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    • 1. 发明授权
    • Cyrogenic regenerator
    • 细胞再生器
    • US4866943A
    • 1989-09-19
    • US258504
    • 1988-10-17
    • John R. PurcellRaymond E. Sarwinski
    • John R. PurcellRaymond E. Sarwinski
    • F02G1/057F25B9/14
    • F02G1/057F25B9/14F25B2309/003
    • Cryogenic regenerator formed by a spirally rolled, flexible composite material including a base layer having a top and a bottom provided with a plurality of spaced, substantially parallel corrugations extending outwardly therefrom and wherein the flexible base layer is rolled into a generally cylindrical spiral with the corrugations extending radially inwardly and engaging the top of the base layer to cause the base layer and the corrugations to cooperatively form a plurality of channels for conducting the working fluid through the regenerator. The relatively flexible composite material may be a relatively flexible, hardened epoxy; the composite material may be loaded with thermally conductive material and may be an epoxy loaded with thermally conductive material. The depth or transverse cross-sectional area of the regenerator channels may continuously decrease from the hot end to the cold end of the regenerator to reduce the working fluid volume in the regenerator and to decrease the pressure drop across the regenerator by providing an improved match between the density of the working fluid and the depth or transverse cross-sectional area of the regenerator channels from the hot end towards the cold end.
    • 由螺旋卷绕的柔性复合材料形成的低温再生器,其包括具有顶部和底部的基底层,所述基底层具有从其向外延伸的多个间隔开的基本平行的波纹,并且其中柔性基底层被卷成具有波纹的大致圆柱形螺旋 径向向内延伸并与基底层的顶部接合以使基底层和波纹协同地形成用于通过再生器传导工作流体的多个通道。 相对柔性的复合材料可以是相对柔性的,硬化的环氧树脂; 复合材料可以装载有导热材料,并且可以是负载有导热材料的环氧树脂。 再生器通道的深度或横截面积可以从再生器的热端到冷端连续地减小,以减少再生器中的工作流体体积,并且通过提供改进的匹配 工作流体的密度以及从热端到冷端的再生器通道的深度或横截面积。
    • 5. 发明授权
    • Process of manufacturing a cryogenic regenerator
    • 制造低温再生器的工艺
    • US5047192A
    • 1991-09-10
    • US377314
    • 1989-07-10
    • John R. PurcellRaymond E. Sarwinski
    • John R. PurcellRaymond E. Sarwinski
    • F02G1/057F25B9/14
    • F25B9/14F02G1/057F25B2309/003
    • Process of manufacturing a cryogenic regenerator including a plurality of channels for conducting a working fluid, including the steps of providing a cylindrical forming member having a longitudinal axis and a plurality of peripheral slots displaced axially and oriented substantially parallel to the longitudinal axis of the cylindrical forming member, or having a continuous spiral peripheral slot of sufficiently small pitch such that the convolutions thereof are oriented substantially parallel to such longitudinal axis; providing epoxy which is relatively flexible upon hardening, loading the epoxy with thermally conductive material for enhancing the radial thermal conductivity of the cryogenic regenerator, and applying the epoxy to the periphery of the cylindrical forming member to fill the plurality of slots or the spiral peripheral slot with the epoxy and to form a radial layer of the epoxy of a generally first radial thickness allowing the epoxy to harden and thereafter reducing the radial thickness of the peripheral layer of hardened epoxy to a second smaller radial thickness; splitting the hardened relatively flexible epoxy radially and parallel to the axis and thereafter removing the epoxy from the cylindrical forming member to provide a relatively flexible base layer from the epoxy formerly residing on the periphery of the cylindrical forming member and to provide a plurality of substantially parallel corrugations from epoxy formerly residing in the plurality of slots or the spiral peripheral slot, the corrugations extending outwardly from a bottom of the base layer; and rolling the relatively flexible base layer into a generally cylindrical spiral having an axis with the corrugations extending parallel to the axis of the cylindrical spiral and with the corrugations extending radially inwardly and engaging a top of the base layer to cause the base layer and the corrugations to cooperatively form the plurality of channels.
    • 制造包括用于传导工作流体的多个通道的低温再生器的方法,包括以下步骤:提供具有纵向轴线的圆柱形成型构件和沿轴向位移并基本上平行于圆柱形成型件的纵向轴线定向的多个周向槽 或者具有足够小间距的连续螺旋形周边槽,使得其卷积基本上平行于该纵向轴线定向; 提供在硬化时相对柔性的环氧树脂,用导热材料加载环氧树脂以增强低温再生器的径向热导率,以及将环氧树脂施加到圆柱形成形构件的周边以填充多个槽或螺旋形外周槽 与环氧树脂形成通常第一径向厚度的环氧树脂的径向层,从而允许环氧树脂硬化,然后将硬化环氧树脂周边层的径向厚度减小到第二较小的径向厚度; 将硬化的相对柔性的环氧树脂径向和平行于轴线分裂,然后从圆柱形成型构件中除去环氧树脂,从而形成相对柔性的基层,该基层先前位于圆柱形成形构件的周边上,并提供多个基本平行的 波纹从原来位于多个槽或螺旋周边槽中的环氧树脂,波纹从基层的底部向外延伸; 并且将相对柔性的基层滚动成具有轴线的大致圆柱形螺旋,其中波纹平行于圆柱形螺旋的轴线延伸,并且波纹径向向内延伸并且接合基底层的顶部,以使基底层和波纹 协同地形成多个信道。
    • 6. 发明授权
    • Containment vessel for use with a pulsed magnet system and method of
manufacturing same
    • 用于脉冲磁体系统的容器及其制造方法
    • US5148137A
    • 1992-09-15
    • US669804
    • 1991-03-15
    • John R. PurcellSibley C. BurnettLewis R. Creedon
    • John R. PurcellSibley C. BurnettLewis R. Creedon
    • B03C1/033H01F6/04
    • B03C1/0337H01F6/04Y10S505/898
    • A cryogenic containment vessel for use with a pulsed superconducting magnet system includes a superconducting coil positioned within the cryogenic containment vessel for providing a magnetic field. The containment vessel includes a relatively thin metallic inner tube for holding liquid helium and the coil. The containment vessel also includes a relatively thick outer tube encompassing the inner tube with a relatively rigid insulative spacer positioned between the inner and outer tubes so that the tubes are not in contact with each other. The outer tube is predominantly metallic and has at least one joint formed of insulative material to prevent the outer tube from forming a low electrical resistance loop. The inner tube provides a vacuum seal and the outer tube provides structural support for the inner tube so that eddy current losses resulting from ramping of the current to the coil are reduced. A method of fabricating the containment vessel is also disclosed.
    • 用于脉冲超导磁体系统的低温容纳容器包括位于低温容纳容器内的用于提供磁场的超导线圈。 安全壳包括用于保持液氦和线圈的相对薄的金属内管。 容纳容器还包括相对较厚的外管,其包围内管,其具有定位在内管和外管之间的相对刚性的绝缘间隔件,使得管不彼此接触。 外管主要是金属的,并且具有由绝缘材料形成的至少一个接头,以防止外管形成低电阻回路。 内管提供真空密封,外管为内管提供结构支撑,从而降低了电流向线圈斜坡所引起的涡流损耗。 还公开了一种制造安全壳的方法。
    • 8. 发明授权
    • Method and apparatus for protecting superconducting magnetic energy
storage systems during rapid energy dissipation
    • 在快速耗能过程中保护超导磁能储存系统的方法和装置
    • US4528609A
    • 1985-07-09
    • US410499
    • 1982-08-23
    • John R. Purcell
    • John R. Purcell
    • H02H7/00
    • H02H7/001Y02E40/68Y10S505/85
    • A method and apparatus are provided for protecting a superconducting magnetic energy storage system having a coil from damage caused by a change of state of at least a portion of the coil from superconducting to normal conducting, and the consequent conversion of stored electrical energy to heat. A thermal capacitance is placed in thermal contact with the coil. The thermal capacitance is formed of a substance, such as nitrogen, which is solid at operating pressure at a temperature substantially above the transition temperature of the coil and that vaporizes below the temperature at which the system is damaged. The volume of the substance is sufficient to provide thermal capacity upon vaporization of the substance to dissipate substantially all of the stored energy without permitting the system to overheat. Liquid helium is provided in thermal contact with the substance and the coil for normally cooling the coil and the thermal capacitance to a temperature which is low enough so that the coil is in its superconducting state and the substance becomes substantially solid. Means are also provided for propagating any normal conducting region that is present for more than a very short time over substantially all of the coil by removing the helium from thermal contact with a substantial portion of the coil. In this manner, the substance absorbs the stored energy while maintaining the temperature of the system below the temperature at which it is damaged.
    • 提供了一种方法和装置,用于保护具有线圈的超导磁能存储系统免受由线圈的至少一部分状态从超导到正常导通的状态改变的损害,以及由此将存储的电能转换成热。 热电容放置在与线圈热接触的位置。 热电容由诸如氮的物质形成,其在基本上高于线圈的转变温度的温度的操作压力下是固体的,并且在系统损坏的温度以下蒸发。 物质的体积足以在物质蒸发时提供热容量,以消散基本上所有储存的能量,而不允许系统过热。 提供与物质和线圈热接触的液氦,用于将线圈和热电容正常冷却到足够低的温度,使得线圈处于其超导状态并且物质变得基本上是固体的。 还提供了用于通过除去氦与线圈的大部分热接触来传播在基本上所有线圈上存在超过非常短的时间的任何正常导电区域的装置。 以这种方式,物质吸收储存的能量,同时保持系统的温度低于其损坏的温度。