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    • 1. 发明授权
    • Monitoring system for determining progress in a fabrication activity
    • 用于确定制造活动进展的监测系统
    • US06569690B1
    • 2003-05-27
    • US09653364
    • 2000-08-31
    • Erik Cho HougeIsik C. KizilyalliJohn Martin McIntoshFred Anthony StevieCatherine Vartuli
    • Erik Cho HougeIsik C. KizilyalliJohn Martin McIntoshFred Anthony StevieCatherine Vartuli
    • H01L2100
    • B24B37/013B24B37/042B24B49/04
    • Method for fabricating a structure. According to an exemplary embodiment, a structure is made by forming a layer of removable material with a first surface spaced a part from a second surface. The first surface is formed along a first region from which the material is removable. The first surface is altered by removal of material from the layer. Removed material from the first surface is monitored to detect fluctuations in a variable of composition in the layer, and removal of material from the first surface is terminated when the composition of monitored material meets a predetermined criterion. In an alternate embodiment a variable characteristic is imparted to a layer of material as a function of layer thickness and an operation is performed on the layer resulting in removal of material. Samples of removed material are monitored for variation in the characteristic and the operation is modified when a variation conforms with a criterion.
    • 制造结构的方法。 根据示例性实施例,通过形成具有与第二表面间隔一部分的第一表面的可移除材料层来制造结构。 第一表面沿着第一区域形成,材料可从该第一区域移除。 通过从层中去除材料来改变第一表面。 监测来自第一表面的去除材料以检测该层中组成变量的波动,并且当所监测材料的组成符合预定标准时,从第一表面去除材料终止。 在替代实施例中,可变特性被赋予作为层厚度的函数的材料层,并且在层上进行操作,导致材料的去除。 监测去除材料的样品的特性变化,并且当变化符合标准时修改操作。
    • 5. 发明授权
    • X-ray system
    • X光系统
    • US06606371B2
    • 2003-08-12
    • US09745236
    • 2000-12-19
    • Michael AntonellErik Cho HougeJohn Martin McIntoshLarry E. PlewCatherine Vartuli
    • Michael AntonellErik Cho HougeJohn Martin McIntoshLarry E. PlewCatherine Vartuli
    • G21K106
    • G21K1/06G21K2201/062G21K2201/064G21K2201/067
    • A reflective lens with at least one curved surface formed of polycrystalline material. In one embodiment, a lens structure includes a substrate having a surface of predetermined curvature and a film formed along a surface of the substrate with multiple individual members each having at least one similar orientation relative to the portion of the substrate surface adjacent the member such that collectively the members provide predictable angles for diffraction of x-rays generated from a common source. A system is also provided for performing an operation with x-rays. In one embodiment, a system includes a source for generating the x-rays, a polycrystalline surface region having crystal spacing suitable for reflecting a plurality of x-rays at the same Bragg angle along the region, and transmitting the reflected x-rays to a reference position. An associated method includes providing x-rays to polycrystalline surface region having crystal spacings suitable for reflecting a plurality of x-rays at the same Bragg angle along the region, transmitting the reflected x-rays to a reference position and positioning a sample between the surface region and the reference position so that the x-rays are transmitted through the sample.
    • 具有由多晶材料形成的至少一个曲面的反射透镜。 在一个实施例中,透镜结构包括具有预定曲率的表面的基底和沿着基底的表面形成的膜,多个单独的构件各自具有相对于邻近构件的基底表面的部分的至少一个相似的取向,使得 共同地,这些构件为从公共源产生的x射线的衍射提供可预测的角度。 还提供了一种用于使用X射线进行操作的系统。 在一个实施例中,系统包括用于产生x射线的源,具有适合于沿着该区域以相同的布拉格角反射多个x射线的晶体间距的多晶表面区域,以及将反射的x射线透射到 参考位置。 相关联的方法包括向具有晶体间距的多晶表面区域提供x射线,该晶体间距适于沿着该区域以相同的布拉格角反射多个x射线,将反射的x射线透射到参考位置,并将样品定位在表面 区域和参考位置,使得x射线透射通过样品。
    • 10. 发明授权
    • Three dimensional reconstruction metrology
    • 三维重建计量学
    • US06714892B2
    • 2004-03-30
    • US09967119
    • 2001-09-28
    • Erik Cho HougeJohn Martin McIntoshLarry E. Plew
    • Erik Cho HougeJohn Martin McIntoshLarry E. Plew
    • G06F1500
    • G03F7/70491G03F7/70625Y10S977/852
    • A system and method of metrology (10) whereby a three dimensional shape profile is defined (16) for a surface feature on a substrate by applying (38) a transform function F(x) to an image intensity map I(x,y) obtained (40) by inspecting the substrate with a scanning electron microscope (12). The transform function F(x) is developed (34) by correlating the image intensity map of a first wafer (18) to a height vector (32) obtained by inspecting the first wafer with a more accurate metrology tool, for example a stylus nanoprofilometer (14). A simple ratio-based transform may be used to develop F(x). An asymmetric multiple parameter characterization of the three dimensional shape profile may be developed (74) by plotting critical space and width dimensions (SL, SR, W1, WR) from a vertical axis (C—C) as a function of height of the feature.
    • 一种计量系统和方法(10),其中通过将变换函数F(x)应用于图像强度图I(x,y)(38)来定义(16)用于衬底上的表面特征的三维形状轮廓, 通过用扫描电子显微镜(12)检查基板得到(40)。 通过将第一晶片(18)的图像强度图与通过用更精确的计量工具检查第一晶片获得的高度矢量(32)相关联来开发变换函数F(x),例如,触笔纳米玻璃体计 (14)。 可以使用简单的基于比例的变换来开发F(x)。 可以通过从垂直轴(C-C)绘制关键空间和宽度尺寸(SL,SR,W1,WR)作为特征的高度的函数来开发三维形状轮廓的不对称多参数表征(74)。