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    • 1. 发明申请
    • FLUID DYNAMIC BEARING DEVICE AND MANUFACTURING METHOD THEREFOR
    • 流体动力轴承装置及其制造方法
    • US20100231074A1
    • 2010-09-16
    • US12160326
    • 2006-11-09
    • Nobuyoshi YamashitaMasaaki TodaKimihiko BitouMasaharu Hori
    • Nobuyoshi YamashitaMasaaki TodaKimihiko BitouMasaharu Hori
    • F16C32/06B21D53/10H02K5/167
    • F16C33/107F16C17/107Y10T29/49639
    • To provide a fluid dynamic pressure bearing device that achieves high rigidity against moment without degradation in assembly precision and bearing performance, bearing sleeves are arranged in an axial direction and coaxiality of radial bearing surfaces formed on inner peripheral surfaces of the bearing sleeves is set to 3 μm or less. This secures width precision between the radial bearing gaps to prevent a degradation in bearing performance and a failure such as wear etc. caused by contact between a shaft member and the bearing sleeves. Further, a first radial bearing surface and a second radial bearing surface are provided on at least one sleeve, and this allows a sleeve assembly constructed from the bearing sleeves to be supported at least three positions in the axial direction in a process of assembling the sleeve assembly. As a result, assembly work can be carried out with two bearing sleeves prevented from being bent at a midway thereof, and highly accurate coaxiality between both the bearing sleeves is secured.
    • 为了提供一种流体动压轴承装置,其在刚度不会降低组装精度和轴承性能的同时实现高刚度,轴向套筒沿轴向布置,并且形成在轴承套内周表面上的径向支承面的同轴度设定为3 μm以下。 这确保径向轴承间隙之间的宽度精度,以防止由轴构件和轴承套筒之间的接触引起的轴承性能的劣化和诸如磨损等的故障。 此外,在至少一个套筒上设置有第一径向支承表面和第二径向支承表面,并且这允许由轴承套筒构成的套筒组件在组装套筒的过程中沿轴向方向被支撑在至少三个位置 部件。 结果,可以进行组装工作,其中两个轴承套筒在其中途被阻止弯曲,并且确保两个轴承套筒之间的高度精确的同轴度。
    • 2. 发明授权
    • Fluid dynamic bearing device and manufacturing method therefor
    • 流体动力轴承装置及其制造方法
    • US08120220B2
    • 2012-02-21
    • US12160326
    • 2006-11-09
    • Nobuyoshi YamashitaMasaaki TodaKimihiko BitouMasaharu Hori
    • Nobuyoshi YamashitaMasaaki TodaKimihiko BitouMasaharu Hori
    • H02K5/16F16C17/02
    • F16C33/107F16C17/107Y10T29/49639
    • To provide a fluid dynamic pressure bearing device that achieves high rigidity against moment without degradation in assembly precision and bearing performance, bearing sleeves are arranged in an axial direction and coaxiality of radial bearing surfaces formed on inner peripheral surfaces of the bearing sleeves is set to 3 μm or less. This secures width precision between the radial bearing gaps to prevent a degradation in bearing performance and a failure such as wear etc. caused by contact between a shaft member and the bearing sleeves. Further, a first radial bearing surface and a second radial bearing surface are provided on at least one sleeve, and this allows a sleeve assembly constructed from the bearing sleeves to be supported at least three positions in the axial direction in a process of assembling the sleeve assembly. As a result, assembly work can be carried out with two bearing sleeves prevented from being bent at a midway thereof, and highly accurate coaxiality between both the bearing sleeves is secured.
    • 为了提供一种流体动压轴承装置,其在刚度不会降低组装精度和轴承性能的同时实现高刚度,轴向套筒沿轴向布置,并且形成在轴承套内周表面上的径向支承面的同轴度设定为3 μm以下。 这确保径向轴承间隙之间的宽度精度,以防止由轴构件和轴承套筒之间的接触引起的轴承性能的劣化和诸如磨损等的故障。 此外,在至少一个套筒上设置有第一径向支承表面和第二径向支承表面,并且这允许由轴承套筒构成的套筒组件在组装套筒的过程中沿轴向方向被支撑在至少三个位置 部件。 结果,可以进行组装工作,其中两个轴承套筒在其中途被阻止弯曲,并且确保两个轴承套筒之间的高度精确的同轴度。
    • 5. 发明授权
    • Fluid dynamic bearing device and method of manufacturing the same
    • 流体动力轴承装置及其制造方法
    • US08529132B2
    • 2013-09-10
    • US12303808
    • 2007-05-28
    • Masaharu HoriMasaaki Toda
    • Masaharu HoriMasaaki Toda
    • F16C32/06
    • F16C17/107F16C17/026F16C33/107
    • Provided is a fluid dynamic bearing device in which an assembly of a bearing sleeve to a housing is facilitated and which has excellent moment rigidity. A fluid dynamic bearing device (1) includes radial bearing parts (R1 and R2) and thrust bearing parts (T1 and T2). Thrust bearing surfaces (C and D) are respectively provided to first and second step surfaces (2d and 2e) of a housing (2), and the thrust bearing parts (T1 and T2) are respectively formed between the thrust bearing surfaces (C and D) and end surfaces (6b and 7b) of seal members (6 and 7) provided while protruding to an outer diameter side of a shaft member (5).
    • 提供了一种流体动力轴承装置,其中轴承套筒到壳体的组件被促进并且具有优异的力矩刚度。 流体动力轴承装置(1)包括径向轴承部件(R1和R2)和推力轴承部件(T1和T2)。 推力轴承表面(C和D)分别设置在壳体(2)的第一和第二台阶表面(2d和2e)上,止推轴承部分(T1和T2)分别形成在推力轴承表面(C和 D)和在轴构件(5)的外径侧突出时设置的密封构件(6和7)的端面(6b和7b)。
    • 7. 发明申请
    • FLUID BEARING DEVICE
    • 流体轴承装置
    • US20090297078A1
    • 2009-12-03
    • US12158408
    • 2006-12-18
    • Masaharu HoriMasaaki Toda
    • Masaharu HoriMasaaki Toda
    • F16C32/06
    • F16C17/107F16C17/26F16C33/107F16C35/02
    • [Problems] Provided is a fluid bearing device in which bearing sleeves are positioned and fixed with respect to a housing with high accuracy.[Solving Means] To an inner periphery of a housing (7), a first bearing sleeve (8) and a second bearing sleeve (9) are fixed while being spaced apart in an axial direction. Between the bearing sleeves (8) and (9), a spacer (10) made of a resin is disposed. An axial rigidity of the spacer (10) is smaller than those of the first bearing sleeve (8) and the second bearing sleeve (9). Accordingly, in a state where the first bearing sleeve (8) and the second bearing sleeve (9) are positioned and fixed with respect to the housing (7), the spacer (10) is largely compressed in an axial direction compared to the bearing sleeves (8) and (9).
    • [问题]提供一种流体轴承装置,其中轴承套筒相对于壳体以高精度定位和固定。 [解决方案]在壳体(7)的内周面上,沿轴向间隔开地固定有第一轴承套(8)和第二轴承套(9)。 在轴承套(8)和(9)之间设置有由树脂制成的间隔件(10)。 间隔件(10)的轴向刚度小于第一轴承套(8)和第二轴承套(9)的轴向刚性。 因此,在第一轴承套(8)和第二轴承套(9)相对于壳体(7)定位和固定的状态下,与轴承相比,间隔件(10)在轴向上被大大地压缩 袖子(8)和(9)。