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    • 1. 发明专利
    • 廃熱回生システム
    • 废热再生系统
    • JP2014231738A
    • 2014-12-11
    • JP2011209088
    • 2011-09-26
    • 株式会社豊田自動織機Toyota Industries Corp
    • ODA KAZUTAKAIGUCHI MASAOMORI HIDEFUMIENOSHIMA FUMINOBUISHIGURO FUMIHIKOKAMITSUJI KIYOSHITAKEI HIROYUKI
    • F02G5/00F01D17/00F01D17/08F01K23/06F01K23/10F01N5/02F02B29/04
    • F02B29/0443F01K23/065F01K23/10F01K25/10F01N5/02F02M26/28Y02T10/146Y02T10/166
    • 【課題】膨張機が故障した場合であっても、インタークーラを介してエンジンの吸入空気を冷却することができるランキンサイクル装置を有する廃熱回生システムを提供する。【解決手段】作動流体をポンプ122によって圧送し、インタークーラ124によってエンジン150の廃熱で加熱し、膨張機126で膨張させて機械的エネルギーを回収し、コンデンサ128によって凝縮させるランキンサイクル装置を有する廃熱回生システム100において、インタークーラ124の下流側かつ膨張機126の上流側に設けられた第1分岐点131aと、膨張機126の下流側かつコンデンサ128の上流側に設けられた第2分岐点131bとを接続するバイパス流路131と、バイパス流路131上に設けられ、膨張機126が故障した際にバイパス流路131を連通させる開閉弁132とを備える。【選択図】図1
    • 要解决的问题:提供一种废热再生系统,其包括能够通过中间冷却器冷却发动机的进气的Rankine循环装置,即使在膨胀机破裂时也是如此。解决方案:在Rankine循环装置中,工作流体被泵送 泵122由中间冷却器124使用发动机150的余热加热,由膨胀机126膨胀以收集机械能,并由冷凝器128冷凝。具有绞线循环装置的废热再生系统100包括: 将设置在中间冷却器124的下游侧的位置和膨胀机126的上游侧连接的第一分支点131a与设置在膨胀机126的下游侧的位置的第二分支点131b相连接的旁通流路131 和冷凝器128的上游侧; 以及开闭阀132,其设置在旁通流路131上,并且当膨胀机126断裂时允许旁通流路131连通。
    • 2. 发明专利
    • Waste heat regeneration system
    • 废热再生系统
    • JP2014190216A
    • 2014-10-06
    • JP2013065720
    • 2013-03-27
    • Toyota Industries Corp株式会社豊田自動織機
    • TAMARU KOJIROIGUCHI MASAOMORI HIDEFUMIENOSHIMA FUMINOBUISHIGURO FUMIHIKOTAKEI HIROYUKI
    • F02G5/00F01K23/06
    • Y02T10/166
    • PROBLEM TO BE SOLVED: To make it possible to detect leakage of refrigerant at an early stage if a water-heat exchanger on a Rankine cycle circuit fails and the refrigerant leaks to a cooling water circuit, and to remove the refrigerant from the cooling water circuit.SOLUTION: A waste heat regeneration system 100 includes: a Rankine cycle circuit 10 that includes a cooling water boiler 3 and in which refrigerant circulates; a first water circuit 31 connected to the cooling water boiler 3, and for causing water circulating inside to exchange heat with the refrigerant in the cooling water boiler 3; and operating fluid removing means 13 that includes a chlorofluorocarbon detector 13a for detecting presence of the refrigerant in the first water circuit 31 and a relief valve 13b for discharging the refrigerant to an outside of the first water circuit 31.
    • 要解决的问题:如果兰金循环回路上的水热交换器发生故障并且制冷剂泄漏到冷却水回路,则可以早期检测制冷剂的泄漏,并且从冷却水回路中除去制冷剂 解决方案:余热回收系统100包括:兰肯循环回路10,其包括冷却水锅炉3,其中制冷剂循环; 连接到冷却水锅炉3的第一水回路31,用于使水循环到内部以与冷却水锅炉3中的制冷剂进行热交换; 以及包括用于检测第一水回路31中的制冷剂的存在的氯氟烃检测器13a和用于将制冷剂排出到第一水回路31的外部的安全阀13b的工作流体除去装置13。
    • 3. 发明专利
    • Fluid machine
    • 流体机
    • JP2014126046A
    • 2014-07-07
    • JP2012286213
    • 2012-12-27
    • Toyota Industries Corp株式会社豊田自動織機
    • TAMARU KOJIROIGUCHI MASAOMORI HIDEFUMIENOSHIMA FUMINOBUTAKEI HIROYUKI
    • F04C15/06F01C1/02F01C13/04F01K25/10F04C15/00
    • PROBLEM TO BE SOLVED: To provide a technique that prevents the degradation and breakage of a sealing member and prevents the lowering of pump efficiency, even when used under an environment where the pressure in a low pressure region fluctuates.SOLUTION: In a fluid machine 10 disclosed in the present invention, a pump working chamber 30 and a through-hole 37 are formed along a drive shaft 22 in a housing 12. The through-hole is provided with a sealing member 38. The sealing member seals between an outer circumferential surface of the drive shaft and an inner circumferential surface of the through-hole, and sections an internal region 36 of the through-hole and the outside of the housing. In the housing, a communication path 35 for bringing the internal region into communication with a suction area 31 of a gear pump 20 is formed furthermore. The communication path includes an opening adjustment valve 60 to open and close the communication path. The opening adjustment valve opens the communication path when a difference between a pressure of the internal region and a reference pressure is higher than a predetermined value. The reference pressure is set in a pressure that is not fluctuated by the pressure in the communication path of the suction area side using the opening adjustment valve.
    • 要解决的问题:提供一种即使在低压区域的压力波动的环境下使用也可以防止密封部件的劣化和破损的技术,并且防止泵效率的降低。解决方案:在流体机械10 在本发明中公开的,泵壳工作室30和通孔37沿着壳体12中的驱动轴22形成。通孔设置有密封构件38.密封构件密封在外周面 的驱动轴和通孔的内周面,并且将通孔的内部区域36和壳体的外部分隔开。 在壳体中还形成有用于使内部区域与齿轮泵20的吸入区域31连通的连通路径35。 连通路径包括打开和关闭通信路径的开启调节阀60。 当内部区域的压力和基准压力之间的差异高于预定值时,打开调节阀打开连通路径。 参考压力被设定在不会由于使用打开调节阀的吸入区域侧的连通路径中的压力而波动的压力。
    • 4. 发明专利
    • Complex fluid machine
    • 复合流体机
    • JP2013164063A
    • 2013-08-22
    • JP2012270416
    • 2012-12-11
    • Toyota Industries Corp株式会社豊田自動織機
    • ENOSHIMA FUMINOBUIGUCHI MASAOMORI HIDEFUMIODA KAZUTAKATAKEI HIROYUKITAMARU KOJIRO
    • F01C13/04F01C1/02F04C15/00
    • Y02T10/144Y02T10/146Y02T10/16Y02T10/17
    • PROBLEM TO BE SOLVED: To provide a complex fluid machine that can suppress the occurrence of cavitation on the intake side of a pump portion while suppressing condensation of working fluid in a back pressure chamber.SOLUTION: A complex fluid machine 11 is configured to include following components in a housing 12: a scroll-type expander portion 40 configured in such a manner that an eccentric mechanism part of a movable scroll 44 is arranged in a back pressure chamber 51; and a gear pump 30. The complex fluid machine 11 is configured such that a discharge chamber S2 for a pump portion, which surrounds a drive shaft 21 and into which a liquid refrigerant from the gear pump 30 is discharged, is provided closer to the gear pump 30 than to the back pressure chamber 51 along the axial direction. The complex fluid machine 11 is also configured such that a discharge chamber S1 for the expander portion, which surrounds the drive shaft 21 and into which refrigerant gas from the expander portion 40 is discharged, axially faces the discharge chamber S2 for the pump portion and is provided closer to the back pressure chamber 51 than to the discharge chamber S2 for the pump portion.
    • 要解决的问题:提供一种复杂的流体机械,其能够抑制在泵部的吸入侧的气蚀的发生,同时抑制背压室中的工作流体的冷凝。解决方案:复杂流体机械11构造成包括以下 壳体12中的部件:涡旋式膨胀机部40,其以将动涡旋盘44的偏心机构部配置在背压室51内的方式构成; 复合流体机械11被配置为使得围绕驱动轴21并且来自齿轮泵30的液体制冷剂被排出的用于泵部的排出室S2被设置成更靠近齿轮 泵30相对于背压室51沿轴向方向。 复合流体机械11还被构造成使得围绕驱动轴21并且来自膨胀器部分40的制冷剂气体排放到其中的用于扩张器部分的排出室S1轴向面向泵部分的排放室S2,并且是 靠近背压室51比泵部分的排放室S2更靠近。
    • 5. 发明专利
    • Power recovery device
    • 电源恢复装置
    • JP2013119831A
    • 2013-06-17
    • JP2011269076
    • 2011-12-08
    • Toyota Industries Corp株式会社豊田自動織機
    • ENOSHIMA FUMINOBUIGUCHI MASAOMORI HIDEFUMITAKEI HIROYUKITAMARU KOJIRO
    • F02G5/04F01D15/08F01D17/00F01K23/10F02G5/02
    • Y02T10/166
    • PROBLEM TO BE SOLVED: To provide a power recovery device for surely preventing excessive rotation of an expander with a simple constitution, and achieving efficiently regenerating power taken out by the expander.SOLUTION: An expander 13 of a Rankine cycle device 10 and an engine 20 are connected via a pulley 23, a pulley 24 and a belt 25, and a one-way clutch 22 for allowing only the transmission of power to the engine 20 side from the expander 13 side, is arranged between the expander 13 and the pulley 23. An upstream side and a downstream side of the expander 13 are connected by a working fluid bypass passage 16 provided with a first on-off valve 17. When a rotating speed sensor 26 of the engine 20 exceeds a predetermined rotating speed, an ECU 27 outputs a valve opening command to the first on-off valve 17, to thereby reduce a flow rate of a refrigerant of passing through the expander 13.
    • 要解决的问题:提供一种能够以简单的结构可靠地防止膨胀机的过度旋转的动力回收装置,并且可以有效地实现由膨胀机取出的再生动力。 解决方案:兰金循环装置10和发动机20的膨胀机13经由皮带轮23,滑轮24和皮带25以及单向离合器22连接,用于仅允许向发动机的动力传递 20侧设置在膨胀机13和滑轮23之间。膨胀机13的上游侧和下游侧通过设置有第一开闭阀17的工作流体旁路通路16连接。当 发动机20的转速传感器26超过规定的转速,ECU27向第一开闭阀17输出开阀指令,从而降低通过膨胀机13的制冷剂的流量。

      版权所有(C)2013,JPO&INPIT

    • 7. 发明专利
    • Waste heat utilization device
    • 废热加热装置
    • JP2013068138A
    • 2013-04-18
    • JP2011206670
    • 2011-09-21
    • Toyota Industries Corp株式会社豊田自動織機
    • MORI HIDEFUMIIGUCHI MASAOENOSHIMA FUMINOBUTAKEI HIROYUKIODA KAZUTAKAKAMITSUJI KIYOSHIISHIGURO FUMIHIKO
    • F02G5/04B60K6/08F01N5/02F02M25/07
    • Y02E20/14Y02T10/121Y02T10/16Y02T10/166
    • PROBLEM TO BE SOLVED: To provide a high-performance waste heat utilization device.SOLUTION: The waste heat utilization device includes a motor 33 and a rankine cycle 3 for use in a driving system 1. The driving system 1 includes an engine 5 and a turbocharger 7 supplying compressed air for the engine 5. The rankine cycle 3 includes a first pump P1, a second pump P2, a boiler 21, an expander 23, and a condenser 25, and a hydraulic fluid circulates between them. The first pump P1 and the second pump P2 are arranged in parallel across the motor 33. The first and second pumps P1, P2 and the motor 33 are connected, respectively, via driving shafts 35, 37, driven shafts 39, 41, and torque limiters 43, 45. The torque limiters 43, 45 disconnect the transmission of power from the motor 33 to either the first pump P1 or the second pump P2, when torque between either the first pump P1 or the second pump P2 and the motor 33 exceeds a threshold.
    • 要解决的问题:提供一种高性能废热利用装置。 废热利用装置包括用于驱动系统1中的马达33和Rankine循环3.驱动系统1包括发动机5和为发动机5供应压缩空气的涡轮增压器7.排量循环 3包括第一泵P1,第二泵P2,锅炉21,膨胀器23和冷凝器25,以及液压流体在它们之间循环。 第一泵P1和第二泵P2平行地布置在马达33上。第一和第二泵P1,P2和马达33分别经由驱动轴35,37,从动轴39,41和扭矩 当第一泵P1或第二泵P2与电动机33之间的转矩超过第一泵P1或第二泵P2时,转矩限制器43,44断开电动机33向第一泵P1或第二泵P2的传递。 一个门槛。 版权所有(C)2013,JPO&INPIT
    • 8. 发明专利
    • Gear pump
    • 齿轮泵
    • JP2014051906A
    • 2014-03-20
    • JP2012195878
    • 2012-09-06
    • Toyota Industries Corp株式会社豊田自動織機
    • ENOSHIMA FUMINOBUIGUCHI MASAOMORI HIDEFUMITAKEI HIROYUKITAMARU KOJIRO
    • F04C2/18F04C15/00
    • PROBLEM TO BE SOLVED: To provide a gear pump capable of preventing a gear from being caught in a housing.SOLUTION: A gear pump 1 has a pair of gears 2 engaged with each other, and a housing 3 rotatably accommodating the pair of gears 2. The housing 3 includes a pump chamber 4 accommodating the pair of gears 2, a suction port 5 for sucking a fluid into the pump chamber 4, and a discharge port 6 for discharging the fluid from the pump chamber 4. Guide portions 31 for guiding teeth 21 to an inner peripheral face 41 of the pump chamber 4, are respectively formed between the inner peripheral face 41 of the pump chamber 4 opposed to tips of the teeth 21 disposed on outer peripheral portions of the gears 2 and an inner side face 51 of the suction port 5. An angle between a tangential line of the guide portion 31 and a tangential line of the inner peripheral face 41 on a boundary point of the guide portion 31 and the inner peripheral face 41 of the pump chamber 4 is 20° or less.
    • 要解决的问题:提供能够防止齿轮卡在壳体中的齿轮泵。解决方案:齿轮泵1具有彼此接合的一对齿轮2和可旋转地容纳该对齿轮2的壳体3 壳体3包括容纳一对齿轮2的泵室4,用于将流体吸入泵室4的吸入口5和用于从泵室4排出流体的排出口6.引导部31 泵室4的内周面41的齿21分别形成在与设置在齿轮2的外周部的齿21的前端相对的泵室4的内周面41与内侧面51之间 引导部31的切线与引导部31的边界点与泵室4的内周面41的内周面41的切线之间的角度为20° 或更少。