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    • 111. 发明申请
    • Relief Valve
    • 泄压阀
    • US20070295923A1
    • 2007-12-27
    • US11791475
    • 2005-11-10
    • Takafumi AkutagawaHiroaki KuboiKenji Suzuki
    • Takafumi AkutagawaHiroaki KuboiKenji Suzuki
    • F16K47/02
    • F16K17/0433
    • A relief valve includes a high-pressure port (14) communicating to a hydraulic circuit (41), a low-pressure port (15) communicating to a drain circuit (42), a valve (11) supported so as to be movable in back and forward in the axial direction thereof to open and close between these ports (14, 15), a piston (12) supported so as to be movable in the coaxial direction in relation to the valve (11), a spring (13) interveningly provided between the valve (11) and the piston (12) for biasing the valve (11) to a valve closing direction against the pressure of the high-pressure port (14), a damping chamber (20) defined at back side of the piston (12), pressure guiding paths (26, 27) for guiding the pressure in the upstream side of the valve (11) to the damping chamber (20), and a plurality of orifices (30a to 30d) exchangeably arranged in series in the pressure guiding paths (26, 27).
    • 泄压阀包括与液压回路(41)连通的高压端口(14),与排水回路(42)连通的低压端口(15),被支撑为可移动的阀 在所述端口(14,15)之间开启和关闭所述端口(14,15);活塞(12),其被支撑成能够相对于所述阀(11)在同轴方向上移动;弹簧(13), 插在所述阀(11)和所述活塞(12)之间,用于抵抗所述高压端口(14)的压力将所述阀(11)偏压到关闭方向;阻尼室(20) 活塞(12),用于将阀(11)的上游侧的压力引导到阻尼室(20)的压力引导路径(26,27),以及多个孔(30a〜30d) 在压力引导路径(26,27)中串联连接。
    • 112. 发明申请
    • SEQUIN FEEDER APPARATUS
    • US20070193488A1
    • 2007-08-23
    • US11569474
    • 2005-05-26
    • Ikuo TajimaSatoru SuzukiKenji Suzuki
    • Ikuo TajimaSatoru SuzukiKenji Suzuki
    • D05C7/08
    • D05B3/22D05C7/08D05D2303/12
    • Continuous sequin strip having a multiplicity of continuously-connected sequins is let out from a reel and then placed on the upper surface of a supporting plate. Sequin feeder apparatus feeds the sequin strip at a predetermined pitch corresponding to a size of a sequin of the continuous sequin strip through advancing and retracting movement of a feed lever interlocked to sewing operation of a needle bar of a sewing machine. The feed lever includes two engaging portions for engaging a predetermined sequin of the strip to feed the strip. With the two engaging portions engaging at least two points of the sequin, the sequin can be fed out reliably irrespective of the position of the sewing hole formed in the sequin. Thus, even sequins, each having the sewing hole eccentrically offset in a direction perpendicular to a sequin-strip feeding direction, can be fed out at the predetermined pitch with an increased reliability.
    • 具有多个连续连接的亮片的连续亮片条从卷轴中放出,然后放置在支撑板的上表面上。 缝合给料装置通过与缝纫机的针杆的缝合操作互锁的进给杆的前进和后退运动,以对应于连续亮片条的亮片的尺寸的预定间距进给亮片条。 进给杆包括两个接合部分,用于接合条带的预定的金刚片以供给条带。 通过两个接合部分接合亮片的至少两个点,可以可靠地送出金片,而与金刚片中形成的缝合孔的位置无关。 因此,即使在具有与亮片输送方向正交的方向偏心偏移的缝制孔的情况下,也可以以增加的可靠性以预定间距送出亮片。
    • 117. 发明授权
    • Light-emitting device and method for manufacturing the same
    • 发光装置及其制造方法
    • US07179672B2
    • 2007-02-20
    • US10976987
    • 2004-11-01
    • Koji AsakawaAkira FujimotoHitoshi SugiyamaKenichi OhashiKenji SuzukiJunichi Tonotani
    • Koji AsakawaAkira FujimotoHitoshi SugiyamaKenichi OhashiKenji SuzukiJunichi Tonotani
    • H01L21/00
    • H01L33/22H01L21/0271
    • A nanometer size roughened structure is formed on a surface of a light-emitting element, and luminous efficiency is improved.The roughened structure on the surface of the light-emitting element of the invention is formed into the following shape such that the refractive index smoothly changes: (1) the mean diameter of projections on the roughened surface is smaller than the light wavelength; (2) a pitch of the roughened surface is irregular; and (3) positions of the top and bottom of the roughened surface are distributed from their mean values within the light wavelength in order to give a smooth gradient of the refractive index. The surface of such light-emitting element is obtained by forming a thin film on the surface of the light-emitting element using a resin composition which contains a block copolymer or graft copolymer and forms a micophase-separated structure in a self-organization manner; selectively removing at least one phase of the microphase-separated structure of the thin film formed on the surface; and etching the surface of the light-emitting element using the remaining phase as an etching mask.
    • 在发光元件的表面上形成纳米尺寸的粗糙结构,并提高发光效率。 本发明的发光元件表面上的粗糙结构形成为以下形状,使得折射率平滑地变化:(1)粗糙面上的突起的平均直径小于光波长; (2)粗糙表面的间距不规则; 和(3)粗糙表面的顶部和底部的位置从其在光波长内的平均值分布,以便给出折射率的平滑梯度。 这种发光元件的表面通过使用含有嵌段共聚物或接枝共聚物的树脂组合物在发光元件的表面上形成薄膜而以自组织形式形成微晶相分离结构而获得; 选择性地除去形成在表面上的薄膜的微相分离结构的至少一个相; 并使用剩余的相作为蚀刻掩模蚀刻发光元件的表面。
    • 119. 发明申请
    • Inorganic separation membrane and method for manufacturing the same
    • 无机分离膜及其制造方法
    • US20060266696A1
    • 2006-11-30
    • US11289763
    • 2005-11-29
    • Takao MasudaTeruoki TagoShuichi YoshidaToshihiro TomitaKenji Suzuki
    • Takao MasudaTeruoki TagoShuichi YoshidaToshihiro TomitaKenji Suzuki
    • B01D71/04
    • B01D71/04B01D67/0051B01D69/02B01D69/12B01D2325/04B01D2325/30B01D2325/36
    • The present invention provides an inorganic separation membrane including a silicalite nanocrystalline layer formed on a porous ceramic substrate, and a porous inorganic protective layer is formed on the nanocrystalline layer. The crystal grain diameter of the silicalite nanocrystal is preferably 150 nm or less, and the thickness of the silicalite nanocrystalline layer is preferably 1.0 to 4.0 μm. The separation membrane may be manufactured by: immersing a porous ceramic substrate in a dispersion solution of silicalite nanocrystals; laminating the silicalite nanocrystals on the surface of the porous ceramic substrate by evacuating the insider of the porous ceramic substrate; forming a porous inorganic protective layer on the silicalite nanocrystalline layer by a hydrothermal synthesis by heating after immersing the porous substrate in a zeolite synthesis solution containing a silica source; and removing organic components in the silicalite nanocrystal by liquid phase oxidation.
    • 本发明提供一种无机分离膜,其包括在多孔陶瓷基板上形成的硅沸石纳米晶层,在纳米晶层上形成多孔无机保护层。 硅沸石纳米晶体的晶粒直径优选为150nm以下,并且硅沸石纳米晶层的厚度优选为1.0〜4.0μm。 分离膜可以通过以下步骤制造:将多孔陶瓷基材浸渍在硅沸石纳米晶体的分散溶液中; 通过抽真空多孔陶瓷基板的内部,在多孔陶瓷基板的表面层叠硅沸石纳米晶体; 在将多孔基材浸入含有二氧化硅源的沸石合成溶液中之后通过加热通过水热合成在硅沸石纳米晶层上形成多孔无机保护层; 并通过液相氧化除去硅沸石纳米晶体中的有机成分。