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    • 21. 发明申请
    • ROTATING-WAVE ELECTRON BEAM ACCELERATOR
    • 旋转波电子束加速器
    • WO9818300A2
    • 1998-04-30
    • PCT/US9718183
    • 1997-10-17
    • MICROWAVE TECHNOLOGIES INCVELAZCO JOSE E
    • VELAZCO JOSE E
    • H05H7/16H05H7/18H05H15/00H05H
    • H05H15/00H05H7/16H05H7/18
    • An electron beam accelerator utilizes a single microwave resonator holding a transverse-magnetic circularly polarized electromagnetic mode and a charged-particle beam immersed in an axial focusing magnetic field. The combined effect of the transverse-magnetic microwave fields and the axial magnetic field provide the electron beam with a helical shape and a rotational motion which allows the entire beam to be continually accelerated to high energies in a dc-like fashion. The use of the transverse-magnetic circularly polarized electromagnetic mode allows the resonant frequency to be independent of resonator length - allowing the resonator length to be selected to achieve desired particle acceleration. Using a transverse-magnetic rotating wave mode, TM110, allows the cavity frequency to be independent of cavity length and eliminates the need for bunched beams and short cavities while allowing the use of a spiraling moving beam. The rotating wave electron beam has a number of applications including, for example, a compact, pulsed high energy electron beam generator within tool casing.
    • 电子束加速器利用保持横向磁性圆极化电磁模式的单个微波谐振器和浸入轴向聚焦磁场中的带电粒子束。 横向磁微波场和轴向磁场的组合效应使电子束具有螺旋形状和旋转运动,这允许整个光束以类似dc的方式连续地加速到高能量。 使用横向磁性圆偏振电磁模式允许谐振频率与谐振器长度无关 - 允许谐振器长度被选择以实现期望的粒子加速度。 使用TM110的横向磁旋转模式可以使腔体频率与腔体长度无关,并且不需要束缚的梁和短腔,同时允许使用螺旋式移动梁。 旋转波电子束具有许多应用,例如包括工具外壳内的致密的脉冲高能电子束发生器。
    • 25. 发明申请
    • 중이온 가속관의 극저온 성능 시험장치
    • 用于重型加速管的低温性能测试装置
    • WO2015163607A1
    • 2015-10-29
    • PCT/KR2015/003523
    • 2015-04-08
    • 기초과학연구원
    • 김우강전동오김형진이민기김영권
    • G01M99/00H05H13/00H05H15/00
    • G01M99/00H05H13/00H05H15/00
    • 본 발명은 중이온 가속관의 극저온 성능 시험장치에 관한 것이다. 본 발명에 따른 중이온 가속관의 극저온 성능 시험장치는, 복수의 중이온 가속관(캐비티)을 가지며, 그 복수의 중이온 가속관(캐비티)에 액체 헬륨을 공급받아 중이온 가속관(캐비티)의 성능을 테스트하기 위한 저온 유지모듈(cryomodule); 및 복수의 중이온 가속관(캐비티)에서의 중이온 빔의 가속을 촉진하기 위해 복수의 중이온 가속관(캐비티)을 진공(vacuum) 상태로 만들어주는 진공 시스템을 포함하고, 저온 유지모듈은, 외부로부터 액체 헬륨을 공급받아 중이온 가속관으로서의 성능 테스트를 하기위한 복수의 중이온 가속관(캐비티); 복수의 중이온 가속관(캐비티)에 액체 헬륨(He)을 공급하는 헬륨 파이프 라인; 복수의 중이온 가속관(캐비티)에 테스트용 고주파를 인가해주는 고주파 커플러; 복수의 중이온 가속관(캐비티)의 각 몸체 내부를 연속으로 관통하여 설치되며, 중이온 빔의 통과를 위한 빔 파이프; 및 복수의 중이온 가속관(캐비티) 및 복수의 중이온 가속관(캐비티)에 설치된 배관 설비를 그 내부에 안치하여 외부의 환경으로부터 내부를 보호하는 베셀(vessel)을 포함한다. 이와 같은 본 발명에 의하면, 극저온 유지모듈을 이루는 가속관(캐비티)이 복수로 마련됨으로써, 한꺼번에 대량 성능검사가 가능하다.
    • 本发明涉及一种用于重离子加速管的低温性能测试装置。 根据本发明的用于重离子加速管的低温性能测试装置包括:在多个重离子加速管(空腔)中具有多个重离子加速管(空腔)和接收液氦(He)的低温模块 ),以测试重离子加速管(空腔)的性能; 以及真空系统,其在所述多个重离子加速管(空腔)中产生真空状态,以促进所述多个重离子加速管(空腔)中的重离子束的加速,其中所述低温模块包括:多个 用于从外部源接收液氦的重离子加速管(腔),以进行作为重离子加速管的性能试验; 用于向多个重离子加速管(空腔)供应液氦的氦管线; 用于向多个重离子加速管(空腔)施加测试频率的高频耦合器; 梁管,其安装成连续穿过多个重离子加速管(空腔)中的每一个的主体的内部,以允许重离子束通过; 以及容纳有多个重离子加速管(空腔)的容器和安装在容纳在其中的多个重离子加速管(空腔)中的管道设备,以便保护内部免受外部环境的影响。 根据如上构造的本发明,多个加速管(空腔)被布置成形成低温模块,从而能够一次执行大量的性能测试。
    • 26. 发明申请
    • SYSTEM AND METHOD FOR TESTING COMPONENTS, CIRCUITS AND COMPLEX SYSTEMS USING SYNCHRONIZED AND PULSED FLUXES CONSISTING OF LASER ACCELERATED PARTICLES
    • 使用包含激光加速颗粒的同步和脉冲光源测试组件,电路和复杂系统的系统和方法
    • WO2015030619A4
    • 2015-05-28
    • PCT/RO2014000022
    • 2014-08-26
    • INST NAT CERCETARE DEZVOLTARE
    • GANCIU-PETCU MIHAIPISO MARIUS-IOANSTOICAN OVIDIU-SORINMIHALCEA BOGDAN-VASILEDIPLAŞU, CONSTANTINMARGHITU OCTAVJULEA ANDREEA-MARIASURMEIAN AGAVNIGROZA ANDREEA-LILIANADABU, RĂZVAN-VICTOR-ANTONMORJAN ISON
    • G01R31/28G01R31/311G01R31/317H05H15/00
    • H05H7/00G01R31/311H05H2007/008
    • The patent application refers to a system and method to test components, circuits and complex equipment, used in order to determine the effect of an external particle flux and of radiation, with different energies, upon the characteristics and operating parameters and, if applicable, upon the program which controls the operation of components, circuits and complex equipment located on-board satellites, space ships or planes flying at high altitudes, that may be part of control systems for nuclear reactors or particle accelerators, intended for handling nuclear materials or waste, or used in areas exposed to nuclear accidents. We suggest a method to generate two or more pulsed fluxes of particles, that can eventually be associated with the emission of gamma or X ray radiation, characterized by specific space configurations, with an aim to use them to perform radiation hardening tests on components and complex systems (intended to operate in outer space or in very demanding environments such as nuclear plants or particle accelerators). According to the patent application, the system is made out of at least two separate laser- plasma particle accelerators (3, 4), placed in different locations with respect to the subsystem (1) under test, fixed on the holder system (2) which is able to rotate and translate, horizontally and vertically, so that the incident particle fluxes (5 and 6) can be applied under different optical angles and to different areas of the subsystem (1). Depending on their design, the laser-plasma accelerators (3 and 4) generate at least two pulsed fluxes of accelerated particles (5 and 6) that may contain identical or different types of particles, by applying incident laser pulses (9 and 10) delivered by two separate high power lasers (7 and 8). The laser beam (9) generated by the high power laser (7) is guided by a mirror (11) towards a parabolic mirror (13) that focuses the beam at the input of a laser-plasma accelerator (3). The laser beam (10) delivered by the high power laser (8), is guided by a mirror (12) towards a parabolic mirror (14), that focuses the beam at the input of another laser-plasma accelerator (4). According to the patent application, the method consists of a calibration procedure and the determination of the operating parameters of the subsystem (1) under test, i) in absence of particle fluxes (5 and 6), ii) in presence of particle fluxes (5 and 6), and iii) after applying the particle fluxes (5 and 6) to the subsystem (1).
    • 专利申请是指用于测试组件,电路和复杂设备的系统和方法,用于确定外部颗粒通量和不同能量的辐射对特性和操作参数的影响,如果适用,则适用于 控制位于机载卫星,太空船或高空飞行的飞机的组件,电路和复杂设备的操作程序,可能是用于处理核材料或废物的核反应堆或粒子加速器的控制系统的一部分, 或用于暴露于核事故的地区。 我们建议一种产生两个或多个脉冲通量的粒子的方法,其最终可能与伽马或X射线辐射的发射相关联,其特征在于特定的空间配置,目的是使用它们对组件和复合物进行辐射硬化测试 系统(旨在在外层空间或非常苛刻的环境中操作,如核电站或粒子加速器)。 根据该专利申请,该系统由至少两个单独的激光等离子体粒子加速器(3,4)制成,放置在相对于被测子系统(1)的不同位置,固定在保持器系统(2)上, 其能够水平和垂直地旋转和平移,使得入射的颗粒通量(5和6)可以在不同的光学角度和子系统(1)的不同区域上施加。 根据其设计,激光等离子体加速器(3和4)通过施加入射激光脉冲(9和10)产生至少两个脉冲通量的加速颗粒(5和6),其可以包含相同或不同类型的颗粒 通过两个单独的高功率激光器(7和8)。 由高功率激光器(7)产生的激光束(9)由反射镜(11)引导到将激光束聚焦在激光等离子体加速器(3)的输入处的抛物面反射镜(13)。 由高功率激光器(8)传送的激光束(10)被反射镜(12)引导到抛物面镜(14),其将光束聚焦在另一激光等离子体加速器(4)的输入处。 根据专利申请,该方法包括校准程序和测试中子系统(1)的操作参数的确定,i)没有颗粒通量(5和6),ii)在存在颗粒通量( 5和6),以及iii)将颗粒通量(5和6)施加到子系统(1)之后。
    • 28. 发明申请
    • KONTROLLE DER ENERGIEDICHTE IN EINEM TARGET EINES TEILCHENBESCHLEUNIGERS
    • 能量密度在粒子加速器的目标控制
    • WO2012028341A1
    • 2012-03-08
    • PCT/EP2011/057625
    • 2011-05-11
    • SIEMENS AKTIENGESELLSCHAFTHEID, Oliver
    • HEID, Oliver
    • H05H6/00H05H7/00H05H15/00
    • H05H6/00G21G1/10G21G4/02H05H3/06H05H7/00H05H15/00
    • Die Erfindung betrifft die Kontrolle der Energiedichte in einem Target, das von einem Teilchenstrahl eines Teilchenbeschleunigers getroffen wird mit dem Ziel, bei einem Verfahren zur Erzeugung eines Partikelflusses aus dem Target eine Homogenisierung der Energiedichte über das Targetvolumen zu erreichen. Da die kinetische Energie, auf die die Teilchen beschleunigt werden bzw. mit der sie die Beschleunigerstrecke verlassen und in das Target eindringen, üblicherweise fest steht, ist die Eindringtiefe in das Target und damit die Energiedeposition der Teilchen scharf in einer bestimmten Tiefe lokalisiert (Bragg-Peak). Die Folge davon ist, dass an einem bestimmten Ort im Target eine extrem hohe Leistungsdeposition auftritt. Zur Lösung dieses Problems wird erfindungsgemäß die Energie des Teilchenstrahls während der Bestrahlung variiert, so dass der Bragg-Peak und mit diesem der Ort der maximalen Energiedeposition im Target verschoben wird.
    • 本发明涉及在靶的能量密度,其是由粒子加速器的粒子束撞击到达的方法中的目标用于产生从在所述目标体积的能量密度的目标均匀化的颗粒流的控制。 由于动能其中颗粒被加速并与它们通常是固定的离开加速器轨道和穿透目标,在目标急剧的集肤深度,从而在局部有一定深度的粒子的能量沉积(布喇格 峰值)。 其结果是,非常高的功率沉积发生在靶上的特定位置。 为了解决这个问题,所述粒子束的能量根据照射期间根据本发明变化的,以使布拉格峰,并且被移动与目标最大能量沉积的这个位置。
    • 29. 发明申请
    • PLASMA GASIFICATION REACTOR
    • 等离子体气化反应器
    • WO2010093553A3
    • 2011-01-27
    • PCT/US2010023184
    • 2010-02-04
    • ALTER NRG CORPDIGHE SHYAM VDARR MARK FMARTORELL IVAN AVAN NIEROP PIETERGORODETSKY ALEKSANDRBOWER RICHARD DALE
    • DIGHE SHYAM VDARR MARK FMARTORELL IVAN AVAN NIEROP PIETERGORODETSKY ALEKSANDRBOWER RICHARD DALE
    • B01J19/08C10G15/12H05H15/00
    • B01J19/088B01J2219/0894
    • A plasma gasification reactor vessel having a top section with a conical wall extending up from a bottom section, containing a carbonaceous bed into which plasma is injected by plasma torches, to a roof of the vessel is arranged in ways that can contribute to characteristics of gas flow and solids residence time that are favorable for thoroughness of reactions and yield of useful reactions products. In some cases, such a conical wall is combined in arrangements with other features such as one or more feed ports arranged to give more uniform distribution including examples with a feed port that has a distributive feed mechanism. The roof of the vessel, in some examples, has vertical outlet ports that include intrusions into the interior volume of the reactor proximate the conical wall of the top section. The configurations of outlet ports with intrusions and the configurations of feed ports for more uniform distribution of feed material are also applicable to reactor vessels with other geometries.
    • 等离子体气化反应器容器具有顶部,该顶部具有从底部向上延伸的锥形壁,该底部包含通过等离子体炬喷射等离子体的碳质床到容器的顶部,其方式可以有助于气体的特性 流动和固体停留时间,有利于反应的完全性和有用的反应产物的产率。 在一些情况下,这样的锥形壁与其它特征(例如一个或多个进料口)组合,其布置成给出更均匀的分布,包括具有具有分配进料机构的进料口的实例。 在一些示例中,容器的顶部具有垂直的出口端口,其包括进入靠近顶部部分的锥形壁的反应器的内部容积内的入口。 具有入侵的出口端口的结构和用于进料均匀分布的进料口的结构也适用于具有其它几何形状的反应器容器。