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    • 61. 发明授权
    • Heat sink for power module
    • 电源模块散热片
    • US08387685B2
    • 2013-03-05
    • US11919368
    • 2006-04-19
    • Masahiko KimbaraKeiji TohHidehito KuboKatsufumi TanakaKota OtoshiEiji KonoNobuhiro WakabayashiShintaro NakagawaYuichi FurukawaShinobu Yamauchi
    • Masahiko KimbaraKeiji TohHidehito KuboKatsufumi TanakaKota OtoshiEiji KonoNobuhiro WakabayashiShintaro NakagawaYuichi FurukawaShinobu Yamauchi
    • F28F7/00F28F3/12
    • H01L23/473F28F3/086F28F3/12H01L23/3731H01L23/3736H01L2224/48091H01L2224/48137H01L2924/00014
    • A heat sink for a power module able to realize a further improvement of heat radiating performance and a further improvement of a mounting property is provided.The heat sink 1 for a power module has a laminating body 20, a first side plate 30 and a second side plate 40. The laminating body 20 has plural flow path plates 21 formed in a plate shape in which plural grooves 23 parallel to each other are concavely arranged on a flat joining face 22. Each groove 23 is set to a parallel flow path 50 parallel to a front face side by laminating each flow path plate 21 by each joining face 22. A portion other than each groove 23 of each joining face 22 forms a heat transfer path 70a to each parallel flow path 50 of a laminating direction. A flow-in path 30a and a flow-out path 40a are formed in the first and second side plates 30, 40. The flow-in path 30a and the flow-out path 40a are joined to side faces 26a, 26b of the laminating body 20, and are communicated with each parallel flow path 50. The flow-in path 30a flows a cooling medium into each parallel flow path 50. The flow-out path 40a flows the cooling medium out of each parallel flow path 50. A refrigerant flow path is constructed by the flow-in path 30a, each parallel flow path 50 and the flow-out path 40a.
    • 提供了能够实现进一步提高散热性能的功率模块的散热器,并且进一步提高了安装特性。 用于功率模块的散热器1具有层叠体20,第一侧板30和第二侧板40.层叠体20具有多个形成为板状的流路板21,多个相互平行的槽23 凹陷地布置在平坦的接合面22上。每个槽23通过每个接合面22层压每个流路板21而设置成平行于前表面的平行流动路径50.每个连接的每个槽23之外的部分 面22对层叠方向的各平行流路50形成传热路径70a。 在第一和第二侧板30,40中形成有流入路径30a和流出路径40a。流入路径30a和流出路径40a与层叠的侧面26a,26b接合 主体20并与每个平行流动路径50连通。流入路径30a将冷却介质流入每个平行流动路径50.流出路径40a将冷却介质从每个平行流动路径50流出。制冷剂 流路由流入路径30a,每个平行流路50和流出路径40a构成。
    • 63. 发明授权
    • Cooling system for forming mold and method of cooling forming mold
    • 成型模具冷却系统和冷却成型模具的方法
    • US08074702B2
    • 2011-12-13
    • US12374601
    • 2007-05-30
    • Yuichi Furukawa
    • Yuichi Furukawa
    • B22D27/04C21B7/10B22D41/005
    • B29C33/046B22C9/065B22D17/2218B29C35/007B29C35/16B29C45/73B29C2035/1691
    • In a forming mold equipped with a cooling channel for circulation of a refrigerant composed of a cooling gas and a atomized cooling liquid, any increase of back pressure attributed to evaporation of the refrigerant fed to the cooling channel is inhibited to thereby attain cooling acceleration, and further any occurrence of rust or scale by the refrigerant circulated through the cooling channel is prevented. Accordingly, a channel for supply of the refrigerant to the cooling channel of the forming mold is provided with air pressure source for trapping of air in the supply channel and pressure feeding of the same; oxygen separation means for separation removal of oxygen from the pressure fed air to thereby lower the oxygen concentration of the air; and atomizing means for spraying of the cooling liquid into the air with oxygen concentration lowered. The oxygen separated from the air by the oxygen separation means is returned to the refrigerant forcedly emitted from the cooling channel by means of forced exhaust means.
    • 在配备有用于循环由冷却气体和雾化冷却液构成的制冷剂的冷却通道的成型模具中,抑制了供给到冷却通道的制冷剂的蒸发引起的背压的任何增加,从而获得冷却加速, 防止通过冷却通道循环的制冷剂进一步发生锈蚀或锈蚀。 因此,用于向成形模具的冷却通道供应制冷剂的通道设置有用于在供给通道中捕获空气的空气压力源和其供给压力; 氧分离装置,用于从加压空气中分离除去氧气,从而降低空气的氧气浓度; 以及用于将冷却液喷射到空气中的氧化浓度降低的雾化装置。 通过氧气分离装置从空气中分离的氧气通过强制排气装置返回到从冷却通道强制排放的制冷剂。
    • 64. 发明申请
    • HEAT SINK FOR POWER MODULE
    • 电源模块散热器
    • US20090314474A1
    • 2009-12-24
    • US11919368
    • 2006-04-19
    • Masahiko KimbaraKeiji TohHidehito KuboKatsufumi TanakaKota OtoshiEiji KonoNobuhiro WakabayashiShintaro NakagawaYuichi FurukawaShinobu Yamauchi
    • Masahiko KimbaraKeiji TohHidehito KuboKatsufumi TanakaKota OtoshiEiji KonoNobuhiro WakabayashiShintaro NakagawaYuichi FurukawaShinobu Yamauchi
    • H05K7/20F28D15/00F28F3/12
    • H01L23/473F28F3/086F28F3/12H01L23/3731H01L23/3736H01L2224/48091H01L2224/48137H01L2924/00014
    • A heat sink for a power module able to realize a further improvement of heat radiating performance and a further improvement of a mounting property is provided.The heat sink 1 for a power module has a laminating body 20, a first side plate 30 and a second side plate 40. The laminating body 20 has plural flow path plates 21 formed in a plate shape in which plural grooves 23 parallel to each other are concavely arranged on a flat joining face 22. Each groove 23 is set to a parallel flow path 50 parallel to a front face side by laminating each flow path plate 21 by each joining face 22. A portion other than each groove 23 of each joining face 22 forms a heat transfer path 70a to each parallel flow path 50 of a laminating direction. A flow-in path 30a and a flow-out path 40a are formed in the first and second side plates 30, 40. The flow-in path 30a and the flow-out path 40a are joined to side faces 26a, 26b of the laminating body 20, and are communicated with each parallel flow path 50. The flow-in path 30a flows a cooling medium into each parallel flow path 50. The flow-out path 40a flows the cooling medium out of each parallel flow path 50. A refrigerant flow path is constructed by the flow-in path 30a, each parallel flow path 50 and the flow-out path 40a.
    • 提供了能够实现进一步提高散热性能的功率模块的散热器,并且进一步提高了安装特性。 用于功率模块的散热器1具有层叠体20,第一侧板30和第二侧板40.层叠体20具有多个形成为板状的流路板21,多个相互平行的槽23 凹陷地布置在平坦的接合面22上。每个槽23通过每个接合面22层压每个流路板21而设置成平行于前表面的平行流动路径50.每个连接的每个槽23之外的部分 面22对层叠方向的各平行流路50形成传热路径70a。 在第一和第二侧板30,40中形成有流入路径30a和流出路径40a。流入路径30a和流出路径40a与层叠的侧面26a,26b接合 主体20并与每个平行流动路径50连通。流入路径30a将冷却介质流入每个平行流动路径50.流出路径40a将冷却介质从每个平行流动路径50流出。制冷剂 流路由流入路径30a,每个平行流路50和流出路径40a构成。