会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 1. 发明专利
    • Heat pump device and method of defrosting operation
    • 热泵装置及其运行方法
    • JP2011094813A
    • 2011-05-12
    • JP2009246083
    • 2009-10-27
    • Mitsubishi Electric Corp三菱電機株式会社
    • MINAMISAKO HIROKAZUUCHINO SHINICHI
    • F25B47/02
    • PROBLEM TO BE SOLVED: To provide a defrosting mechanism capable of totally improving COP (coefficient of performance) including defrosting, in a heat pump device including a multi-path heat exchanger. SOLUTION: Path temperature sensors 7 respectively detect temperatures of heat exchange pipes 4a-4d as refrigerant paths in a non-contact state. A control device 150 calculates an estimated frost formation amount estimated to attach to the heat exchanger 110-1 by each of the temperatures of the heat exchange pipes 4a-4d detected by the path temperature sensors 7. The control device 150 starts the defrosting operation when any of the estimated frost formation amounts is over a prescribed threshold value, and stops the defrosting operation when all of detected refrigerant temperatures by the path temperature sensors 7 are over a prescribed temperature in executing the defrosting operation. COPYRIGHT: (C)2011,JPO&INPIT
    • 解决的问题:提供一种能够在包括多路热交换器的热泵装置中提供能够完全改善包括除霜在内的COP(性能系数)的除霜机构。 路径温度传感器7分别检测作为非接触状态的制冷剂路径的热交换管4a-4d的温度。 控制装置150通过由路径温度传感器7检测出的热交换管4a-4d的每一个温度来计算估计为附着到热交换器110-1的结霜量。控制装置150开始除霜操作,当 估计的霜冻成分量中的任何一个都超过规定的阈值,并且当执行除霜操作时,通过路径温度传感器7的检测出的制冷剂温度全部超过规定温度时,停止除霜运转。 版权所有(C)2011,JPO&INPIT
    • 2. 发明专利
    • Plate heat exchanger and heat pump device
    • 板式换热器和热泵装置
    • JP2012167847A
    • 2012-09-06
    • JP2011028106
    • 2011-02-14
    • Mitsubishi Electric Corp三菱電機株式会社
    • UCHINO SHINICHIHAYASHI TAKEHIROITO DAISUKE
    • F28F3/08F28D9/02
    • F28D9/005F24D3/18F25B30/02F28F3/046
    • PROBLEM TO BE SOLVED: To improve a yield ratio of members to be used for a plate heat exchanger and a yield ratio of the plate heat exchanger itself, and to improve a strength of the plate heat exchanger.SOLUTION: Each heat transfer plate 101 in the plate heat exchanger has a rectangular shape with a long side and a short side, in which two flow channel holes that are openings through which any of the first fluid and the second fluid passes are formed on one side of the short sides and another side of the short sides, respectively. The each heat transfer plate 101 includes a structure 102 which protrudes from a portion of a periphery of any flow channel hole of four flow channel holes, and bends and extends in a direction to be distanced from an opening. The structure 102 is attached firmly to a vicinity of a periphery of a corresponding flow channel hole in a lamination direction of the heat transfer plate that is adjacent on the other side.
    • 要解决的问题:为了提高板式热交换器使用的部件的屈服比和板式热交换器本身的屈服比,并且提高板式热交换器的强度。 解决方案:板式换热器中的每个传热板101具有长边和短边的矩形形状,其中作为第一流体和第二流体中任何一个通过的开口的两个流动通道孔是 分别形成在短边的一侧和短边的另一侧。 每个传热板101包括从四个流动通道孔的任何流动通道孔的周边的一部分突出的结构102,并且在与开口隔开的方向上弯曲并延伸。 结构102牢固地附着在相对的流路孔的周边附近,在与另一侧相邻的传热板的层叠方向上。 版权所有(C)2012,JPO&INPIT
    • 3. 发明专利
    • Heat exchanger
    • 热交换器
    • JP2014006003A
    • 2014-01-16
    • JP2012142286
    • 2012-06-25
    • Mitsubishi Electric Corp三菱電機株式会社
    • IKEDA SOJIYOSHIMURA SUSUMUMORIMOTO HIROYUKIHATOMURA SUGURUUCHINO SHINICHI
    • F28D7/10
    • PROBLEM TO BE SOLVED: To obtain a heat exchange which is not enlarged, a heat exchanger in which a device performance is not reduced, and a heat exchange in which a pressure resistant strength is not reduced.SOLUTION: The heat exchanger comprises at least a heat conduction member in which at least one first fluid flow passage in which a first fluid flows, at least one second fluid flow passage row where a plurality of second fluid flow passages in which a second fluid exchanging heat with the first fluid flows are provided in a row shape, and at least one third fluid flow passage in which the second fluid flows are formed at least. The second fluid flow passage and the third fluid flow passage are provided in such a manner that the closer to the first fluid flow passage the fluid flow passage becomes, the smaller a sectional area becomes, that the closer to the first fluid flow passage the fluid flow passage becomes, the wider an interval with the closest fluid flow passage belonging to the same row of fluid flow passages provided in the row shape becomes, or that the closer to the first fluid flow passage the fluid flow passage becomes, the smaller the sectional area becomes and the wider the interval with the closest fluid flow passage belonging to the same row of fluid flow passages provided in the row shape becomes.
    • 要解决的问题:为了获得不扩大装置性能的热交换器和耐压强度不降低的热交换器而获得没有扩大的热交换器。热交换器包括至少一个 导热构件,其中第一流体流过的至少一个第一流体流动通道,至少一个第二流体流动通道列,其中与第一流体的第二流体交换热流过的多个第二流体流动通道设置在 至少形成有第二流体流动的至少一个第三流体流动通道。 第二流体流动通道和第三流体流动通道设置成使得流体流动通道变得越接近第一流体流动通道,截面面积越小,越接近第一流体流动通道,流体 流动通道变得越靠近设置在行形状的同一排流体流动通道中的最接近的流体流动通道的间隔越宽,流体流动通道越接近第一流体流动通道越小, 区域变得越来越宽,与排列形状相同的流体流路的最接近的流体流动通道的间隔越宽。
    • 4. 发明专利
    • Plate type heat exchanger, method of manufacturing the same, and heat pump device
    • 板式热交换器,其制造方法和热泵装置
    • JP2013221629A
    • 2013-10-28
    • JP2012091375
    • 2012-04-12
    • Mitsubishi Electric Corp三菱電機株式会社
    • UCHINO SHINICHI
    • F28F3/04F25B1/00F25B30/02F25B43/02F28D9/02F28F9/16
    • F28D9/005F25B39/00F25B43/02F25B2500/18F28F3/046F28F2265/18
    • PROBLEM TO BE SOLVED: To guide a lubricating oil flowing in a plate type heat exchanger to an oil recovering port while lessening an accumulated amount as much as possible.SOLUTION: A plate type heat exchanger includes a plate assembly 120 which is a laminate of plates including a plurality of laminated heat transfer plates 100, an inlet and outlet of a refrigerant 7 arranged in the plate assembly 120, an inlet and outlet of water 10 arranged in the plate assembly 120, and an oil recovering port 103e arranged at a position lower than the outlet of the refrigerant 7 arranged in a lower part of the plate assembly 120, and taking out a lubricating oil 8 contained in the refrigerant 7. An oil recovering hole 200 in communication with the oil recovering port 103e is arranged in the lower part in the plate assembly 120, and straightening throttle parts 201 are formed respectively in the heat transfer plates 100 so that the lubricating oil 8 is straightened toward the oil recovering hole 200.
    • 要解决的问题:将在板式热交换器中流动的润滑油引导到油回收口,同时尽可能减少累积量。解决方案:板式热交换器包括板组件120,其为板 包括多个层压传热板100,布置在板组件120中的制冷剂7的入口和出口,布置在板组件120中的水10的入口和出口以及布置在下部位置的油位回收口103e 比布置在板组件120的下部的制冷剂7的出口,并且取出包含在制冷剂7中的润滑油8.与油回收口103e连通的回油孔200配置在下部 在板组件120中,并且在传热板100中分别形成矫直节流部201,使得润滑油8朝向油回收孔200矫直。
    • 5. 发明专利
    • Heat pump cycle device
    • 热泵循环装置
    • JP2013167395A
    • 2013-08-29
    • JP2012030520
    • 2012-02-15
    • Mitsubishi Electric Corp三菱電機株式会社
    • SUZUKI YASUMASASUZUKI KAZUTAKAMIFUJI TAKAFUMIMINAMISAKO HIROKAZUUCHINO SHINICHIAOYAGI KEIRO
    • F24H1/00F24H9/20F25B30/02F25B49/02
    • PROBLEM TO BE SOLVED: To obtain a heat pump cycle device capable of further surely discharging a refrigerant leaked to a water circuit outdoors.SOLUTION: A heat pump cycle device comprises: a compressor 3 for compressing a refrigerant; an air-heat exchanger 1 for heat-exchanging air and the refrigerant; a water-heat exchanger 2 for heat-exchanging the refrigerant and water; a heat pump heat source machine 100 constituting a refrigerant circuit 110 by piping-connecting narrowing devices 6, 7 for adjusting the pressure of the refrigerant flowing in the water-heat exchanger 2; and a control device 201 having a hot water dispenser 200 having a pump 53 for making heat-exchanged water flow by the water-heat exchanger 2, constituting the water-heat exchanger 2 and a water circuit 210 for supplying heat-exchanged water, and having air vent valve 59 for discharging air in the water circuit 210, and an external contact terminal 202 for inputting signals indicating the permission of operations of the heat pump heat source machine 100 and the hot water dispenser 200.
    • 要解决的问题:获得能够进一步确定地将泄漏到室外的水回路的制冷剂排出的热泵循环装置。解决方案:一种热泵循环装置,包括:用于压缩制冷剂的压缩机3; 用于使空气和制冷剂进行热交换的空气热交换器1; 用于使制冷剂和水热交换的水热交换器2; 构成制冷剂回路110的热泵热源机100,通过配管连接用于调节在水热交换器2中流动的制冷剂的压力的变窄装置6,7, 以及具有热水分配器200的控制装置201,其具有构成水热交换器2的水热交换器2进行换热水流动的泵53和供给热交换水的水回路210的热水分配器200, 具有用于排出水回路210中的空气的排气阀59和用于输入表示热泵热源机100和热水分配器200的操作允许的信号的外部接触端子202。
    • 7. 发明专利
    • Heat pump device
    • 热泵装置
    • JP2010060150A
    • 2010-03-18
    • JP2008223531
    • 2008-09-01
    • Mitsubishi Electric Corp三菱電機株式会社
    • HAMADA MAMORUUNEZAKI FUMITAKETAKAHASHI YOSHIHIROTAKAHASHI KENGOOKADA KAZUKIUCHINO SHINICHI
    • F25B47/02
    • F25B49/005F25B30/02F25B2500/19F25B2600/024F25B2700/151F25B2700/2116F25D21/006
    • PROBLEM TO BE SOLVED: To provide a heat pump device wherein a defrost operation can be started at an optimal timing for maximizing the efficiency (when COP is maximized). SOLUTION: This heat pump device 100 includes a refrigerant circuit wherein a compressor 1, a condenser 2, an expansion means 3 and an evaporator 4 are connected sequentially, a condensation temperature detection means 11 for detecting the saturation temperature of the condenser 2, and an evaporation temperature detection means 12 for detecting the saturation temperature of the evaporator 4, and the operation efficiency is estimated based on a value obtained by dividing a heating capacity estimated from a detection value of the condensation temperature detection means 11 by the difference between a detection value of the condensation temperature detection means 11 and a detection value of the evaporation temperature detection means 12 or a power consumption estimated from the difference. COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:提供一种热泵装置,其中可以在最大化效率(当COP最大化时)的最佳定时开始除霜操作。 解决方案:该热泵装置100包括其中压缩机1,冷凝器2,膨胀装置3和蒸发器4依次连接的制冷剂回路,冷凝温度检测装置11,用于检测冷凝器2的饱和温度 以及用于检测蒸发器4的饱和温度的蒸发温度检测装置12,并且基于通过将从冷凝温度检测装置11的检测值估计出的加热容量除以由冷凝温度检测装置11的检测值估计的加热容量而获得的值来估计运行效率 冷凝温度检测装置11的检测值和蒸发温度检测装置12的检测值或从该差异估计的功率消耗。 版权所有(C)2010,JPO&INPIT
    • 8. 发明专利
    • Heat pump apparatus
    • 热泵装置
    • JP2014081180A
    • 2014-05-08
    • JP2012230876
    • 2012-10-18
    • Mitsubishi Electric Corp三菱電機株式会社
    • UCHINO SHINICHI
    • F25B1/00F24F11/02F25B5/04F25B47/02
    • F25B30/02F24D3/18F25B5/04F25B13/00F25B49/005F25B2339/047F25B2400/0409F25B2500/28
    • PROBLEM TO BE SOLVED: To provide means for preventing suction of a liquid refrigerant into a compressor.SOLUTION: A heat pump apparatus 100 is configured by successively connecting a compressor 1, a heat exchanger 2, an expansion valve 3, a heat exchanger 4, and a heat exchanger 5 and connecting a bypass passage 9 for bypassing the heat changer 5 between the heat exchanger 4 and the compressor 1 and includes a refrigerant circuit 6 for circulating a refrigerant. Further the heat pump apparatus 100 is configured by successively connecting the heat exchanger 5, the heat exchanger 2 and a tank 12 and includes a water circuit 13 for circulating water. The heat pump apparatus 100, when the liquid refrigerant may be sucked into the compressor 1 due to control of a three-way valve 10, allows the refrigerant to flow through the heat exchanger 5, heats the refrigerant with water through the heat exchanger 5 and evaporates the refrigerant.
    • 要解决的问题:提供防止液体制冷剂进入压缩机的装置。解决方案:热泵装置100通过连续地连接压缩机1,热交换器2,膨胀阀3,热交换器4, 和热交换器5,连接用于旁通换热器5和压缩机1之间的热交换器5的旁路通路9,并且包括用于循环制冷剂的制冷剂回路6。 此外,热泵装置100通过连续地连接热交换器5,热交换器2和水箱12而构成,并且包括用于循环水的水回路13。 热泵装置100通过三通阀10的控制将液体制冷剂吸入压缩机1时,能够使制冷剂流过热交换器5,通过热交换器5将制冷剂与水一起加热, 蒸发制冷剂。
    • 10. 发明专利
    • Water heat exchange device
    • 水热交换装置
    • JP2010144948A
    • 2010-07-01
    • JP2008319754
    • 2008-12-16
    • Mitsubishi Electric Corp三菱電機株式会社
    • UCHINO SHINICHITAKAHASHI KENGOOYA AKIRAOKADA KAZUKIUSHIJIMA TAKAHIROMINAMISAKO HIROKAZU
    • F25B27/02
    • Y02A30/274Y02P80/152
    • PROBLEM TO BE SOLVED: To reduce a load of an outdoor unit, and to improve the performance of the outdoor unit by recovering heat generated from a power module.
      SOLUTION: This water heat exchange device includes: a refrigerant circuit 10 which has a compressor 11 built in the outdoor unit driven by the power module 8, a plate-type heat exchanger 13 for performing heat exchange between water and a refrigerant, electronic control valves 14a, 14b for decompressing the refrigerant, an air-refrigerant heat exchanger 5 for performing heat exchange between air and the refrigerant, and a four-way valve 12 for switching a flow of the refrigerant discharged from the compressor to a heating side and a cooling side, and in which the refrigerant is made to circulate; and a heating/cooling water circuit 16 in which circulation water undergoing heat exchange by the plate-type heat exchanger and used for indoor heating and cooling is made to circulate. The water heat exchange device further includes a cooling water circuit 20 which is branched from the heating/cooling water circuit and in which circulation water for cooling the power module is made to flow. A exhaust heat recovery heat exchanger 19 for performing heat exchange between the circulation water and the power module and cooling the power module is provided in the cooling water circuit.
      COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:通过回收从功率模块产生的热量来降低室外机的负载并提高室外机的性能。 解决方案:该水热交换装置包括:制冷剂回路10,其具有内置在由动力模块8驱动的室外机中的压缩机11,用于进行水与制冷剂之间的热交换的板式热交换器13, 用于使制冷剂减压的电子控制阀14a,14b,用于进行空气与制冷剂之间的热交换的空气 - 制冷剂热交换器5以及用于将从压缩机排出的制冷剂的流动切换到加热侧的四通阀12 冷却侧,制冷剂循环; 以及加热/冷却水回路16,其中通过板式热交换器进行热交换并用于室内加热和冷却的循环水进行循环。 水热交换装置还包括冷却水回路20,该冷却水回路20从加热/冷却水回路分支,并且用于冷却功率模块的循环水流动。 在冷却水回路中设置有用于在循环水和功率模块之间进行热交换并且冷却功率模块的排热回收热交换器19。 版权所有(C)2010,JPO&INPIT