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    • 1. 发明授权
    • Cryogenic refrigerating machine and control method therefor
    • 低温冷冻机及其控制方法
    • US6038866A
    • 2000-03-21
    • US68020
    • 1998-05-04
    • Masakazu OkamotoToshiyuki Kurihara
    • Masakazu OkamotoToshiyuki Kurihara
    • F25B9/14F25B9/00
    • F25B9/14F25B2309/006
    • In a gas pressure-driven type cryogenic refrigerating machine, an inner space of a cylinder 2 is divided into a lower pressure room 20, an upper pressure room 29 and expansion rooms 30, 31 by a slack piston 17 and a displacer 22 connected to the slack piston, a rotary valve 35 alternately changes between a high-pressure valve-open position for supplying high-pressure helium gas to the upper pressure room 29 and the expansion rooms 30, 31 and a low-pressure valve-open position for discharging the helium gas in the upper pressure room 29 and the expansion rooms 30, 31, and a difference in gas pressures between the upper and lower pressure rooms 29, 30 causes the slack piston 17 to be driven to reciprocate the displacer 22 thereby producing a cold condition at an extremely low temperature level. In the cryogenic refrigerating machine, a time ratio of the low-pressure valve-open position of the rotary valve 35 for discharging the helium gas in the expansion rooms 30, 31 is set at 55 to 65% so as to be larger than a time ratio of the high-pressure valve-open position for supplying the high-pressure helium gas to the expansion rooms 30, 31 in the cylinder 2. This provides an increased capacity of the refrigerating machine.
    • PCT No.PCT / JP97 / 03145 Sec。 371日期:1998年5月4日 102(e)日期1998年5月4日PCT 1997年9月5日PCT公布。 公开号WO98 / 11394 日期:1998年03月19日在气体压力驱动式低温制冷机中,气缸2的内部空间通过松弛活塞17和膨胀室30,31被分为低压室20,上压室29和膨胀室30,31 连接到松弛活塞的置换器22,旋转阀35在用于向上压力室29供应高压​​氦气的高压阀打开位置和膨胀室30,31之间交替地变化,以及低压阀 - 用于排出上压室29和膨胀室30,31中的氦气的打开位置以及上压力室29和下压力室30之间的气体压力差导致松弛活塞17被驱动以使置换器22往复运动 从而在极低温度下产生冷条件。 在低温冷冻机中,用于将膨胀室30,31中的氦气排出的旋转阀35的低压阀打开位置的时间比设定为55〜65%,以使其大于时间 用于将高压氦气供应到气缸2中的膨胀室30,31的高压阀打开位置的比率。这提供了制冷机的增加的容量。
    • 2. 发明申请
    • REFRIGERATION APPARATUS
    • 制冷装置
    • US20100242529A1
    • 2010-09-30
    • US12744249
    • 2008-11-26
    • Shuji FujimotoAtsushi YoshimiYoshio UenoRyusuke FujiyoshiToshiyuki Kurihara
    • Shuji FujimotoAtsushi YoshimiYoshio UenoRyusuke FujiyoshiToshiyuki Kurihara
    • F25B43/02F25B1/00
    • F25B9/008F25B1/10F25B13/00F25B31/004F25B2309/061F25B2400/072F25B2400/075F25B2400/13F25B2400/23
    • A refrigeration apparatus uses a refrigerant that operates in a supercritical range, and includes a compression mechanism, a heat source-side heat exchanger, an expansion mechanism, a usage-side heat exchanger, an intercooler and an intermediate oil separation mechanism. The compression mechanism has a plurality of compression elements, and is configured and arranged so that refrigerant discharged from a first-stage compression element is sequentially compressed by a second-stage compression element. The intercooler is configured and arranged to cool refrigerant flowing through an intermediate refrigerant tube that draws refrigerant discharged from the first-stage compression element into the second-stage compression element. The intermediate oil separation mechanism is configured and arranged to separate a refrigeration oil from the refrigerant discharged from the first-stage compression element. The intermediate oil separation mechanism is arranged at a section of the intermediate refrigerant tube between the first-stage compression element and an inlet of the intercooler.
    • 制冷装置使用在超临界范围内工作的制冷剂,包括压缩机构,热源侧热交换器,膨胀机构,利用侧热交换器,中间冷却器和中间油分离机构。 压缩机构具有多个压缩元件,并且被构造和布置成使得从后级压缩元件排出的制冷剂被后级压缩元件依次压缩。 中间冷却器被构造和布置成冷却流过中间制冷剂管的制冷剂,所述中间制冷剂管将从后级压缩元件排出的制冷剂吸入后级压缩元件。 中间油分离机构被构造和布置成将冷冻机油从与前级压缩元件排出的制冷剂分离。 中间油分离机构设置在中间制冷剂管的中间冷却器的入口之间的中间制冷剂管的一段。
    • 4. 发明申请
    • AIR CONDITIONING SYSTEM
    • 空调系统
    • US20090288437A1
    • 2009-11-26
    • US12373264
    • 2007-07-20
    • Hiromune MatsuokaToshiyuki Kurihara
    • Hiromune MatsuokaToshiyuki Kurihara
    • F25B27/00
    • F24F5/0017F24F3/06F24F5/0096F24F2221/54F25B9/008F25B13/00F25B25/005F25B2309/061F25B2313/0252F25B2313/0254F25B2313/02741Y02E60/147
    • An air conditioning system includes a compressor, a first heat source-side heat exchanger for heating or cooling a refrigerant, a second heat source-side heat exchanger for exchanging heat between the refrigerant and a heat delivery medium, a first utilization-side heat exchanger for performing indoor cooling by using the refrigerant cooled in the first heat source-side heat exchanger, a second utilization-side heat exchanger for performing indoor heating by using the heat delivery medium subjected to heat exchange in the second heat source-side heat exchanger, and a connection mechanism. The connection mechanism can switch between a first connection state in which refrigerant is circulated sequentially through the compressor, the first heat source-side heat exchanger, the first utilization-side heat exchanger and the compressor; and a second connection state in which the refrigerant is circulated sequentially through the compressor, the second heat source-side heat exchanger, the first heat source-side heat exchanger, and the compressor.
    • 空调系统包括压缩机,用于加热或冷却制冷剂的第一热源侧热交换器,用于在制冷剂和传热介质之间进行热交换的第二热源侧热交换器,第一利用侧热交换器 用于通过使用在第一热源侧热交换器中冷却的制冷剂进行室内冷却的第二利用侧热交换器,其通过使用在第二热源侧热交换器中进行热交换的传热介质进行室内加热, 和连接机构。 连接机构可以在制冷剂依次通过压缩机,第一热源侧热交换器,第一利用侧热交换器和压缩机的循环的第一连接状态之间切换; 以及第二连接状态,其中制冷剂依次通过压缩机,第二热源侧热交换器,第一热源侧热交换器和压缩机。
    • 5. 发明申请
    • REFRIGERANT CHARGING METHOD IN REFRIGERATION SYSTEM USING CARBON DIOXIDE AS REFRIGERANT
    • 使用二氧化碳作为制冷剂的制冷系统中的制冷剂充电方法
    • US20090133413A1
    • 2009-05-28
    • US12375578
    • 2007-08-08
    • Hiromune MatsuokaToshiyuki Kurihara
    • Hiromune MatsuokaToshiyuki Kurihara
    • F25B45/00
    • F25B45/00F25B9/008F25B2309/061F25B2345/001
    • A refrigerant charging method in an air conditioner using carbon dioxide as a refrigerant includes a first refrigerant charging step and a second refrigerant charging step. The first refrigerant charging step is a step of charging a refrigerant charging target portion including refrigerant communication pipes with refrigerant in a gas state until the pressure of the refrigerant charging target portion rises to a predetermined pressure after the start of charging. The second refrigerant charging step is a step of charging the refrigerant charging target portion with refrigerant in a liquid state until the amount of refrigerant charging the refrigerant charging target portion becomes a predetermined amount. The second refrigerant charging ster occuring after the first refrigerant charging step.
    • 使用二氧化碳作为制冷剂的空调机中的制冷剂填充方法包括:第一制冷剂填充步骤和第二制冷剂填充步骤。 第一制冷剂填充步骤是将包含制冷剂连通管的制冷剂填充对象部分与处于气体状态的制冷剂充填到制冷剂填充目标部分的压力在充电开始之后上升到预定压力的步骤。 第二制冷剂填充步骤是使制冷剂填充对象部分处于液态制冷剂的状态,直到制冷剂填充对象部分的制冷剂量成为规定量为止。 在第一制冷剂填充步骤之后产生第二制冷剂充注功能。
    • 6. 发明授权
    • Laminate producing process
    • 层压板生产工艺
    • US5846368A
    • 1998-12-08
    • US716708
    • 1996-09-10
    • Yoshio SakaguchiToshiyuki KuriharaAkira KaburagiHideho KuboMituaki Sunada
    • Yoshio SakaguchiToshiyuki KuriharaAkira KaburagiHideho KuboMituaki Sunada
    • B29C43/20B29C43/32B29C44/56B29C70/08B29L31/30B32B5/02B32B17/04B32B37/00B32B37/22B60R13/02B62D25/06B29C65/70
    • B60R13/0225B29C44/569B29C70/086B32B5/02B29L2031/3011B32B2307/718B32B2605/003Y10T156/1005
    • A composite core is selected which is formed of a reinforcing fiber and a thermoplastic synthetic resin by a compression molding, and including a first region in which the grammage M.sub.1 is set in a range of 400 g/m.sub.2 .ltoreq.M.sub.1 .ltoreq.700 g/m.sup.2 to provide a reduction in weight, and a second region in which the grammage M.sub.2 is adjusted in a range of 900 g/m.sup.2 .ltoreq.M.sub.1 .ltoreq.1,200 g/m.sup.2 to provide an enhanced rigidity. At a first step, the composite core is heated, whereby it is expanded, and the thermoplastic synthetic resin is expanded. At a second step, a skin material is superposed onto the composite core. At a third step, the composite core is compressed, and the skin material is bonded to the composite core. In the laminate produced in the above manner, the first region contributes to a reduction in weight, and the second region contributes to an increase in rigidity. Further, because of a larger amount of second region expanded, the reinforcing fibers are stuck into the skin material. This contributes to an increase in bond strength. Thus, it is possible to produce a laminate which has a high bond strength of a surface skin material layer and a rigidity and moreover, is light in weight.
    • 选择由增强纤维和热塑性合成树脂通过压缩成型形成的复合芯,并且包括其中克重M1设定在400g / m 2的范围内的第一区域M1 = 700 g / m 2,以提供重量的减少;以及第二区域,其中克重M2在900g / m 2的范围内被调整为= 1200g / m2,以提供增强的刚度。 在第一步骤中,复合芯被加热,从而使其膨胀,并且热塑性合成树脂膨胀。 在第二步骤中,将皮肤材料叠加在复合芯上。 在第三步骤中,复合芯被压缩,并且表皮材料结合到复合芯。 在以上述方式制造的层压体中,第一区域有助于减轻重量,并且第二区域有助于刚性的增加。 此外,由于第二区域的扩大量增加,所以将增强纤维粘贴到皮肤材料中。 这有助于粘结强度的增加。 因此,可以制造具有高表面材料层的粘结强度和刚性的层压体,而且重量轻。
    • 9. 发明授权
    • Refrigerant charging method in refrigeration system using carbon dioxide as refrigerant
    • 使用二氧化碳作为制冷剂的制冷系统中的制冷剂充气方法
    • US07690209B2
    • 2010-04-06
    • US12375578
    • 2007-08-08
    • Hiromune MatsuokaToshiyuki Kurihara
    • Hiromune MatsuokaToshiyuki Kurihara
    • F25B45/00
    • F25B45/00F25B9/008F25B2309/061F25B2345/001
    • A refrigerant charging method in an air conditioner using carbon dioxide as a refrigerant includes a first refrigerant charging step and a second refrigerant charging step. The first refrigerant charging step is a step of charging a refrigerant charging target portion including refrigerant communication pipes with refrigerant in a gas state until the pressure of the refrigerant charging target portion rises to a predetermined pressure after the start of charging. The second refrigerant charging step is a step of charging the refrigerant charging target portion with refrigerant in a liquid state until the amount of refrigerant charging the refrigerant charging target portion becomes a predetermined amount. The second refrigerant charging step occurring after the first refrigerant charging step.
    • 使用二氧化碳作为制冷剂的空调机中的制冷剂填充方法包括:第一制冷剂填充步骤和第二制冷剂填充步骤。 第一制冷剂填充步骤是将包含制冷剂连通管的制冷剂填充对象部分与处于气体状态的制冷剂充填到制冷剂填充目标部分的压力在充电开始之后上升到预定压力的步骤。 第二制冷剂填充步骤是使制冷剂填充对象部分处于液态制冷剂的状态,直到制冷剂填充对象部分的制冷剂量成为规定量为止。 在第一制冷剂填充步骤之后发生的第二制冷剂填充步骤。