变化。 将来,通过使用感应热与温度变化之间的比率来控制该介质的温度。
    • 4. 发明申请
    • A HEAT EXCHANGER WITH A SUCTION LINE HEAT EXCHANGER
    • 带有换热器换热器的换热器
    • WO2011023192A3
    • 2011-09-22
    • PCT/DK2010000101
    • 2010-06-30
    • DANFOSS ASTHYBO CLAUSLARSEN LARS FINN SLOTHMADER GUNDA
    • THYBO CLAUSLARSEN LARS FINN SLOTHMADER GUNDA
    • F28F9/02F25B39/02F25B39/04F25B40/00
    • F28F9/0234F25B40/00F25B2400/054F28F2260/02
    • A heat exchanger, such as an evaporator (1) or a condenser (17), for a vapour compression system (15) and a vapour compression system (15) with such a heat exchanger are disclosed. The heat exchanger comprises at least two flow tubes arranged fluidly in parallel, an inlet manifold (3) and an outlet manifold (7). Each flow tube fluidly connects the inlet manifold (3) and the outlet manifold (7), and fluid medium is distributed among the flow tubes by the inlet manifold (3). The outlet manifold (7) is provided with a suction line heat exchanger, preferably being fluidly connected in a refrigerant path of the vapour compression system (15) between a condenser (17) and an expansion device (18), in the case that the heat exchanger is an evaporator (1). The suction line heat exchanger is arranged in the outlet manifold (7) in such a manner that direct thermal contact is provided between the refrigerant delivered from the flow tubes and the suction line heat exchanger, the refrigerant, e.g., being sprayed directly onto the suction line heat exchanger. Refrigerant leaving the evaporator (1) is heated, thereby causing evaporation of possible liquid refrigerant. Thereby liquid refrigerant can be allowed to pass through some of the evaporator tubes (2) without risking damage to the compressor (16). Utilisation of the potential refrigeration capacity of the evaporator (1) is improved. Arranging the suction line heat exchanger in the outlet manifold (7) provides a compact design and eliminates the requirement for additional components.
    • 公开了一种用于蒸汽压缩系统(15)的蒸发器(1)或冷凝器(17)和具有这种热交换器的蒸汽压缩系统(15)的热交换器。 热交换器包括至少两个平行流体布置的流管,入口歧管(3)和出口歧管(7)。 每个流管流体地连接入口歧管(3)和出口歧管(7),并且流体介质通过入口歧管(3)分布在流管中。 出口歧管(7)设置有吸入管线热交换器,优选在冷凝器(17)和膨胀装置(18)之间的蒸气压缩系统(15)的制冷剂路径中流体连接,在这种情况下, 热交换器是蒸发器(1)。 吸入管路热交换器以这样的方式设置在出口歧管(7)中,使得在从流动管输送的制冷剂和吸入管线热交换器之间提供直接热接触,制冷剂例如直接喷射到吸力 线路换热器。 离开蒸发器(1)的制冷剂被加热,从而引起可能的液体制冷剂的蒸发。 因此,可以允许液体制冷剂通过一些蒸发器管(2),而不会对压缩机(16)造成危害。 提高了蒸发器(1)的潜在制冷量的利用率。 将排气歧管(7)中的吸入管路热交换器布置成紧凑的设计,并消除了对附加部件的要求。
    • 5. 发明申请
    • A METHOD FOR CONTROLLING A FLOW OF REFRIGERANT TO A MULTI- TUBE EVAPORATOR
    • 一种用于控制制冷剂流向多管蒸发器的方法
    • WO2011003416A2
    • 2011-01-13
    • PCT/DK2010000102
    • 2010-07-01
    • DANFOSS ASTHYBO CLAUSLARSEN LARS FINN SLOTHMADER GUNDA
    • THYBO CLAUSLARSEN LARS FINN SLOTHMADER GUNDA
    • F25B39/02
    • F25B41/062F25B39/028F25B2341/0652F28D1/05366F28F9/0282F28F27/02Y02B30/72
    • A method for controlling a flow of refrigerant to an evaporator arranged in a vapour compression system is disclosed. The vapour compression system comprises the evaporator, a compressor, a condenser, and an expansion device arranged in a refrigerant flow path. The evaporator comprises at least two evaporator tubes arranged fluidly in parallel, and a header being fluidIy connected between the expansion device and the evaporator tubes. The method comprises the steps of alternatingly allowing and preventing a flow of mixed phase refrigerant into the header. The step of allowing a flow of mixed phase refrigerant into the header is performed in such a manner that a pressure level in the header is increased significantly and abruptly. Thereby the liquid part and the gaseous part of the mixed phase refrigerant are distributed substantially homogeneously in the header. Thereby the liquid part of the refrigerant is distributed in a substantially uniform manner among the evaporator tubes, and the same filling degree is obtained in the tubes. The potential refrigeration capacity of the evaporator can be utilised to a greater extent without risking that liquid refrigerant passes the evaporator.
    • 公开了一种用于控制制冷剂流入蒸气压缩系统中的蒸发器的方法。 蒸汽压缩系统包括布置在制冷剂流动路径中的蒸发器,压缩机,冷凝器和膨胀装置。 蒸发器包括至少两个平行流体排列的蒸发器管,并且流体连接在膨胀装置和蒸发器管之间的集管。 该方法包括交替地允许和防止混合相制冷剂流入集管中的步骤。 以使得集流管中的压力水平显着和突然增加的方式进行允许混合相制冷剂流入集管的步骤。 因此,混合相制冷剂的液体部分和气体部分基本均匀地分布在集管中。 因此,制冷剂的液体部分在蒸发器管中以大致均匀的方式分布,并且在管中获得相同的填充度。 可以更大程度地利用蒸发器的潜在制冷能力,而不会使液体制冷剂通过蒸发器。
    • 6. 发明申请
    • A METHOD FOR CALIBRATING A SUPERHEAT SENSOR
    • 一种用于校准超级传感器的方法
    • WO2010025728A1
    • 2010-03-11
    • PCT/DK2009/000198
    • 2009-09-04
    • DANFOSS A/SVONSILD, Asbjorn, LethTHYBO, ClausLARSEN, Lars, Finn, SlothSPANGBERG, JakobHOYER, JesperVOGLER, Jes
    • VONSILD, Asbjorn, LethTHYBO, ClausLARSEN, Lars, Finn, SlothSPANGBERG, JakobHOYER, JesperVOGLER, Jes
    • F25B41/06F25B49/00
    • F25B41/062F25B49/005F25B2600/21F25B2700/21175
    • A method for calibrating a superheat sensor (5) for a refrigeration system is provided. The method comprises the following steps. Increasing an amount of liquid refrigerant in the evaporator (1), e.g. by increasing an opening degree of the expansion valve (3). Monitoring one or more parameters, e.g. the temperature of refrigerant leaving the evaporator (1), said parameters reflecting a superheat value of the refrigerant. Allowing the value of each of the parameter(s) to decrease. When the value(s) of the monitored parameter(s) reaches a substantially constant level, defining the superheat value corresponding to the constant level to be SH=O. The superheat sensor (5) is then calibrated in accordance with the defined SH=O level. When the parameter(s) reaches the substantially constant level it is an indication that liquid refrigerant is allowed to pass through the evaporator (1), and thereby that the superheat of the refrigerant leaving the evaporator (1) is zero. Calibration can be performed on site, and it is therefore not necessary to calibrate the sensor (5) at the manufacturing facility. Thereby it is no longer required to match calibration information with a specific sensor.
    • 提供了一种用于校准用于制冷系统的过热传感器(5)的方法。 该方法包括以下步骤。 增加蒸发器(1)中的液体制冷剂的量,例如 通过增大膨胀阀(3)的开度。 监测一个或多个参数,例如 离开蒸发器(1)的制冷剂的温度,所述参数反映制冷剂的过热值。 允许每个参数的值减少。 当所监视的参数的值达到基本上恒定的水平时,将对应于恒定水平的过热值定义为SH = O。 然后根据定义的SH = O电平校准过热传感器(5)。 当参数达到基本上恒定的水平时,表明允许液体制冷剂通过蒸发器(1),从而使离开蒸发器(1)的制冷剂的过热为零。 校准可以在现场执行,因此无需在生产设备中校准传感器(5)。 因此,不再需要将校准信息与特定传感器相匹配。
    • 8. 发明申请
    • A VALVE ASSEMBLY WITH AN INTEGRATED HEADER
    • 具有集成头的阀组件
    • WO2009146705A1
    • 2009-12-10
    • PCT/DK2009/000130
    • 2009-06-03
    • DANFOSS A/SBRAM, LeoTHYBO, ClausLARSEN, Lars, Finn, Sloth
    • BRAM, LeoTHYBO, ClausLARSEN, Lars, Finn, Sloth
    • F25B39/02
    • F25B39/028F25B2500/18
    • A valve assembly (1) comprising an inlet opening, a distributor and an outlet part comprising at least two outlet openings. The distributor comprises an inlet part (5) fluidly connected to the inlet opening, and is arranged to distribute fluid medium received from the inlet opening to at least two parallel flow paths, preferably of a heat exchanger (3). The valve assembly (1) further comprises a first valve part and a second valve part arranged movable relative to each other in such a manner that the mutual position of the valve parts determines the fluid flow from the inlet opening to each of the outlet openings of the outlet part. Finally, the valve assembly (1) comprises a header (2) forming an integral part of the valve assembly (1). The header (2) is arranged to form an interface towards a heat exchanger (3) comprising at least two flow paths, and it provides fluid connections in such a manner that each of the outlet openings (7, 9) is fluidly connected to a flow path of a heat exchanger (3) connected to the header (2).
    • 一种包括入口开口,分配器和包括至少两个出口开口的出口部分的阀组件(1)。 分配器包括流体地连接到入口开口的入口部分(5),并且布置成将从入口开口接收的流体介质分配到至少两个平行的流动路径,优选地为热交换器(3)。 阀门组件(1)还包括第一阀部件和第二阀部件,该第一阀部件和第二阀部件可以相对于彼此移动,使得阀部件的相互位置确定从入口开口到每个出口开口的流体流动 出口部分。 最后,阀组件(1)包括形成阀组件(1)的一体部分的集管(2)。 集管(2)被布置成形成朝向包括至少两个流动路径的热交换器(3)的界面,并且其提供流体连接,使得每个出口开口(7,9)流体地连接到 连接到集管(2)的热交换器(3)的流路。
    • 9. 发明申请
    • AN EXPANSION DEVICE UNIT FOR A VAPOUR COMPRESSION SYSTEM
    • 蒸汽压缩系统的膨胀装置单元
    • WO2011072685A1
    • 2011-06-23
    • PCT/DK2010/000177
    • 2010-12-16
    • DANFOSS A/STHYBO, ClausLARSEN, Lars Finn SlothMADER, Gunda
    • THYBO, ClausLARSEN, Lars Finn SlothMADER, Gunda
    • F25B41/06F25B39/02
    • F25B41/062F25B5/02F25B39/028F25B41/06F25B2341/0661F25B2500/18F25B2600/2511
    • An expansion device unit (4) for a vapour compression system (1), and a vapour compression system (1) are disclosed. The expansion device unit (4) comprises an inlet opening (17) arranged to receive fluid medium, at least two outlet openings (18) arranged to deliver fluid medium, a main expanding section (6) adapted to expand fluid medium received via the inlet opening (17) before delivering the fluid medium to the outlet openings (18), and a distribution section (7) arranged to split the fluid flow received via the inlet opening (17) into at least two fluid flows to be delivered via the outlet openings (18). The main expanding section (6) and/or the distribution section (7) is/are arranged to cause pressures in fluid delivered via at least two of the outlet openings (18) to be distinct. The main expanding section (6) is operated on the basis of one or more parameters measured in the fluid flow delivered by one of the outlet openings (18). The distinct pressure levels allow distinct evaporating temperature in evaporator paths (5a, 5b, 5c) connected to the outlet openings (18). Thereby a large temperature difference between inlet temperature and outlet temperature of a secondary fluid flow across the evaporator (5) can be obtained, without requiring that the entire mass flow must be compressed from a low pressure level by the compressor (2). Thereby energy is conserved.
    • 公开了一种用于蒸汽压缩系统(1)的膨胀装置单元(4)和蒸气压缩系统(1)。 膨胀装置单元(4)包括布置成接收流体介质的入口开口(17),布置成输送流体介质的至少两个出口开口(18),适于膨胀经由入口容纳的流体介质 在将流体介质输送到出口(18)之前的开口(17)和布置成将经由入口开口(17)接收的流体流分离成至少两个流体流的分配部分(7),以经由出口 开口(18)。 主膨胀部分(6)和/或分配部分(7)被布置成使得通过至少两个出口(18)输送的流体中的压力是不同的。 主膨胀部分(6)基于在由一个出口(18)输送的流体流中测量的一个或多个参数来操作。 不同的压力水平允许在连接到出口(18)的蒸发器路径(5a,5b,5c)中具有不同的蒸发温度。 因此,可以获得跨过蒸发器(5)的二次流体流的入口温度和出口温度之间的大的温度差,而不需要通过压缩机(2)将整个质量流量从低压水平压缩。 因此能量是保守的。
    • 10. 发明申请
    • A HEAT EXCHANGER WITH A SUCTION LINE HEAT EXCHANGER
    • 带吸入式热交换器的换热器
    • WO2011023192A2
    • 2011-03-03
    • PCT/DK2010/000101
    • 2010-06-30
    • DANFOSS A/STHYBO, ClausLARSEN, Lars Finn SlothMADER, Gunda
    • THYBO, ClausLARSEN, Lars Finn SlothMADER, Gunda
    • F28F9/0234F25B40/00F25B2400/054F28F2260/02
    • A heat exchanger, such as an evaporator (1) or a condenser (17), for a vapour compression system (15) and a vapour compression system (15) with such a heat exchanger are disclosed. The heat exchanger comprises at least two flow tubes arranged fluidly in parallel, an inlet manifold (3) and an outlet manifold (7). Each flow tube fluidly connects the inlet manifold (3) and the outlet manifold (7), and fluid medium is distributed among the flow tubes by the inlet manifold (3). The outlet manifold (7) is provided with a suction line heat exchanger, preferably being fluidly connected in a refrigerant path of the vapour compression system (15) between a condenser (17) and an expansion device (18), in the case that the heat exchanger is an evaporator (1). The suction line heat exchanger is arranged in the outlet manifold (7) in such a manner that direct thermal contact is provided between the refrigerant delivered from the flow tubes and the suction line heat exchanger, the refrigerant, e.g., being sprayed directly onto the suction line heat exchanger. Refrigerant leaving the evaporator (1) is heated, thereby causing evaporation of possible liquid refrigerant. Thereby liquid refrigerant can be allowed to pass through some of the evaporator tubes (2) without risking damage to the compressor (16). Utilisation of the potential refrigeration capacity of the evaporator (1) is improved. Arranging the suction line heat exchanger in the outlet manifold (7) provides a compact design and eliminates the requirement for additional components.
    • 公开了一种用于蒸汽压缩系统(15)的热交换器,诸如蒸发器(1)或冷凝器(17),以及具有这种热交换器的蒸汽压缩系统(15)。 该热交换器包括至少两个平行流体设置的流管,入口歧管(3)和出口歧管(7)。 每个流管将入口歧管(3)和出口歧管(7)流体连接,并且流体介质通过入口歧管(3)分配在流管中。 出口歧管(7)设置有吸入管线热交换器,优选在冷凝器(17)和膨胀装置(18)之间的蒸汽压缩系统(15)的制冷剂路径中流体连接, 换热器是蒸发器(1)。 吸入管线热交换器以这样的方式布置在出口歧管(7)中,使得从流管输送的制冷剂与吸入管线热交换器之间提供直接热接触,制冷剂例如直接喷射到吸入管线 在线换热器。 离开蒸发器(1)的制冷剂被加热,从而导致可能的液体制冷剂的蒸发。 因此液态制冷剂可以被允许穿过一些蒸发器管(2)而不会损坏压缩机(16)。 利用蒸发器(1)的潜在制冷能力得到改善。 在出口歧管(7)中安装吸入管路热交换器提供了紧凑的设计并且消除了对附加部件的需求。