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    • 2. 发明授权
    • ELF and VLF antenna and related methods
    • ELF和VLF天线及相关方法
    • US09527608B1
    • 2016-12-27
    • US14954031
    • 2015-11-30
    • The United States of America as represented by the Secretary of the Air Force
    • Vladimir SotnikovTony Kim
    • B64G1/54H01Q1/28H01Q7/00H01Q21/29
    • B64G1/54H01Q1/288H01Q7/00H01Q21/29
    • A method of reducing densities of harmful charged radiation belt particles is includes providing a space-based antenna having a first antenna portion and second antenna portion. The first antenna portion and the second antenna portion are oriented such that their loop planes are perpendicular with respect to the magnetic field of the Earth. The first antenna portion and the second antenna portion are energized with a first frequency and a second frequency, respectively, wherein the first frequency and the second frequency satisfy the relationship that the ratio of the first frequency to the second frequency is equal to the ratio of the second radius to the first radius. The trajectory of energetic particles in the radiation belt, such that the trajectories of energetic particles are shifted into a loss cone.
    • 降低有害带电辐射带粒子的密度的方法包括提供具有第一天线部分和第二天线部分的基于天线的天线。 第一天线部分和第二天线部分被定向成使得它们的环面相对于地球的磁场垂直。 第一天线部分和第二天线部分分别以第一频率和第二频率被激励,其中第一频率和第二频率满足第一频率与第二频率之比等于 第二个半径到第一个半径。 辐射带中能量粒子的轨迹,使得能量粒子的轨迹移入损耗锥体。
    • 3. 发明授权
    • Cryogenically cooled radiation shield device and associated method
    • 低温辐射屏蔽装置及相关方法
    • US08809824B1
    • 2014-08-19
    • US12966350
    • 2010-12-13
    • Gary A. Kinstler
    • Gary A. Kinstler
    • G21F5/00
    • B64G1/58B64G1/50B64G1/54G21F1/00G21F3/00
    • A cryogenically cooled radiation shield device and method are provided to shield an area, such as the capsule of a space vehicle, from radiation. A cryogenically cooled radiation shield device may include at least one first coil comprised of a superconducting material extending about the area to be shielded. The cryogenically cooled radiation shield device also includes a first inner conduit extending about the area to be shielded from radiation. The at least one first coil is disposed within the first inner conduit. The cryogenically cooled radiation shield device also includes a first outer conduit extending about the area to be shielded from radiation. The first inner conduit is disposed within the first outer conduit. The cryogenically cooled radiation shield device also includes a first cryogen liquid disposed within the first inner conduit and a second cryogen liquid, different than the first cryogen liquid, disposed within the first outer conduit.
    • 提供了一种低温冷却的辐射屏蔽装置和方法来屏蔽诸如太空车辆的胶囊的区域不受辐射。 低温冷却的辐射屏蔽装置可以包括至少一个由围绕待屏蔽区域延伸的超导材料构成的第一线圈。 低温冷却的辐射屏蔽装置还包括围绕要被屏蔽的区域延伸的第一内导管。 所述至少一个第一线圈设置在所述第一内导管内。 低温冷却的辐射屏蔽装置还包括围绕要被屏蔽的区域延伸的第一外导管。 第一内导管设置在第一外导管内。 低温冷却的辐射屏蔽装置还包括布置在第一内部管道内的第一冷冻剂液体和设置在第一外部管道内的与第一冷冻剂液体不同的第二冷冻剂液体。
    • 7. 发明授权
    • Spacecraft magnetic shield
    • 航天器磁盾
    • US08550406B2
    • 2013-10-08
    • US13134733
    • 2011-06-15
    • Robert T. Bigelow
    • Robert T. Bigelow
    • B64G1/52
    • B64G1/54
    • A spacecraft magnetic shield apparatus is disclosed. One embodiment has an armature attached at one end of a spacecraft and an electromagnet attached to the other end. A computer determines the position of the armature and electromagnet in relation to the spacecraft, and a power source powers the electromagnet. In operation, the positioning of the electromagnet is generally in line with incoming charged particles or ion radiation and powering of the electromagnet creates a magnetic field that deflects a percentage of the incoming charged particles or ion radiation from directly impacting the spacecraft.
    • 公开了一种航天器磁屏蔽装置。 一个实施例具有附接在航天器的一端的电枢和附接到另一端的电磁体。 计算机确定电枢和电磁体相对于航天器的位置,电源为电磁铁供电。 在操作中,电磁铁的定位通常与进入的带电粒子或离子辐射一致,并且电磁铁的供电产生磁场,其使进入的带电粒子或离子辐射的百分比偏转直接影响到航天器。
    • 9. 发明申请
    • Spacecraft magnetic shield
    • 航天器磁盾
    • US20120318928A1
    • 2012-12-20
    • US13134733
    • 2011-06-15
    • Robert T. Bigelow
    • Robert T. Bigelow
    • B64G1/54B64G1/52
    • B64G1/54
    • A spacecraft magnetic shield apparatus is disclosed. One embodiment has an armature attached at one end of a spacecraft and an electromagnet attached to the other end. A computer determines the position of the armature and electromagnet in relation to the spacecraft, and a power source powers the electromagnet. In operation, the positioning of the electromagnet is generally in line with incoming charged particles or ion radiation and powering of the electromagnet creates a magnetic field that deflects a percentage of the incoming charged particles or ion radiation from directly impacting the spacecraft.
    • 公开了一种航天器磁屏蔽装置。 一个实施例具有附接在航天器的一端的电枢和附接到另一端的电磁体。 计算机确定电枢和电磁体相对于航天器的位置,电源为电磁铁供电。 在操作中,电磁铁的定位通常与进入的带电粒子或离子辐射一致,并且电磁铁的供电产生磁场,其使进入的带电粒子或离子辐射的百分比偏转直接影响到航天器。