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    • 151. 发明申请
    • Magnetic bearing and use thereof
    • 磁轴承及其用途
    • US20020050755A1
    • 2002-05-02
    • US10024160
    • 2001-12-18
    • Frank WerfelChristhard Deter
    • H02K005/16
    • F16C32/0438Y10S505/879
    • In a magnetic bearing in which a first part (1, 20) is mounted magnetically relative to a second part (3, 10) and the second part (3, 10) has a Type II superconducting material (2) containing an anisotropic crystal or a plurality of grains formed of this anisotropic crystal, this crystal being anisotropic in that the superconducting current flows in current-carrying planes, the first part (1, 20) has a configuration of magnets (1; 6, 7, 8; 11, 12,13, 14; 30, 31, 32, 34; 50, 51, 52, 53) with which the superconducting material (2) interacts, and the crystal itself or the crystal in the plurality of grains faces the first part (1, 20) with the normals on the current-carrying planes (a-b).
    • 在其中第一部分(1,20)相对于第二部分(3,10)磁性地安装的磁性轴承中,并且第二部分(3,10)具有包含各向异性晶体的II型超导材料(2)或 由这种各向异性晶体形成的多个晶粒,该晶体是各向异性的,因为超导电流在载流平面中流动,所以第一部分(1,20)具有磁体(1; 6,7,8; 11, 超导材料(2)与其相互作用的晶体本身或晶体面对第一部分(1)的第一部分(12,13,14; ,20)与载波飞机(ab)的法线。
    • 152. 发明授权
    • Magnetic systems for energy storage flywheels
    • 储能飞轮磁力系统
    • US06211589B1
    • 2001-04-03
    • US09338223
    • 1999-06-22
    • Harlow G. AhlstromJohn R. BartonThomas S. LuhmanMichael StrasikMichael ChapmanDarryl F. Garrigus
    • Harlow G. AhlstromJohn R. BartonThomas S. LuhmanMichael StrasikMichael ChapmanDarryl F. Garrigus
    • H02K127
    • F16C32/0438F16C2361/55H02K7/025H02K7/09H02K21/24Y02E60/16Y10T74/2119
    • A flywheel system suitable for storing energy when demand for energy from a power plant is low, and from which energy can be retrieved when energy demand increases. The flywheel includes (a) a circular composite or metallic glass ring with a radial width limited to less than about 30 percent of the ring's outer radius, and (b) at least one spoke extending along a diameter of the ring, and attached to the ring at either end. The spoke has sufficient radial extendability due to either bending and elastic radial elongation, or only elastic elongation so that, when the flywheel rotates at operating speed, the spoke extends radially to match the radial growth of the ring, without subjecting the flywheel to significant tension at points of attachment of the spoke to the ring. In one embodiment, both flywheel ring and spoke are made of oriented high strength fibers embedded in a thermoplastic resin. Also provided are a magnetic bearing and motor/generator system that are of an axial-gap design so that magnets are held in a substantially fixed position relative to each other, as the flywheel expands radially under centrifugal forces. Further, both motor/generator and flywheel bearings utilize a system of permanent magnets alternating with a high magnetic permeability composition in order to produce highly uniform magnetic fields in the bearing to reduce magnetic drag and improve efficiency, and to produce high torque in the motor generator. The flywheel bearing assembly includes a bulk high temperature superconductive magnet that provides lateral stability to the flywheel.
    • 一种飞轮系统,适用于在来自发电厂的能量需求时储存能量,并且当能量需求增加时能够从中获取能量。 飞轮包括(a)圆形复合材料或金属玻璃环,其径向宽度限制在小于环的外半径的约30%,和(b)至少一个沿着环的直径延伸的辐条,并附接到 在任一端环。 由于弯曲和弹性径向伸长率,或者仅弹性伸长率,轮辐具有足够的径向延伸性,使得当飞轮以运行速度旋转时,轮辐径向延伸以匹配环的径向生长,而不会使飞轮承受明显的张力 在辐条与环的连接点。 在一个实施例中,飞轮环和辐条均由嵌入在热塑性树脂中的取向的高强度纤维制成。 还提供了一种磁轴承和电动机/发电机系统,其具有轴向间隙设计,使得磁体在离心力下径向膨胀时相对于彼此保持在基本上固定的位置。 此外,电动机/发电机和飞轮轴承都使用与高磁导率组合物交替的永磁体系统,以便在轴承中产生高度均匀的磁场,以减少磁阻并提高效率,并且在电动发电机中产生高扭矩 。 飞轮轴承组件包括向飞轮提供横向稳定性的体高温超导磁体。
    • 153. 发明授权
    • Method and apparatus for measuring gravitational acceleration utilizing
a high temperature superconducting bearing
    • 使用高温超导轴承测量重力加速度的方法和装置
    • US6079267A
    • 2000-06-27
    • US186606
    • 1998-11-06
    • John R. Hull
    • John R. Hull
    • G01M1/12G05G1/00
    • F16C32/0438
    • Gravitational acceleration is measured in all spatial dimensions with improved sensitivity by utilizing a high temperature superconducting (HTS) gravimeter. The HTS gravimeter is comprised of a permanent magnet suspended in a spaced relationship from a high temperature superconductor, and a cantilever having a mass at its free end is connected to the permanent magnet at its fixed end. The permanent magnet and superconductor combine to form a bearing platform with extremely low frictional losses, and the rotational displacement of the mass is measured to determine gravitational acceleration. Employing a high temperature superconductor component has the significant advantage of having an operating temperature at or below 77K, whereby cooling may be accomplished with liquid nitrogen.
    • 重力加速度是通过利用高温超导(HTS)重力仪在所有空间尺寸上测量的,具有改进的灵敏度。 HTS重力计包括悬挂在与高温超导体间隔的关系中的永磁体,并且其自由端具有质量的悬臂在其固定端连接到永磁体。 永磁体和超导体组合形成具有极低摩擦损耗的轴承平台,并测量质量的旋转位移以确定重力加速度。 使用高温超导体部件具有使工作温度在77K以下的显着优点,由此可以用液氮进行冷却。
    • 156. 发明授权
    • Superconducting bearing device
    • 超导轴承装置
    • US5838082A
    • 1998-11-17
    • US602654
    • 1996-02-16
    • Norio ItoJunichiro ShinozakiHiroshi Imaizumi
    • Norio ItoJunichiro ShinozakiHiroshi Imaizumi
    • F16C32/04F16C39/06H02J15/00H02K7/09H02K21/22
    • F16C32/0438F16C15/00H02K1/04H02K1/278H02K15/03F16C2300/62
    • A superconducting bearing device comprising a superconductor mounted on a stationary member and a magnet section to be mounted on a rotating member, the superconductor and the magnet section being disposed to oppose each other with a gap therebetween. Also disclosed is a method for producing the magnet section thereof, wherein the magnet section consists of a plurality of annular permanent magnets which are concentric with the axis of the rotating member and also include at least one soft magnetic yoke disposed between these annular permanent magnets. Each annular magnet, in turn, may be comprised of a plurality of arcuate magnet portions whose joint surfaces may be concentrically or axially staggered to disperse nonuniform flux densities observed at their junction surfaces. The joint surfaces between the annular and magnets and the interposing rings may be curved or slanted to reduce axial displacement when the magnet section is rotated. Also, the yoke members may protrude towards the superconductor relative to the permanent magnets comprising the magnet section, and these yokes may be optimally shaped to concentrate and direct magnetic flux to the opposing superconductor in conjunction with curled magnetization of the permanent magnets. Finally, one or more restraining members or wedge portions may be fitted to the magnet section to radially and circumferentially compress the permanent magnets sections and prevent their displacement and breakage at high rotational speeds.
    • 一种超导轴承装置,包括安装在固定部件上的超导体和安装在旋转部件上的磁体部分,超导体和磁体部分设置成彼此相对并且间隔开。 还公开了一种用于制造其磁体部分的方法,其中磁体部分由与旋转部件的轴线同心的多个环形永磁体组成,并且还包括设置在这些环形永磁体之间的至少一个软磁轭。 每个环形磁体又可以由多个弓形磁体部分组成,其接合表面可以同心或轴向交错以分散在其连接表面处观察到的不均匀的磁通密度。 环形和磁体与插入环之间的接合表面可以是弯曲的或倾斜的,以减小当磁体部分旋转时的轴向位移。 此外,轭构件可相对于包括磁体部分的永磁体朝向超导体突出,并且这些磁轭可以被最佳地成形为将磁通量集中并引导到相对的超导体以及永磁体的卷曲磁化。 最后,可以将一个或多个约束构件或楔形部分装配到磁体部分上以径向和周向地压缩永磁体部分,并防止其在高转速下的位移和断裂。
    • 157. 发明授权
    • Superconducting bearing device
    • 超导轴承装置
    • US5801469A
    • 1998-09-01
    • US117088
    • 1994-02-08
    • Ryoichi TakahataMotoaki ShibayamaHiroshi Takaichi
    • Ryoichi TakahataMotoaki ShibayamaHiroshi Takaichi
    • F16C32/04F16C39/06H02J15/00H02K7/09
    • F16C32/0438F16C2240/40F16C2300/34
    • A superconducting bearing device comprises an annular permanent magnetic portion 2 disposed concentrically with a rotary body 1 in the form of a vertical shaft, and superconductors 8 opposed to the lower end face of the magnet portion 2 and vertically spaced apart therefrom. The permanent magnet portion 2 comprises a disk 4 fixedly mounted on the rotary body 1, and annular permanent magnets 6a, 6b arranged on the disk 4 at a spacing radially of the rotary body 1. Each of the magnets 6a, 6b has upper and lower ends magnetized to polarities opposite to each other, and the adjacent magnets 6a, 6b are magnetized to polarities opposite to each other at the upper ends, as well as at the lower ends. The radial spacing between the magnets 6a, 6b is optimized in accordance with the radial dimension (width) of the magnets 6a, 6b. This improves the device in load capacity and rigidity and prevents the deflection of axis of the rotary body 1, enabling the bearing device to support the rotary body 1 in a noncontact state with good stability.
    • PCT No.PCT / JP92 / 00301 Sec。 371日期1994年2月8日 102(e)日期1994年2月8日PCT提交1992年3月13日PCT公布。 WO92 / 16762 PCT出版物 日期:1992年10月1日超导轴承装置包括与垂直轴形式的旋转体1同心设置的环形永磁部分2和与磁体部分2的下端面相对并且与其垂直间隔开的超导体8 。 永磁体部分2包括固定地安装在旋转体1上的盘4和以旋转体1的径向间隔设置在盘4上的环形永磁体6a,6b。每个磁体6a,6b具有上下 端部被磁化成彼此相反的极性,并且相邻的磁体6a,6b在上端以及在下端被磁化成彼此相反的极性。 磁体6a,6b之间的径向间隔根据磁体6a,6b的径向尺寸(宽度)进行优化。 这提高了装置的负载能力和刚性,并且防止旋转体1的轴线的偏转,使得轴承装置能够以非常接触的状态将旋转体1支撑在良好的稳定性。
    • 158. 发明授权
    • Superconducting bearing device
    • 超导轴承装置
    • US5763971A
    • 1998-06-09
    • US406223
    • 1995-03-16
    • Ryoichi TakahataTaisaku Hashimoto
    • Ryoichi TakahataTaisaku Hashimoto
    • F16C39/06H02K55/00B60L13/04
    • F16C32/0438Y10S505/877Y10S505/903
    • A superconducting bearing device comprises a permanent magnet portion fixedly mounted on a rotary body concentrically therewith, and a superconductor opposed to the magnet portion and spaced apart therefrom radially of the rotary body, the magnet portion being so disposed that the rotation of the rotary body does not alter the magnetic flux distribution around the axis of rotation of the rotary body, the superconductor being disposed at a position which is spaced apart from the magnet portion by a distance permitting a predetermined quantity of magnetic flux thereof to penetrate into the superconductor and which does not permit the rotation of the rotary body to alter the penetrating magnetic flux distribution. The magnet portion comprises a plurality of annular permanent magnets arranged at a spacing along the axis of rotation of the rotary body and an annular yoke of ferromagnetic material interposed between each two adjacent magnets. Each of the magnets is magnetized to opposite polarities at its respective opposite ends in the direction of the axis of rotation, each two adjacent magnets being magnetized to the same polarity at their ends opposed to each other with the yoke interposed therebetween.
    • 超导轴承装置包括与其同心地固定地安装在旋转体上的永磁体部分和与磁体部分相对并且与旋转体径向间隔开的超导体,磁体部分被设置成使得旋转体的旋转 不改变围绕旋转体的旋转轴线的磁通量分布,超导体设置在与磁体部分间隔开一定距离的位置,允许其预定量的磁通量渗透到超导体中, 不允许旋转体的旋转来改变穿透磁通分布。 磁体部分包括沿着旋转体的旋转轴线间隔设置的多个环形永久磁铁和介于每两个相邻的磁体之间的铁磁材料的环形磁轭。 每个磁体在旋转轴线方向各自的相对端被磁化成相反的极性,每个两个相邻的磁体在它们彼此相对的端部被磁化成相同的极性,其中磁轭被夹在它们之间。
    • 160. 发明授权
    • Superconducting bearing device
    • 超导轴承装置
    • US5739606A
    • 1998-04-14
    • US632612
    • 1996-04-15
    • Ryoichi TakahataMotoaki ShibayamaHiroshi Takaichi
    • Ryoichi TakahataMotoaki ShibayamaHiroshi Takaichi
    • F16C39/06H02K7/09
    • F16C32/0438F16C2300/34
    • A superconducting bearing device comprises an annular permanent magnet portion disposed concentrically with a rotary body in the form of a vertical shaft, and superconductors opposed to the lower end face of the magnet portion and vertically spaced apart therefrom. The permanent magnet portion comprises a disk fixedly mounted on the rotary body, and annular permanent magnets embedded in the disk at a spacing radially of the rotary body. Each of the magnets has upper and lower ends magnetized to polarities opposite to each other, and the adjacent magnets are magnetized to polarities opposite to each other at the upper ends, as well as at the lower ends. The radial spacing between the magnets is optimized in accordance with the radial dimension (width) of the magnets. This improves the device in load capacity and rigidity and prevents the deflection of axis of the rotary body, enabling the bearing device to support the rotary body in a noncontact state with good stability.
    • 超导轴承装置包括与垂直轴形式的旋转体同心地设置的环形永磁体部分,以及与磁体部分的下端面相对并且与其垂直间隔开的超导体。 永磁体部分包括固定地安装在旋转体上的盘,以及以旋转体径向间隔嵌入盘中的环形永久磁体。 每个磁体具有被磁化成彼此相反的极性的上端和下端,并且相邻的磁体在上端以及在下端被磁化成彼此相反的极性。 根据磁体的径向尺寸(宽度)来优化磁体之间的径向间隔。 这提高了装置的负载能力和刚性,并且防止旋转体的轴线的偏转,使得轴承装置能够以非常接触的状态将旋转体支撑在良好的稳定性。