Rotating gantry and particle beam therapy system
    113.
    发明授权
    Rotating gantry and particle beam therapy system 有权
    旋转龙门和粒子束治疗系统

    公开(公告)号:US09504854B2

    公开(公告)日:2016-11-29

    申请号:US14365946

    申请日:2012-03-29

    Inventor: Tadashi Katayose

    Abstract: A rotating gantry is characterized in that a shielding material for attenuating a leakage dose of a secondary radiation generated by collision of a charged particle beam with an irradiation subject is provided at a position that is situated at the side opposed to a particle beam irradiation apparatus with respect to the irradiation subject and through which a beam axis of the charged particle beam passes, and wherein the shielding material is disposed in such a way that when the irradiation subject does not exist in the rotating gantry, a beam axis portion thereof that intersects the beam axis of the charged particle beam, is attachable and detachable, or can move in a sliding manner and in the rotation-axle direction of the rotating gantry.

    Abstract translation: 旋转机架的特征在于,在位于与粒子束照射装置相对的一侧的位置处设置用于衰减由带电粒子束与照射对象的碰撞产生的二次辐射的泄漏剂量的屏蔽材料, 并且其中所述屏蔽材料以这样的方式设置,使得当所述照射对象不存在于所述旋转机架中时,所述屏蔽材料与所述照射对象相交的光束轴部分 带电粒子束的束轴是可附接和可拆卸的,或者可以以滑动方式和旋转机架的旋转轴方向移动。

    Neutron beam regulator and containment system
    116.
    发明授权
    Neutron beam regulator and containment system 有权
    中子束调节器和遏制系统

    公开(公告)号:US09269470B1

    公开(公告)日:2016-02-23

    申请号:US14525506

    申请日:2014-10-28

    Inventor: Michelle Corning

    CPC classification number: G21K1/093 H05H3/06

    Abstract: A neutron beam regulator has a magnetic coil configured around a neutron beam between the neutron beam source and a target. The magnetic coil may be used to contain the neutron beam and reduce the scattering of neutron. Neutrons have a magnetic moment and can be affected by exposure to magnetics fields. The magnetic coil may be used to modulate the neutron beam shape, intensity, velocity, direction and polarization. A magnetic coil may extend substantially the entire distance between a neutron beam source and a target. A magnetic coil may be a discrete magnetic coil having a separate power input and output from other magnetic coils and a plurality of discrete magnetic coils may be configured around the neutron beam. A magnetic coil may be a spiral magnetic coil and may be continuous, or extends substantially from the neutron beam source to the target.

    Abstract translation: 中子束调节器具有围绕中子束源和靶之间的中子束构成的磁线圈。 磁线圈可用于容纳中子束并减少中子的散射。 中子具有磁矩并且可能受到暴露于磁场的影响。 磁线圈可用于调制中子束的形状,强度,速度,方向和极化。 磁性线圈可以基本上延伸中子束源和靶之间的整个距离。 磁性线圈可以是具有来自其它磁性线圈的单独的功率输入和输出的分立的磁性线圈,并且可以围绕中子束来构造多个离散的磁性线圈。 电磁线圈可以是螺旋磁线圈,并且可以是连续的,或者基本上从中子束源延伸到靶。

    Charged-particle beam irradiation device
    117.
    发明授权
    Charged-particle beam irradiation device 有权
    带电粒子束照射装置

    公开(公告)号:US08866109B2

    公开(公告)日:2014-10-21

    申请号:US14068190

    申请日:2013-10-31

    Inventor: Kenzo Sasai

    Abstract: A charged-particle beam irradiation device, which irradiates an irradiation target with a charged-particle beam, includes a transport line that transports the charged-particle beam and a rotating gantry that is rotatable about a rotation axis. The transport line includes an inclination portion making the charged-particle beam travel so that the charged-particle beam is inclined to be separated from the rotation axis, and is formed to turn the charged-particle beam in a rotation direction of the rotation axis and to bend the charged-particle beam, which has turned in the rotation direction, toward the rotation axis. The rotating gantry is formed of a cylindrical portion that receives the irradiation target and supports the transport line. The inclination portion is disposed in the cylindrical portion of the rotating gantry. The charged-particle beam irradiation device further includes blocking members that block radiation emitted from the transport line disposed in the cylindrical portion.

    Abstract translation: 用带电粒子束照射被照射靶的带电粒子束照射装置包括输送带电粒子束的输送线和能够绕旋转轴旋转的旋转台​​架。 输送线包括使带电粒子束行进的倾斜部分,使得带电粒子束倾斜以与旋转轴线分离,并且形成为沿着旋转轴线的旋转方向转动带电粒子束,并且 使已经沿旋转方向转动的带电粒子束朝向旋转轴线弯曲。 旋转机架由接收照射目标并支撑输送线的圆筒部形成。 倾斜部分设置在旋转机架的圆筒部分。 带电粒子束照射装置还包括阻挡从设置在圆筒形部分中的输送线发出的辐射的阻挡构件。

    High-temperature superconductor magnet system
    118.
    发明授权
    High-temperature superconductor magnet system 有权
    高温超导磁体系统

    公开(公告)号:US08849364B2

    公开(公告)日:2014-09-30

    申请号:US13812915

    申请日:2010-07-30

    CPC classification number: H01F6/06 G21K1/093 H05G2/00 H05H7/04

    Abstract: The invention relates to a high-temperature superconductor (HTS) magnet system, preferably for an insertion device for generation of high-intensity synchrotron radiation, consisting of the coil body (6), on the mantle surface of which poles with windings that lie between them are disposed, wherein at least one high-temperature superconductor strip (23) is wound onto the coil body (6) in one direction, and adjacent winding packages or sections are electrically connected with one another in such a manner that the current flow runs in opposite directions, in each instance. The solution according to the invention has the advantage of a simplified winding process, whereby individual coil pairs can be replaced, if necessary, by means of the modular arrangement. The scheme can be applied to every possible configuration of an insertion device, and is therefore also suitable for use in so-called free electron lasers and other light sources based on particle accelerators. Furthermore, complicated cooling is eliminated, so that safety problems caused by lack of cooling cannot occur.

    Abstract translation: 本发明涉及一种高温超导体(HTS)磁体系统,优选地用于产生高强度同步加速器辐射的插入装置,该插入装置由线圈体(6)组成,其外壳表面上的绕组位于 它们被布置,其中至少一个高温超导体带(23)沿着一个方向缠绕到线圈体(6)上,并且相邻的卷绕组件或部分彼此电连接,使得电流流动 在相反的方向,在每一种情况下。 根据本发明的解决方案具有简化卷绕工艺的优点,如果需要,可以通过模块化布置来替换各个线圈对。 该方案可以应用于插入装置的每个可能的配置,因此也适用于所谓的自由电子激光器和基于粒子加速器的其它光源。 此外,消除了复杂的冷却,从而不会发生由于冷却不足而引起的安全问题。

    Charged particle beam extraction method and apparatus used in conjunction with a charged particle cancer therapy system
    119.
    发明授权
    Charged particle beam extraction method and apparatus used in conjunction with a charged particle cancer therapy system 有权
    带电粒子束提取方法和与带电粒子癌症治疗系统结合使用的装置

    公开(公告)号:US08841866B2

    公开(公告)日:2014-09-23

    申请号:US12994126

    申请日:2009-05-21

    Abstract: The invention comprises a charged particle beam extraction method and apparatus used in conjunction with charged particle beam radiation therapy of cancerous tumors. The system uses a radio-frequency cavity system to induce betatron oscillation of a charged particle stream. Sufficient amplitude modulation of the charged particle stream causes the charged particle stream to hit a material, such as a foil. The foil decreases the energy of the charged particle stream, which decreases a radius of curvature of the charged particle stream in the synchrotron sufficiently to allow a physical separation of the reduced energy charged particle stream from the original charged particle stream. The physically separated charged particle stream is then removed from the system by use of an applied field and deflector.

    Abstract translation: 本发明包括与癌肿瘤的带电粒子束放射治疗结合使用的带电粒子束提取方法和装置。 该系统使用射频腔系统来诱导带电粒子流的betatron振荡。 带电粒子流的足够的幅度调制导致带电粒子流撞击诸如箔的材料。 箔片降低了带电粒子流的能量,这减少了同步加速器中的带电粒子流的曲率半径,以允许从原始带电粒子流物理分离还原能带电粒子流。 然后通过使用施加的场和偏转器将物理分离的带电粒子流从系统中移除。

    Octopole device and method for spot size improvement
    120.
    发明授权
    Octopole device and method for spot size improvement 有权
    八极杆装置和点尺寸改进方法

    公开(公告)号:US08816270B2

    公开(公告)日:2014-08-26

    申请号:US13663692

    申请日:2012-10-30

    Abstract: A method of compensating mechanical, magnetic and/or electrostatic inaccuracies in a scanning charged particle beam device is described. The method includes an alignment procedure, wherein the following steps are conducted: compensating 4-fold astigmatism with an element having at least 8-pole compensation capability, wherein the aligning and compensating steps of the alignment procedure act on a charged particle beam with beam dimensions in two orthogonal directions each of at least 50 μm and coaxially aligned with at least the element having at least the 8-pole compensation capability.

    Abstract translation: 描述了在扫描带电粒子束装置中补偿机械,磁性和/或静电不准确性的方法。 该方法包括对准过程,其中进行以下步骤:用具有至少8极补偿能力的元件补偿4折像散,其中对准过程的对准和补偿步骤作用于具有束尺寸的带电粒子束 在至少50μm的两个正交方向上,并且至少与具有至少8极补偿能力的元件同轴对准。

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