会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 12. 发明申请
    • PLASMA FOCUS LIGHT SOURCE WITH TANDEM ELLIPSOIDAL MIRROR UNITS
    • 等离子体聚焦光源,带有TANDEM ELLIPSOIDAL MIRROR UNITS
    • WO01099143A1
    • 2001-12-27
    • PCT/US2001/018758
    • 2001-06-07
    • G03F7/20H05G2/00H05H1/06H01J35/20
    • H05G2/003B82Y10/00G03F7/70033G03F7/70166G03F7/70916H05G2/005H05H1/06
    • A high energy photon source. A pair of plasma pinch electrodes forming a plasma pinch source (46) are located in a vacuum chamber. The chamber contains a working gas which includes a noble buffer gas and an active gas chosen to provide a desired spectral line. A pulse power source provides electrical pulses at repetition rates of 1000 Hz or greater and at voltages high enough to create electrical discharges between the electrodes to produce very high temperature, high density plasma pinches in the working gas providing radiation at the spectral line of the source or active gas. A fourth generation unit is described which produces 20 mJ, 13.5 nm pulses into 2 pi steradians at repetition rates of 2000 Hz with xenon as the active gas. This unit includes a pulse power system (404) having a resonant charger charging a charging capacitor bank, and a magnetic compression circuit comprising a pulse transformer (406) for generating the high voltage electrical pulses at repetition rates of 2000 Hz or greater.
    • 高能光子源。 形成等离子体夹紧源(46)的一对等离子体夹持电极位于真空室中。 该室包含工作气体,其包括贵重缓冲气体和被选择用于提供所需光谱线的活性气体。 脉冲电源以1000Hz或更大的重复频率提供电脉冲,并且在足够高的电压下产生电极之间的放电,以在工作气体中产生非常高温度的高密度等离子体夹持,从而在源的光谱线处提供辐射 或活性气体。 描述了第四代单元,其以氙气作为活性气体以2000Hz的重复频率产生20mJ,13.5nm脉冲到2π立体声中。 该单元包括具有对充电电容器组充电的谐振充电器的脉冲电力系统(404)和包括脉冲变压器(406)的磁性压缩电路,该脉冲变压器用于以2000Hz或更大的重复频率产生高电压电脉冲。
    • 14. 发明申请
    • DISCHARGE PRODUCED PLASMA EUV LIGHT SOURCE
    • 排放生产等离子体光源
    • WO2004081503A2
    • 2004-09-23
    • PCT/US2004/006551
    • 2004-03-03
    • CYMER, INC.PARTLO, William, N.BLUMENSTOCK, Gerry, M.BOWERING, NorbertBRUZZONE, Kent, A.COBB, Dennis, W.DYER, Timothy, S.DUNLOP, JohnFOMENKOV, Igor, V.HYSHAM, James, ChristopherOLIVER, Roger, I.PALENSCHAT, Frederick, A.PAN, Xiaojiang, J.RETTIG, Curtis, L.SIMMONS, Rodney, S.WALKER, JohnWEBB, Kyle, R.HOFMANN, Thomas
    • PARTLO, William, N.BLUMENSTOCK, Gerry, M.BOWERING, NorbertBRUZZONE, Kent, A.COBB, Dennis, W.DYER, Timothy, S.DUNLOP, JohnFOMENKOV, Igor, V.HYSHAM, James, ChristopherOLIVER, Roger, I.PALENSCHAT, Frederick, A.PAN, Xiaojiang, J.RETTIG, Curtis, L.SIMMONS, Rodney, S.WALKER, JohnWEBB, Kyle, R.HOFMANN, Thomas
    • G01J
    • H01S3/005B82Y10/00G03F7/70033G03F7/70166G03F7/70175G03F7/70908G03F7/70916H01S3/225H05G2/003H05G2/005H05H1/06
    • An DPP EUV source is disclosed which may comprise a debris mitigation apparatus employing a metal halogen gas producing a metal halide from debris exiting the plasma. The EUV source may have a debris shield that may comprise a plurality of curvilinear shield members having inner and outer surfaces connected by light passages aligned to a focal point, which shield members may be alternated with open spaces between them and may have surfaces that form a circle in one axis of rotation and an ellipse in another. The electrodes may be supplied with a discharge pulse shaped to produce a modest current during the axial run out phase of the discharge and a peak occurring during the radial compression phase of the discharge. The light source may comprise a turbomolecular pump having an inlet connected to the generation chamber and operable to preferentially pump more of the source gas than the buffer gas from the chamber. The source may comprise a tuned electrically conductive electrode comprising: a differentially doped ceramic material doped in a first region to at least select electrical conductivity and in a second region at least to select thermal conductivity. The first region may be at or near the outer surface of the electrode structure and the ceramic material may be SiC or alumina and the dopant is BN or a metal oxide, including SiO or TiO 2 . The source may comprise a moveable electrode assembly mount operative to move the electrode assembly mount from a replacement position to an operating position, with the moveable mount on a bellows. The source may have a temperature control mechanism operatively connected to the collector and operative to regulate the temperature of the respective shell members to maintain a temperature related geometry optimizing the glancing angle of incidence reflections from the respective shell members, or a mechanical positioner to position the shell members. The shells may be biased with a voltage. The debris shield may be fabricated using off focus laser radiation. The anode may be cooled with a hollow interior defining two coolant passages or porous metal defining the passages. The debris shield may be formed of pluralities of large, intermediate and small fins attached either to a mounting ring or hub or to each other with interlocking tabs that provide uniform separation and strengthening and do not block any significant amount of light.
    • 公开了一种DPP EUV源,其可以包括使用从离开等离子体的碎片产生金属卤化物的金属卤素气体的碎片减缓装置。 EUV源可以具有碎片屏蔽,其可以包括多个曲线屏蔽构件,其具有通过与焦点对准的光通道连接的内表面和外表面,该屏蔽构件可以与它们之间的开放空间交替,并且可以具有形成 在一个旋转轴上的圆圈和另一个轴上的椭圆。 电极可以被供给放电脉冲,该放电脉冲在放电的轴向耗尽阶段期间产生适度的电流,并且在放电的径向压缩阶段期间发生峰值。 光源可以包括涡轮分子泵,其具有连接到发电室的入口,并且可操作以比来自该室的缓冲气体优先地泵送更多的源气体。 源可以包括调谐的导电电极,包括:掺杂在第一区域中以至少选择电导率的差分掺杂陶瓷材料,并且在第二区域中至少选择导热性。 第一区域可以在电极结构的外表面处或附近,并且陶瓷材料可以是SiC或氧化铝,并且掺杂剂是BN或包括SiO或TiO 2的金属氧化物。 源可以包括可移动电极组件安装件,其可操作以将电极组件安装座从更换位置移动到操作位置,可移动安装件在波纹管上。 源可以具有可操作地连接到收集器的温度控制机构,并且可操作地调节相应壳体部件的温度,以保持温度相关几何形状优化来自相应外壳部件的入射反射的扫掠角,或机械定位器 壳成员。 壳可能会被电压偏置。 可以使用离焦激光辐射来制造碎片屏蔽。 阳极可以用限定两个冷却剂通道或限定通道的多孔金属的中空内部冷却。 碎片屏蔽可以由连接到安装环或轮毂的多个大的,中间的和小的翅片形成,或者彼此具有提供均匀分离和强化并且不阻挡任何显着量的光的互锁突起。
    • 15. 发明申请
    • Z-PINCH PLASMA X-RAY SOURCE USING SURFACE DISCHARGE PREIONIZATION
    • Z-PINCH等离子体X射线源使用表面放电预处理
    • WO0178469A3
    • 2002-02-28
    • PCT/US0109964
    • 2001-03-28
    • PLEX LLC
    • MCGEOCH MALCOLM W
    • H05G2/00
    • H05G2/003H05G2/005H05H1/06
    • A Z-pinch plasma X-ray source includes a chamber having an insulating wall and defining a pinch region, a pinch anode and a pinch cathode positioned at opposite ends of the pinch region, a first conductor defining an edge in close proximity to or contacting an inside surface of the insulating wall and a second conductor disposed around an outside surface of the insulating wall. A surface discharge is produced on the inside surface of the insulating wall in response to application of a voltage to the first and second conductors. The surface discharge causes the gas to ionize and to form a plasma shell near the inside surface of the insulating wall. The pinch anode and the pinch cathode produce a current through the plasma shell in an axial direction and produce an azimuthal magnetic field in the pinch region in response to application of a high energy electric pulse to the pinch anode and the pinch cathode. The azimuthal magnetic field causes the plasma shell to collapse to the central axis and to generate X-rays.
    • Z夹式等离子体X射线源包括具有绝缘壁并限定夹持区域的腔室,夹紧阳极和位于夹持区域的相对端的夹紧阴极,第一导体限定靠近或接触的边缘 所述绝缘壁的内表面和设置在所述绝缘壁的外表面周围的第二导体。 响应于向第一和第二导体施加电压,在绝缘壁的内表面上产生表面放电。 表面放电使得气体离子化并在绝缘壁的内表面附近形成等离子体壳。 收缩阳极和夹紧阴极在轴向方向上产生通过等离子体壳体的电流,并且响应于向收缩阳极和夹点阴极施加高能电脉冲而在夹紧区域中产生方位磁场。 方位角磁场使等离子体壳塌陷到中心轴线并产生X射线。