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    • 4. 发明申请
    • System Method and Apparatus for Selecting and Controlling Light Source Bandwidth
    • 用于选择和控制光源带宽的系统方法和装置
    • US20100149647A1
    • 2010-06-17
    • US12605306
    • 2009-10-23
    • Efrain FigueroaWilliam N. PartloJohn Martin Algots
    • Efrain FigueroaWilliam N. PartloJohn Martin Algots
    • G02B5/04
    • H01S3/08009G01J3/02G01J3/0237G01J3/027G01J3/06G01J3/14G01J3/18G01J2003/1208G02B5/1828H01S3/08004H01S3/1055H01S3/1067
    • A mechanism for bandwidth selection includes a dispersive optical element having a body including a reflective face of dispersion including an area of incidence extending in a longitudinal axis direction along the reflective face of the dispersive optical element. The body also includes a first end block, disposed at a first longitudinal end of the body and a second end block, disposed at a second longitudinal end of the body, the second longitudinal end being opposite the first longitudinal end. The bandwidth selection mechanism also includes a first actuator mounted on a second face of the dispersive optical element, the second face being opposite from the reflective face, the first actuator having a first end coupled to the first end block and a second end coupled to the second end block, the first actuator being operative to apply equal and opposite forces to the first end block and the second end block to bend the body along the longitudinal axis of the body and in a first direction normal to the reflective face of the dispersive optical element. The bandwidth selection mechanism also includes a second actuator mounted on a third face of the dispersive optical element, the third face being normal to the reflective face, the second actuator having a first end coupled to the first end block with a first flexture and a second end coupled to the second end block with a second flexture, the first actuator being operative to apply equal and opposite forces to the first end block and the second end block to bend the body along the longitudinal axis of the body, in a second direction perpendicular to the reflective face of the dispersive optical element, the second direction also being perpendicular to the first direction the second actuator including a pressurized fluid force application mechanism. A method of selecting bandwidth is also disclosed.
    • 用于带宽选择的机构包括具有主体的分散光学元件,该主体包括具有沿着沿着分散光学元件的反射面的纵轴方向延伸的入射区域的分散体的反射面。 主体还包括设置在主体的第一纵向端部处的第一端部块和设置在主体的第二纵向端部处的第二端部块,第二纵向端部与第一纵向端部相对。 所述带宽选择机构还包括安装在所述分散光学元件的第二面上的第一致动器,所述第二面与所述反射面相对,所述第一致动器具有联接到所述第一端块的第一端和联接到所述第一端块的第二端 所述第一致动器可操作以对所述第一端块和所述第二端块施加相等且相反的力,以沿着所述主体的纵向轴线并沿着垂直于所述分散光学的反射面的第一方向弯曲所述主体 元件。 所述带宽选择机构还包括安装在所述分散光学元件的第三面上的第二致动器,所述第三面垂直于所述反射面,所述第二致动器具有第一端部,所述第一端部具有与所述第一端部块连接的第一弯曲部, 所述第一致动器可操作以对所述第一端块和所述第二端块施加相等且相反的力,以沿着所述主体的纵向轴线在垂直于第二方向的第二方向上弯曲所述主体 到所述分散光学元件的反射面,所述第二方向也垂直于所述第一方向,所述第二致动器包括加压流体力施加机构。 还公开了一种选择带宽的方法。
    • 5. 发明申请
    • High repetition rate laser produced plasma EUV light source
    • US20080197297A1
    • 2008-08-21
    • US11471434
    • 2006-06-20
    • Robert P. AkinsRichard L. SandstromWilliam N. PartloIgor V. FomenkovThomas D. SteigerJohn Martin AlgotsNorbert BoweringRobert N. JacquesFrederick PalenschatJun Song
    • Robert P. AkinsRichard L. SandstromWilliam N. PartloIgor V. FomenkovThomas D. SteigerJohn Martin AlgotsNorbert BoweringRobert N. JacquesFrederick PalenschatJun Song
    • G01J3/10
    • B82Y10/00G03F7/70033H05G2/003H05G2/008
    • An EUV light source apparatus and method are disclosed, which may comprise a pulsed laser providing laser pulses at a selected pulse repetition rate focused at a desired target ignition site; a target formation system providing discrete targets at a selected interval coordinated with the laser pulse repetition rate; a target steering system intermediate the target formation system and the desired target ignition site; and a target tracking system providing information about the movement of target between the target formation system and the target steering system, enabling the target steering system to direct the target to the desired target ignition site. The target tracking system may provide information enabling the creation of a laser firing control signal, and may comprise a droplet detector comprising a collimated light source directed to intersect a point on a projected delivery path of the target, having a respective oppositely disposed light detector detecting the passage of the target through the respective point, or a detector comprising a linear array of a plurality of photo-sensitive elements aligned to a coordinate axis, the light from the light source intersecting a projected delivery path of the target, at least one of the which may comprise a plane-intercept detection device. The droplet detectors may comprise a plurality of droplet detectors each operating at a different light frequency, or a camera having a field of view and a two dimensional array of pixels imaging the field of view. The apparatus and method may comprise an electrostatic plasma containment apparatus providing an electric plasma confinement field at or near a target ignition site at the time of ignition, with the target tracking system providing a signal enabling control of the electrostatic plasma containment apparatus. The apparatus and method may comprise a vessel having and intermediate wall with a low pressure trap allowing passage of EUV light and maintaining a differential pressure across the low pressure trap. The apparatus and method may comprise a magnetic plasma confinement mechanism creating a magnetic field in the vicinity of the target ignition site to confine the plasma to the target ignition site, which may be pulsed and may be controlled using outputs from the target tracking system.
    • 8. 发明授权
    • High repetition rate laser produced plasma EUV light source
    • US07087914B2
    • 2006-08-08
    • US10803526
    • 2004-03-17
    • Robert P. AkinsRichard L. SandstromWilliam N. PartloIgor V. FomenkovJohn Martin AlgotsRobert N. JacquesFrederick PalenschatJun Song
    • Robert P. AkinsRichard L. SandstromWilliam N. PartloIgor V. FomenkovJohn Martin AlgotsRobert N. JacquesFrederick PalenschatJun Song
    • H01J35/20
    • B82Y10/00G03F7/70033H05G2/003H05G2/008
    • An EUV light source apparatus and method are disclosed, which may comprise a pulsed laser providing laser pulses at a selected pulse repetition rate focused at a desired target ignition site; a target formation system providing discrete targets at a selected interval coordinated with the laser pulse repetition rate; a target steering system intermediate the target formation system and the desired target ignition site; and a target tracking system providing information about the movement of target between the target formation system and the target steering system, enabling the target steering system to direct the target to the desired target ignition site. The target tracking system may provide information enabling the creation of a laser firing control signal, and may comprise a droplet detector comprising a collimated light source directed to intersect a point on a projected delivery path of the target, having a respective oppositely disposed light detector detecting the passage of the target through the respective point, or a detector comprising a linear array of a plurality of photo-sensitive elements aligned to a coordinate axis, the light from the light source intersecting a projected delivery path of the target, at least one of the which may comprise a plane-intercept detection device. The droplet detectors may comprise a plurality of droplet detectors each operating at a different light frequency, or a camera having a field of view and a two dimensional array of pixels imaging the field of view. The apparatus and method may comprise an electrostatic plasma containment apparatus providing an electric plasma confinement field at or near a target ignition site at the time of ignition, with the target tracking system providing a signal enabling control of the electrostatic plasma containment apparatus. The apparatus and method may comprise a vessel having and intermediate wall with a low pressure trap allowing passage of EUV light and maintaining a differential pressure across the low pressure trap. The apparatus and method may comprise a magnetic plasma confinement mechanism creating a magnetic field in the vicinity of the target ignition site to confine the plasma to the target ignition site, which may be pulsed and may be controlled using outputs from the target tracking system.