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    • 2. 发明专利
    • Refrigeration system and vacuum deposition device
    • 制冷系统和真空沉积装置
    • JP2005195258A
    • 2005-07-21
    • JP2004002344
    • 2004-01-07
    • Shin Meiwa Ind Co Ltd新明和工業株式会社
    • TAKAHASHI MASAYUKITOMOSAWA AKIRA
    • F25B7/00
    • PROBLEM TO BE SOLVED: To provide an ultra-deep refrigerator R using a mixed refrigerant obtained by mixing two or more kinds of refrigerants different in boiling point, securing a flow rate of a liquid refrigerant to a super cooling device 31 and increasing the cooling efficiency of a cryocoil 32.
      SOLUTION: In a main refrigerant circuit 38 provided with the cryocoil 32 and a capillary tube 29 and a sub-refrigerant circuit 39, the upstream end of which is diverged and connected to the upstream end of the main refrigerant circuit 38 and provided with a capillary tube 28, the height of the sub-refrigerant circuit 39 is set lower than the height of the main refrigerant circuit 39. The flow rate of the refrigerant put in the gas-liquid mixed state discharged from the primary side 31a of the super cooling device 31 to flow into the sub-refrigerant circuit 39 is made larger than the flow rate to the main refrigerant circuit 39, whereby the flow rate of the liquid refrigerant to the sub-refrigerant circuit 39 is increased more than that to the main refrigerant circuit 38.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:为了提供一种使用通过混合两种或更多种不同沸点的制冷剂获得的混合制冷剂的超深冷藏库R,将液体制冷剂的流量确保到超级冷却装置31并增加 冷冻机32的冷却效率。解决方案:在设置有冷冻机32的主制冷剂回路38和毛细管29以及副制冷剂回路39中,其上游端分散并连接到上游端 在主制冷剂回路38中设置有毛细管28,副制冷剂回路39的高度被设定为低于主制冷剂回路39的高度。制成气液混合状态的制冷剂的流量 从超级冷却装置31的一次侧31a排出的流入副制冷剂回路39的流量比通过主制冷剂回路39的流量大, 制冷剂回路39比主制冷剂回路38增加得更多。(C)2005年,JPO&NCIPI
    • 3. 发明专利
    • Refrigerating system
    • 制冷系统
    • JP2003322433A
    • 2003-11-14
    • JP2002128393
    • 2002-04-30
    • Shin Meiwa Ind Co Ltd新明和工業株式会社
    • TAKAHASHI MASAYUKITOMOSAWA AKIRAONISHI YASUHIRO
    • F25B1/00F25B6/04F25B41/00
    • PROBLEM TO BE SOLVED: To restrain a refrigerating capacity difference between both coolers by easily equalizing a mass flow rate of a liquid refrigerant flowing to both branch parts when supplying the liquid refrigerant having a boiling point of the lowest temperature to the coolers by branching off into a plurality in a cryogenic refrigerator having a refrigerant circuit using a non-azeotropic mixing refrigerant.
      SOLUTION: An inlet pipe 36 communicates with the inlet side of a branch pipe 37, and is inclined so as to turn in the vertical lower direction toward the refrigerant flowing directional downstream side. Among the refrigerant flowing in the branch pipe 37 in a gas-liquid mixing state, the liquid refrigerant is made to flow in a state of gathering to the passage lower side by the inlet pipe 36 to equalize the mass flow rate of the liquid refrigerant after branching.
      COPYRIGHT: (C)2004,JPO
    • 要解决的问题:为了通过容易地平衡流向两个分支部分的液体制冷剂在向冷却器供应具有最低温度的沸点的液体制冷剂时的质量流量,从而抑制两个冷却器之间的制冷能力差异。 在具有使用非共沸混合制冷剂的制冷剂回路的低温冰箱中分支成多个。

      解决方案:入口管36与分支管37的入口侧连通,并且倾斜成朝着垂直向下方向转向朝向制冷剂流向下游侧的制冷剂。 在气液混合状态下在分支管37中流动的制冷剂中,液体制冷剂通过入口管36在向下方通过的状态下流动,使得液体制冷剂的质量流量平衡后, 分枝。 版权所有(C)2004,JPO

    • 4. 发明专利
    • Extremely low temperature refrigerating device
    • 极低温制冷装置
    • JP2005207637A
    • 2005-08-04
    • JP2004012692
    • 2004-01-21
    • Shin Meiwa Ind Co Ltd新明和工業株式会社
    • TAKAHASHI MASAYUKITOMOSAWA AKIRA
    • F25B7/00F25B9/00F25B43/02F25B47/02
    • PROBLEM TO BE SOLVED: To provide an extremely low temperature refrigerating device with a defrost circuit, preventing the supply of lubricating oil to a cooler by reliably removing the lubricating oil without impairing the cooling efficiency thereof.
      SOLUTION: In the extremely low temperature refrigerating device, a first oil separator 15 is connected to a discharge portion of a compressor 20 and the first oil separator 15 is connected to an inlet side of a cryo-coil 52 via the defrost circuit 60. To the defrost circuit 60, a second oil separator 16 is connected for separating from gas refrigerant the lubricating oil which is not completely removed by the first oil separator 15.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:为了提供具有除霜回路的极低温制冷装置,通过可靠地除去润滑油而不损害其冷却效率,防止向冷却器供给润滑油。 解决方案:在极低温制冷装置中,第一油分离器15连接到压缩机20的排出部分,第一油分离器15通过除霜回路连接到冷冻线圈52的入口侧 在除霜回路60中,连接有第二油分离器16,用于与气体制冷剂分离未被第一油分离器15完全除去的润滑油。(C)2005,JPO&NCIPI
    • 10. 发明专利
    • SHUTTER MECHANISM AND VACUUM VAPOR DEPOSITION APPARATUS HAVING THE SAME
    • JPH0238562A
    • 1990-02-07
    • JP18749788
    • 1988-07-27
    • SHIN MEIWA IND CO LTD
    • TOMOSAWA AKIRA
    • C23C14/24C23C14/22
    • PURPOSE:To improve the feed precision of evaporation material by forming an arm of a shutter for shutting off the trajectory of an evaporation material in a vacuum vapor deposition apparatus by the use of a spring material, displacing the shutter arm by means of an electromagnet, etc., and displacing the shutter arm to the position to shut off the trajectory of the evaporation material by means of the amount of vapor deposition onto a substrate by means of spring force. CONSTITUTION:At the time of vapor-depositing Ag vapor from an evaporation source 3 onto the surface of rock crystal 6 as a work to be treated in a vacuum chamber 2 of a vacuum vapor deposition apparatus, a shutter arm 15 made of magnetic spring material fitted with a shutter blade 16 shutting off the trajectory P of the Ag vapor at one end is fixed to a base 11 at the opposite end. Before vapor deposition is initiated, the spring force of the arm 15 is controlled by means of a bolt 18 of a stopper 14 so that the shutter blade 16 comes to the position to shut off the trajectory P of the Ag vapor. When vapor deposition is initiated, an electromagnet 13 is energized to attract the shutter arm 15 and the Ag vapor trajectory P shut off by means of the shutter blade 16 is opened. When required amounts of Ag are vapor-deposited on the rock crystal 6 and the frequency of vibration reaches the prescribed number, the above is detected and the electric current for the electromagnet 13 is turned off to return the shutter arm 15 by means of its spring force to the position where the Ag vapor trajectory P is shut off by the blade 16, by which Ag can be vapor-deposited on the rock crystal 6 with high precision.