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    • 2. 发明专利
    • Ejector type refrigerating cycle
    • 喷油器类型制冷循环
    • JP2009300028A
    • 2009-12-24
    • JP2008156266
    • 2008-06-16
    • Denso CorpNippon Soken Inc株式会社デンソー株式会社日本自動車部品総合研究所
    • OZAKI YUKIKATSUYOSHII KEIICHI
    • F25B5/04F25B1/00
    • F25B2341/0012
    • PROBLEM TO BE SOLVED: To provide an ejector type refrigerating cycle, restraining frost formation of a suction side evaporator connected to a refrigerant suction opening of an ejector. SOLUTION: When an outflow side refrigerant temperature Toe, which is a refrigerant evaporation temperature at an outflow side evaporator 16 which evaporates a refrigerant flowing out from the ejector 15 is lower than a first reference temperature KTH, a throttle passage area of a nozzle part 15a of the ejector 15 is reduced, and also a throttle passage area of an electric expansion valve 17 disposed on the upstream side of a suction side evaporator 18 connected to a refrigerant suction opening 15b of the ejector 15 is enlarged. Thus, a temperature difference between the refrigerant evaporation temperature of the outflow side evaporator 16 and the refrigerant evaporation temperature of the suction side evaporator 18 is reduced to restrain frost formation of the suction side evaporator 18. COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:提供喷射器式制冷循环,抑制与喷射器的制冷剂吸入口连接的吸入侧蒸发器的结霜。 解决方案:当作为从喷射器15流出的制冷剂蒸发的流出侧蒸发器16的制冷剂蒸发温度的流出侧制冷剂温度Toe低于第​​一基准温度KTH时的节气门通路面积 喷射器15的喷嘴部15a减小,并且设置在与喷射器15的制冷剂吸入口15b连接的吸入侧蒸发器18的上游侧的电动膨胀阀17的节气门通路面积增大。 因此,降低了流出侧蒸发器16的制冷剂蒸发温度与吸入侧蒸发器18的制冷剂蒸发温度之间的温差,以抑制吸入侧蒸发器18的结霜。(C)2010, JPO和INPIT
    • 5. 发明专利
    • Fuel cell system
    • 燃油电池系统
    • JP2005251416A
    • 2005-09-15
    • JP2004056259
    • 2004-03-01
    • Denso CorpNippon Soken Inc株式会社デンソー株式会社日本自動車部品総合研究所
    • YOSHII KEIICHIKIKUCHI TETSUO
    • H01M8/02H01M8/04H01M8/10
    • Y02E60/521
    • PROBLEM TO BE SOLVED: To miniaturize a radiator, in a fuel cell system structured so as to heighten relative humidity on the inlet side of an oxidizing gas, and to lower relative humidity on the outlet side of the oxidizing gas by making larger a temperature difference between the inlet part of cooling water and the outlet part of cooling water in a fuel cell.
      SOLUTION: A cooling system 2 to cool the fuel cell 1 is structured so as to supply plural kinds of cooling water of different temperatures to the fuel cell 1. The inlet side of the oxidizing gas in the cell is cooled by cooling water of relatively low temperatures, and the outlet side of the oxidizing gas in the cell is cooled by cooling water of relatively high temperatures.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:为了使散热器小型化,在构成为提高氧化剂气体的入口侧的相对湿度的燃料电池系统中,通过使氧化气体的出口侧的相对湿度降低, 冷却水的入口部分和燃料电池中的冷却水的出口部分之间的温度差。 解决方案:用于冷却燃料电池1的冷却系统2被构造成向燃料电池1供应不同温度的多种冷却水。电池中的氧化气体的入口侧被冷却水 并且电池中的氧化气体的出口侧被相对高温的冷却水冷却。 版权所有(C)2005,JPO&NCIPI
    • 6. 发明专利
    • Ejector and ejector type refrigerating cycle
    • 喷油器和喷油器类型制冷循环
    • JP2009300027A
    • 2009-12-24
    • JP2008156265
    • 2008-06-16
    • Denso CorpNippon Soken Inc株式会社デンソー株式会社日本自動車部品総合研究所
    • OZAKI YUKIKATSUYOSHII KEIICHI
    • F25B1/00B05B7/04F25B41/00
    • F25B2341/0012
    • PROBLEM TO BE SOLVED: To provide an ejector type refrigerating cycle, improving nozzle efficiency ηnoz of an ejector in simple constitution to enough improve COP (coefficient of performance). SOLUTION: A gas phase refrigerant injecting means includes a compressor discharging branch part 12 for causing branching of a flow of a compressor 11 discharged refrigerant and injection pipes 143a, 143b which guide a very small flow of branching gas phase refrigerant to the downstream side of a nozzle inflow port 141b of the ejector 14 and the upstream side of a throat part 141c. A refrigerant in the non-equilibrium state where a liquid phase refrigerant and a gas phase refrigerant are mixed is decompressed and expanded at a nozzle part 141. Thus, the nozzle efficiency ηnoz of the ejector 14 can be improved in simple constitution to enough improve COP. COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:提供喷射器式制冷循环,以简单的结构提高喷射器的喷嘴效率ηnoz,足以提高COP(性能系数)。 解决方案:气相制冷剂注入装置包括:压缩机排放分支部分12,用于使压缩机11排出的制冷剂的流动和喷射管143a,143b的分流,其将非常小的分支气相制冷剂流引导到下游 喷射器14的喷嘴流入口141b的侧面和喉部141c的上游侧。 混合了液相制冷剂和气相制冷剂的非平衡状态的制冷剂在喷嘴部141被减压膨胀。因此,喷射器14的喷嘴效率ηnoz可以简单的构成提高,足以提高COP 。 版权所有(C)2010,JPO&INPIT
    • 7. 发明专利
    • FUEL MIXING DEVICE AND EVAPORATOR THEREWITH
    • JP2003106502A
    • 2003-04-09
    • JP2001299378
    • 2001-09-28
    • TOYOTA MOTOR CORP
    • YOSHII KEIICHI
    • F23D11/40F23C99/00F23D11/38H01M8/06F23C11/00
    • PROBLEM TO BE SOLVED: To reduce pressure losses and make almost uniform the distributions of the concentration and flow velocity of fuel mixed with air and finally released. SOLUTION: In an evaporated fuel injecting part 103, evaporated fuel 126 is separated into two streams, which reach evaporated fuel supply passages 103a and 103c. The cross-sectional area of a flow passage for air 120 is at its minimum at a mixing part 104. Nozzles 103b and 103d are provided in opposite positions on the interior wall of the mixing part 104. By causing the air 120 to flow at high speed in the mixing part 104, a negative pressure is created, causing the evaporated fuel 126 to be sucked from the nozzles 103b and 103d and injected into the mixing part 104 to cause the two streams to collide against each other. Since the air 120 flows into a portion where the two streams collide, the evaporated fuel 126 is entrained in and mixed with the air 120. The fuel 128 mixed with the air is released through a releasing part 106. The releasing part 106 is shaped to extend radially about the mixing part 104.