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    • 1. 发明申请
    • Copper Foil and Method of Manufacturing the Same
    • 铜箔及其制造方法
    • US20080280159A1
    • 2008-11-13
    • US11547517
    • 2005-03-31
    • Kenichiro IwakiriSeiji Nagatani
    • Kenichiro IwakiriSeiji Nagatani
    • B23P9/00C25F3/00
    • C25D7/06H05K3/382H05K2201/0355Y10T428/12438Y10T428/12569Y10T428/1291Y10T428/12993
    • The object is to provide copper foil of high adhesion even when the roughness Rz of a nodular surface of the copper foil is low, and a method of manufacturing the copper foil. To achieve this object, there is adopted a copper foil which is characterized in that an area coefficient C(S), which is defined by A(S)/B(S) from a three-dimensional surface area A(S), which is obtained by performing three-dimensional measurement of a surface area of a nodular surface of a copper foil sample S under a laser microscope, and from a measuring region area B(S), which is an area of a measuring region of the three-dimensional surface area A(S), and a roughness Rz(S) of a nodular surface of the copper foil sample S, which is measured by a stylus-type roughness meter, have a relationship of equation (1) below, and in that the roughness Rz(S) is 1.0 μm to 3.0 μm, 0.5×Rz(S)+0.5≦C(S)   (1) where Rz(S) is a numerical value represented by μm.
    • 本发明的目的是为了提供铜箔的高粘合性,即使铜箔的结节面的粗糙度R z较低,也可以提供铜箔的制造方法。 为了实现该目的,采用铜箔,其特征在于,由三维表面积A(S)由A(S)/ B(S)定义的面积系数C(S),其中 通过在激光显微镜下对铜箔样品S的结节面的表面积进行三维测量,并且从作为三维测量区域的测量区域的面积的测量区域B(S)获得, 通过针式粗糙度计测量的铜箔样品S的结节表面的尺寸表面积A(S)和粗糙度R z(S)具有等式 (1),并且粗糙度R z(S)为1.0μm〜3.0μm,<?在线式描述=“In-line Formulas”end =“lead”? > 0.5xR z(S)+0.5 <= C(S)(1)<?在线公式描述=“在线公式”end =“tail”?>其中R < (S)是由mum表示的数值。
    • 2. 发明授权
    • Copper foil and method of manufacturing the same
    • 铜箔及其制造方法
    • US07749610B2
    • 2010-07-06
    • US11547517
    • 2005-03-31
    • Kenichiro IwakiriSeiji Nagatani
    • Kenichiro IwakiriSeiji Nagatani
    • B32B15/20C25D7/06C25D3/38H05K1/09
    • C25D7/06H05K3/382H05K2201/0355Y10T428/12438Y10T428/12569Y10T428/1291Y10T428/12993
    • The object is to provide copper foil of high adhesion even when the roughness Rz of a nodular surface of the copper foil is low, and a method of manufacturing the copper foil. To achieve this object, there is adopted a copper foil which is characterized in that an area coefficient C(S), which is defined by A(S)/B(S) from a three-dimensional surface area A(S), which is obtained by performing three-dimensional measurement of a surface area of a nodular surface of a copper foil sample S under a laser microscope, and from a measuring region area B(S), which is an area of a measuring region of the three-dimensional surface area A(S), and a roughness Rz(S) of a nodular surface of the copper foil sample S, which is measured by a stylus-type roughness meter, have a relationship of equation (1) below, and in that the roughness Rz(S) is 1.0 μm to 3.0 μm, 0.5×Rz(S)+0.5≦C(S)  (1) where Rz(S) is a numerical value represented by μm.
    • 本发明的目的是提供铜箔的结节面的粗糙度Rz低的高粘合性的铜箔及其制造方法。 为了实现该目的,采用铜箔,其特征在于,由三维表面积A(S)由A(S)/ B(S)定义的面积系数C(S),其中 通过在激光显微镜下对铜箔样品S的结节面的表面积进行三维测量,并且从作为三维测量区域的测量区域的面积的测量区域B(S)获得, 通过触针式粗糙度计测量的铜箔样品S的结节面的尺寸表面积A(S)和粗糙度Rz(S)具有以下等式(1)的关系,并且因此 粗糙度Rz(S)为1.0μm〜3.0μm,0.5×Rz(S)+ 0.5&amp; NlE; C(S)(1)其中,Rz(S)为由μm表示的数值。
    • 3. 发明授权
    • Cooling structure of bearing housing for turbocharger
    • 涡轮增压器轴承箱冷却结构
    • US09546568B2
    • 2017-01-17
    • US14117795
    • 2012-06-22
    • Tadashi KanzakaKenichiro IwakiriHiroshi Ogita
    • Tadashi KanzakaKenichiro IwakiriHiroshi Ogita
    • F02B33/44F01D25/12F01D25/14F02B39/00
    • F01D25/125F01D25/14F02B39/005F05D2220/40F05D2260/232
    • A cooling structure for a bearing housing for a turbocharger is provided. The cooling structure is configured so that the cooling structure has improved productivity, the occurrence of heat soak-back is reduced, and the cooling structure has improved cooling performance. The cooling structure cools both a bearing housing 13 and a bearing 52 by cooling water flowing through an annular cooling water path 13f formed in the bearing housing 13, and is provided with: a water path inlet 13h for supplying the cooling water and a water path outlet 13j for discharging the cooling water, which are provided in the bearing housing 13 to communicate with the annular cooling water path 13f; and a partial partition 14a in the bearing housing 13 to partially close a water path which forms the shortest route between the water path inlet 13h and the water path outlet 13j.
    • 提供了一种用于涡轮增压器的轴承壳体的冷却结构。 冷却结构被构造成使得冷却结构具有提高的生产率,减少了热浸回的发生,并且冷却结构具有改善的冷却性能。 冷却结构通过冷却流过形成在轴承箱13中的环形冷却水路径13f的水来冷却轴承壳体13和轴承52,并且设置有:用于供给冷却水的水路入口13h和水路 出口13j,用于排出设置在轴承箱13中以与环形冷却水通道13f连通的冷却水; 以及轴承壳体13中的部分分隔部14a,以部分地闭合在水路入口13h与水路出口13j之间形成最短路线的水路。
    • 8. 发明申请
    • COOLING STRUCTURE OF BEARING HOUSING FOR TURBOCHARGER
    • 滚动轴承轴承冷却结构
    • US20140090375A1
    • 2014-04-03
    • US14117795
    • 2012-06-22
    • Tadashi KanzakaKenichiro IwakiriHiroshi Ogita
    • Tadashi KanzakaKenichiro IwakiriHiroshi Ogita
    • F01D25/12F02B39/00
    • F01D25/125F01D25/14F02B39/005F05D2220/40F05D2260/232
    • It is intended to provide a cooling structure for a bearing housing for a turbocharger, the cooling structure being configured so that the cooling structure is manufactured with improved productivity, the occurrence of heat soak-back is reduced, and the cooling structure has improved cooling performance. The cooling structure is configured to cool both a bearing housing 13 and a bearing 52 by cooling water flowing through an annular cooling water path 13f formed in the bearing housing 13, and is provided with: a water path inlet 13h for supplying the cooling water and a water path outlet 13j for discharging the cooling water, which are provided in the bearing housing 13 so as to communicate with the annular cooling water path 13f and a partial partition 14a in the bearing housing 13 to partially close a water path which forms the shortest route between the water path inlet 13h and the water path outlet 13j.
    • 旨在提供一种用于涡轮增压器的轴承壳体的冷却结构,该冷却结构被构造成使得冷却结构以提高的生产率制造,减少了热吸收的发生,并且冷却结构具有改善的冷却性能 。 冷却结构通过冷却流过形成在轴承箱13中的环形冷却水路13f的水而冷却轴承壳体13和轴承52,并且设置有:用于供给冷却水的水路入口13h, 用于排出冷却水的水路出口13j,其设置在轴承壳体13中以与环形冷却水路径13f连通,并且在轴承箱13中与部分隔板14a连通,以部分地闭合形成最短的水路 水路入口13h与水路出口13j之间的路线。