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    • 2. 发明授权
    • Refrigerant cycle system and condenser
    • 制冷循环系统和冷凝器
    • US06698236B2
    • 2004-03-02
    • US10388306
    • 2003-03-13
    • Kurato YamasakiShigeki ItoTeruyuki HottaAtsushi InabaYasushi Yamanaka
    • Kurato YamasakiShigeki ItoTeruyuki HottaAtsushi InabaYasushi Yamanaka
    • F25B3904
    • F25B39/04B60H1/3227F25B40/02F25B2339/0441F25B2339/0444
    • A first heat exchange unit is for condensing a refrigerant discharged from a compressor. A second heat exchange unit is provided downstream from the first heat exchange unit. A gas-liquid separator, into which part of the refrigerant from the compressor and part of the refrigerant from the first exchange unit flow, is for separating the refrigerants into a gas and a liquid refrigerant to accumulate the liquid refrigerant. The gas refrigerant in the separator is lead to the second heat exchange unit. A primary refrigerant flow path, included in the first heat exchange unit, is for leading the refrigerant to the second heat exchange unit. A branch refrigerant flow path, included in the first heat exchange unit and independently partitioned from the primary refrigerant flow path, is for leading the refrigerant to the separator.
    • 第一热交换单元用于冷凝从压缩机排出的制冷剂。 第二热交换单元设置在第一热交换单元的下游。 来自压缩机的制冷剂的一部分和来自第一交换单元的制冷剂的一部分流入的气液分离器用于将制冷剂分离成气体和液体制冷剂以积液液体制冷剂。 分离器中的气体制冷剂通向第二热交换单元。 包括在第一热交换单元中的一次制冷剂流路用于将制冷剂引导到第二热交换单元。 包括在第一热交换单元中并与主制冷剂流路独立分隔的分支制冷剂流路用于将制冷剂引导到分离器。
    • 4. 再颁专利
    • Vapor-compression-type refrigerating machine
    • 蒸气压缩式制冷机
    • USRE42908E1
    • 2011-11-15
    • US11284394
    • 2005-11-21
    • Shigeki ItoTeruyuki HottaYasushi Yamanaka
    • Shigeki ItoTeruyuki HottaYasushi Yamanaka
    • F25B41/04F25B41/00
    • F25B41/062F25B40/00F25B2341/0683F25B2500/18F25B2600/21F28D7/106
    • The internal heat exchanger 7 is provided which exchanges heat between the refrigerant of low pressure and the refrigerant of high pressure, and the pre-load adjusting mechanism of the expansion valve 5 is abolished. Due to the above structure, the refrigerant flowing into the expansion valve 5 is cooled in the internal heat exchanger 7, and enthalpy of the refrigerant flowing into the evaporator 6 is reduced. On the contrary, the refrigerant sucked into the compressor 1 is heated. Accordingly, a difference in enthalpy between the refrigerant at the inlet and the refrigerant at the outlet of the evaporator 6 can be made large, and the heat absorbing capacity of the evaporator 6 can be enhanced, and further it becomes possible to give the degree of superheat to the refrigerant sucked into the compressor 1. Therefore, even if the pre-load adjusting mechanism is abolished, the vapor-compression-type refrigerating machine can be stably operated.
    • 提供内部热交换器7,其在低压制冷剂和高压制冷剂之间交换热量,并且废气膨胀阀5的预负荷调节机构被消除。 由于上述结构,流入膨胀阀5的制冷剂在内部热交换器7中被冷却,并且流入蒸发器6的制冷剂的焓降低。 相反,吸入压缩机1的制冷剂被加热。 因此,可以使入口处的制冷剂与蒸发器6的出口处的制冷剂之间的焓差大,能够提高蒸发器6的吸热能力,进一步提高 对被吸入压缩机1的制冷剂进行过热。因此,即使废油调节机构被消除,也能够稳定地进行蒸气压缩式制冷机的运转。
    • 7. 发明授权
    • Vapor-compression-type refrigerating machine
    • 蒸气压缩式制冷机
    • US06935128B2
    • 2005-08-30
    • US10794710
    • 2004-03-05
    • Shigeki ItoTeruyuki HottaYasushi Yamanaka
    • Shigeki ItoTeruyuki HottaYasushi Yamanaka
    • F25B1/00F25B40/00F25B41/06F25B41/04F25B41/00
    • F25B41/062F25B40/00F25B2341/0683F25B2500/18F25B2600/21F28D7/106
    • The internal heat exchanger 7 is provided which exchanges heat between the refrigerant of low pressure and the refrigerant of high pressure, and the pre-load adjusting mechanism of the expansion valve 5 is abolished. Due to the above structure, the refrigerant flowing into the expansion valve 5 is cooled in the internal heat exchanger 7, and enthalpy of the refrigerant flowing into the evaporator 6 is reduced. On the contrary, the refrigerant sucked into the compressor 1 is heated. Accordingly, a difference in enthalpy between the refrigerant at the inlet and the refrigerant at the outlet of the evaporator 6 can be made large, and the heat absorbing capacity of the evaporator 6 can be enhanced, and further it becomes possible to give the degree of superheat to the refrigerant sucked into the compressor 1. Therefore, even if the pre-load adjusting mechanism is abolished, the vapor-compression-type refrigerating machine can be stably operated.
    • 提供内部热交换器7,其在低压制冷剂和高压制冷剂之间交换热量,并且消除膨胀阀5的预负荷调节机构。 由于上述结构,流入膨胀阀5的制冷剂在内部热交换器7中被冷却,并且流入蒸发器6的制冷剂的焓降低。 相反,吸入压缩机1的制冷剂被加热。 因此,可以使入口处的制冷剂与蒸发器6的出口处的制冷剂之间的焓差大,能够提高蒸发器6的吸热能力,进一步提高 吸入压缩机1的制冷剂过热。 因此,即使取消了预负荷调整机构,也能够稳定地进行蒸气压缩式制冷机。
    • 9. 发明申请
    • Temperature-type expansion valve
    • 温度型膨胀阀
    • US20070022769A1
    • 2007-02-01
    • US11492560
    • 2006-07-25
    • Shin HondaShigeki ItoKurato Yamasaki
    • Shin HondaShigeki ItoKurato Yamasaki
    • F25B41/04
    • F25B41/062F25B2341/0683Y10T137/7782
    • A temperature-type expansion valve 1 includes a valve housing 110 having a first passage 121 into which a high pressure refrigerant flows, a second passage 122 through which a low pressure refrigerant flowing to an evaporator 5 flows, and a throttle passage 125 communicating the first passage 121 with the second passage 122; a valve body 130 having a valve member 131 varying a sectional area of the throttle passage 125; and an operation rod 135 for driving the valve body 130 in the interlocking arrangement with a displacement member 160 undergoing displacement in accordance with a pressure difference between a saturation pressure corresponding to an outlet temperature of the refrigerant of the evaporator 5 and an evaporation pressure of the evaporator; wherein a slide hole 124 communicating with the throttle passage 125 and accommodating the valve body 130 is formed in the valve housing 110; and the valve member 131 moves inside the slide hole 124 in the interlocking arrangement with the operation rod 135 to thereby adjust the sectional area of the throttle passage 125. Construction can be simplified and the number of components can be decreased.
    • 温度型膨胀阀1包括:阀壳体110,其具有流过高压制冷剂的第一通道121;流过蒸发器5的低压制冷剂流过的第二通道122;以及连通第一通道 通道121与第二通道122; 具有改变节流通道125的截面面积的阀构件131的阀体130; 以及用于在互锁装置中驱动阀体130的操作杆135,其中移动构件160根据与蒸发器5的制冷剂的出口温度相对应的饱和压力与蒸发器5的蒸发压力之间的压力差而发生位移, 蒸发器 其中在阀壳110中形成有与节流通道125连通并容纳阀体130的滑动孔124; 并且阀构件131在与操作杆135的联动装置中的滑动孔124内移动,从而调节节流通道125的截面面积。 可简化结构,减少部件数量。
    • 10. 发明授权
    • Temperature-type expansion valve
    • 温度型膨胀阀
    • US07624930B2
    • 2009-12-01
    • US11492560
    • 2006-07-25
    • Shin HondaShigeki ItoKurato Yamasaki
    • Shin HondaShigeki ItoKurato Yamasaki
    • F25D17/06
    • F25B41/062F25B2341/0683Y10T137/7782
    • A temperature-type expansion valve 1 includes a valve housing 110 having a first passage 121 into which a high pressure refrigerant flows, a second passage 122 through which a low pressure refrigerant flowing to an evaporator 5 flows, and a throttle passage 125 communicating the first passage 121 with the second passage 122; a valve body 130 having a valve member 131 varying a sectional area of the throttle passage 125; and an operation rod 135 for driving the valve body 130 in the interlocking arrangement with a displacement member 160 undergoing displacement in accordance with a pressure difference between a saturation pressure corresponding to an outlet temperature of the refrigerant of the evaporator 5 and an evaporation pressure of the evaporator; wherein a slide hole 124 communicating with the throttle passage 125 and accommodating the valve body 130 is formed in the valve housing 110; and the valve member 131 moves inside the slide hole 124 in the interlocking arrangement with the operation rod 135 to thereby adjust the sectional area of the throttle passage 125. Construction can be simplified and the number of components can be decreased.
    • 温度型膨胀阀1包括:阀壳体110,其具有流过高压制冷剂的第一通道121;流过蒸发器5的低压制冷剂流过的第二通道122;以及连通第一通道 通道121与第二通道122; 具有改变节流通道125的截面面积的阀构件131的阀体130; 以及用于在互锁装置中驱动阀体130的操作杆135,其中移动构件160根据与蒸发器5的制冷剂的出口温度相对应的饱和压力与蒸发器5的蒸发压力之间的压力差而发生位移, 蒸发器 其中在阀壳110中形成有与节流通道125连通并容纳阀体130的滑动孔124; 并且阀构件131在与操作杆135的联锁装置中的滑动孔124内移动,从而调节节流通道125的截面面积。可以简化构造并且可以减少部件的数量。