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    • 1. 发明授权
    • Off-chip time-delayed integration area array Fraunhofer line
discriminator
    • 片外延时积分区域阵列Fraunhofer线鉴别器
    • US4724326A
    • 1988-02-09
    • US871057
    • 1986-06-05
    • Sherman K. PoultneyHans G. SippachJoseph H. Oberheuser
    • Sherman K. PoultneyHans G. SippachJoseph H. Oberheuser
    • G01J1/04G01J3/44G01N21/64
    • G01N21/64G01J1/0492G01J3/4406G01N2021/178G01N2021/6426G01N2201/0214G01N2201/0616
    • An apparatus for determining the fluorescence of materials in a scene which includes optical means to collect radiation from the scene. Means are provided to divide the collected radiation into first and second beam paths. The first beam path traverses a first filter centered on a Fraunhofer line and having a passband which extends into the solar continuum on either side of the Fraunhofer line. The second beam path traverses the first filter and a second filter, also centered on the Fraunhofer line, with a passband on the order of half the bandwidth, at half-depth, of the Fraunhofer line. Means are provided to image the first and second beams onto first and second detector arrays, respectively. The image on the first detector array is registered with the image on the second detector array. Co-adding means are provided whereby successive detector pixels at successive time intervals corresponding to a single point on the ground are added and averaged. The time interval is a function of a constant clock rate and a V/H signal. A single detector is provided to detect the intensity of direct solar radiation outside the Fraunhofer line. A processor compares the value of intensity from the co-added point on the ground from the first and second detector arrays and the single detector to determine fluorescence at each point on the ground in the scene being viewed. In another form, where an optical laser illuminator is employed, the first beam path traverses a first filter which only allows the laser radiation to pass. The second beam path has a passband which passes the emission spectrum of a material excited by the laser radiation.
    • 一种用于确定场景中材料的荧光的装置,其包括从场景收集辐射的光学装置。 提供了将收集的辐射分成第一和第二光束路径的装置。 第一光束路径穿过以弗劳恩霍夫线为中心的第一滤波器,并具有延伸到Fraunhofer线两侧的太阳能连续体中的通带。 第二个光束路径穿过第一个滤波器,另一个滤波器也以Fraunhofer线为中心,通道带宽在Fraunhofer线的半深度带宽的一半左右。 提供了将第一和第二光束分别成像到第一和第二检测器阵列上的装置。 第一检测器阵列上的图像与第二检测器阵列上的图像一起登记。 提供了相加装置,其中对应于地面上的单个点的连续时间间隔的连续检测器像素被添加并平均。 时间间隔是恒定时钟频率和V / H信号的函数。 提供单个检测器来检测Fraunhofer线以外的直接太阳辐射的强度。 处理器将来自地面上的共添加点的强度值与第一和第二检测器阵列和单个检测器进行比较,以确定所观察场景中地面上每个点的荧光。 在使用光学激光照明器的另一形式中,第一光束路径穿过仅允许激光辐射通过的第一滤光器。 第二光束路径具有通过激光辐射激发的材料的发射光谱的通带。
    • 3. 发明授权
    • System and method for calibrating a spatial light modulator array using shearing interferometry
    • 使用剪切干涉法校准空间光调制器阵列的系统和方法
    • US06847461B1
    • 2005-01-25
    • US10765947
    • 2004-01-29
    • Azat M. LatypovSherman K. Poultney
    • Azat M. LatypovSherman K. Poultney
    • G01B9/02G03F7/20G01J1/20
    • G03F7/70516G03F7/70291
    • A system for calibrating a spatial light modulator array includes an illumination system and a spatial light modulator array that reflects or transmits light from the illumination system. A projection optical system images the spatial light modulator array onto an image plane. A shearing interferometer creates an interference pattern in the image plane. A controller controls modulation of elements of the spatial light modulator array. The shearing interferometer includes a diffraction grating, a prism, a folding mirror or any other arrangement for generating shear. The shearing interferometer can be a stretching shearing interferometer, a lateral shearing interferometer, or a rotational shearing interferometer. The shearing interferometer may include a diffraction grating with a pitch corresponding to a shear of the light by an integer number of elements. The projection optics resolves each element of the spatial light modulator array in the image plane. The controller can modulate alternate columns of elements of the spatial light modulator array.
    • 用于校准空间光调制器阵列的系统包括照明系统和反射或透射来自照明系统的光的空间光调制器阵列。 投影光学系统将空间光调制器阵列成像到平面上。 剪切干涉仪在图像平面中产生干涉图案。 控制器控制空间光调制器阵列的元件的调制。 剪切干涉仪包括衍射光栅,棱镜,折叠镜或用于产生剪切的任何其它布置。 剪切干涉仪可以是拉伸剪切干涉仪,横向剪切干涉仪或旋转剪切干涉仪。 剪切干涉仪可以包括衍射光栅,其具有对应于整个数量的光的剪切的间距。 投影光学器件可以分辨图像平面中空间光调制器阵列的每个元素。 控制器可以调制空间光调制器阵列的元件的交替列。
    • 4. 发明授权
    • Method for co-registering semiconductor wafers undergoing work in one or
more blind process modules
    • 在一个或多个盲目处理模块中共同对准正在进行工作的半导体晶片的方法
    • US5610102A
    • 1997-03-11
    • US152780
    • 1993-11-15
    • George J. GardopeePaul J. ClapisJoseph P. PrusakSherman K. Poultney
    • George J. GardopeePaul J. ClapisJoseph P. PrusakSherman K. Poultney
    • G01R31/26G01R31/28H01L21/677H01L21/68H01L21/302
    • H01L21/67796G06F2203/0382Y10S148/162Y10S414/136
    • A method for co-registering a semiconductor wafer (14) undergoing work in one or more blind process modules (10), (12) requires a means (16), (18) for consistently and repeatably registering the semiconductor wafer (14) to each process module (10), (12). Given this consistent and repeatable singular wafer registration means (16), (18), the location of the coordinate axes of each process module (10), (12) is determined with respect to the position of the semiconductor wafer (14) that is registered therein. The present invention method provides three approaches for determining the location of these axes: (1) an absolute location of the axes, (2) a relative location of the axes using one blind process module (10) to measure the position of a pattern etched into the semiconductor wafer (14) with another blind process module (12), and (3) a relative location of the axes using one blind process module (10) to measure surface or layer thickness characteristics in the semiconductor wafer (14) as modified by wafer processing. Regardless of which approach is followed, the determination of the location of the coordinate axes in each process module (10), (12) is an effective co-registration of the semiconductor wafer (14).
    • 一种用于共同对准在一个或多个盲工艺模块(10),(12)中进行工作的半导体晶片(14)的方法需要用于将半导体晶片(14)一致地和可重复地对准的装置(16),(18) 每个处理模块(10),(12)。 给定这种一致且可重复的奇异晶片登记装置(16),(18),每个处理模块(10),(12)的坐标轴的位置相对于半导体晶片(14)的位置来确定, 在其中注册。 本发明方法提供了用于确定这些轴的位置的三种方法:(1)轴的绝对位置,(2)使用一个盲处理模块(10)的轴的相对位置,以测量蚀刻的图案的位置 通过另一个盲目处理模块(12)进入半导体晶片(14),和(3)使用一个盲目处理模块(10)的轴的相对位置,以测量半导体晶片(14)中的表面或层厚度特性 通过晶片处理。 不管遵循哪种方法,在每个处理模块(10),(12)中确定坐标轴的位置是半导体晶片(14)的有效共同配准。
    • 5. 发明授权
    • Apparatus for measuring, thinning and flattening silicon structures
    • 用于测量,变薄和平坦化硅结构的设备
    • US5563709A
    • 1996-10-08
    • US304983
    • 1994-09-13
    • Sherman K. Poultney
    • Sherman K. Poultney
    • G01B11/06G01B11/30G01J9/00
    • G01B11/06G01B11/306G01J9/00
    • A system is provided for processing wafers, such as silicon and silicon-on-insulator wafers. The processing includes thinning and flattening of the wafers at a work station located directly beneath a down looking metrology apparatus for directing light onto the wafer and measuring the light wavefronts reflected from the wafer. The metrology apparatus for flattening includes the feature of a multiple lens array for arranging the reflected wavefronts into a plurality of light spots, and a charge-coupled-device light responsive device for receiving the light spots and determining the shape of the wavefronts. The system also provides a wafer transport system for moving one or more wafers into one or more work stations beneath the metrology apparatus in a vacuum chamber.
    • 提供了一种用于处理诸如硅和绝缘体上硅晶片之类的晶片的系统。 该处理包括在位于下方的测量装置正下方的工作站上使晶片变薄和变平,用于将光引导到晶片上并测量从晶片反射的光波前。 用于平坦化的测量装置包括用于将反射波前布置成多个光点的多透镜阵列的特征,以及用于接收光斑并确定波前形状的电荷耦合器件光响应装置。 该系统还提供了一个晶片传送系统,用于将一个或多个晶片移动到在真空室内的测量装置下方的一个或多个工作站中。
    • 6. 发明授权
    • Fraunhofer line discriminator
    • 弗劳恩霍夫线鉴别器
    • US4433245A
    • 1984-02-21
    • US342613
    • 1982-01-25
    • Sherman K. Poultney
    • Sherman K. Poultney
    • G01C11/02G01J3/26G01J3/44F21V9/16
    • G01J3/4406G01C11/02G01J3/26
    • An apparatus for the detection of fluorescence. An airborne optical system carried in an aircraft or spaceship scans a sunlit swath of terrain over a field of view defined by a selected one of the fringe rings of a Fabry-Perot etalon designed to pass a selected Fraunhofer line. A first series of detectors are disposed to sense light intensity over a predetermined arc within said selected ring. A second like series of detectors are disposed to sense light intensity just outside said selected ring. Electronic means are connected to said first and second plurality of detectors for determining the fluorescence reflected from the swath of terrain.
    • 荧光检测装置。 在飞机或宇宙飞船上携带的机载光学系统在被设计成通过所选择的弗劳恩霍夫线路的法布里 - 珀罗标准具的边缘环中选定的一个边界定义的视场上扫描太阳光照的地形。 设置第一系列检测器以感测在所述选定环内的预定电弧上的光强度。 设置第二类似的一系列检测器以感测恰好在所述选定环外的光强度。 电子装置连接到所述第一和第二多个检测器,用于确定从地形条带反射的荧光。
    • 7. 发明授权
    • System and method for calibrating a spatial light modulator array using shearing interferometry
    • 使用剪切干涉法校准空间光调制器阵列的系统和方法
    • US07158238B2
    • 2007-01-02
    • US11150344
    • 2005-06-13
    • Azat M. LatypovSherman K. Poultney
    • Azat M. LatypovSherman K. Poultney
    • G01B9/02G01J1/20
    • G03F7/70591G01J9/0215G02B26/0833G03F7/70291
    • A system for calibrating a spatial light modulator array includes an illumination system and a spatial light modulator array that reflects or transmits light from the illumination system. A projection optical system images the spatial light modulator array onto an image plane. A shearing interferometer creates an interference pattern in the image plane. A controller controls modulation of elements of the spatial light modulator array. The shearing interferometer includes a diffraction grating, a prism, a folding mirror or any other arrangement for generating shear. The shearing interferometer can be a stretching shearing interferometer, a lateral shearing interferometer, or a rotational shearing interferometer. The shearing interferometer may include a diffraction grating with a pitch corresponding to a shear of the light by an integer number of elements. The projection optics resolves each element of the spatial light modulator array in the image plane. The controller can modulate alternate columns of elements of the spatial light modulator array.
    • 用于校准空间光调制器阵列的系统包括照明系统和反射或透射来自照明系统的光的空间光调制器阵列。 投影光学系统将空间光调制器阵列成像到平面上。 剪切干涉仪在图像平面中产生干涉图案。 控制器控制空间光调制器阵列的元件的调制。 剪切干涉仪包括衍射光栅,棱镜,折叠镜或用于产生剪切的任何其它布置。 剪切干涉仪可以是拉伸剪切干涉仪,横向剪切干涉仪或旋转剪切干涉仪。 剪切干涉仪可以包括衍射光栅,其具有对应于整个数量的光的剪切的间距。 投影光学器件可以分辨图像平面中空间光调制器阵列的每个元素。 控制器可以调制空间光调制器阵列的元件的交替列。
    • 8. 发明授权
    • Tailored reflecting diffractor for EUV lithographic system aberration measurement
    • 用于EUV光刻系统像差测量的量身定制的反射衍射器
    • US06867846B2
    • 2005-03-15
    • US10753557
    • 2004-01-09
    • Sherman K. Poultney
    • Sherman K. Poultney
    • G01J9/02G02B5/18G03F7/20G03B27/52G03B27/42G03B27/54
    • G03F7/706G01J9/0215G02B5/1838
    • A wavefront measurement system includes a source of electromagnetic radiation. An imaging system directs the electromagnetic radiation at an object plane that it uniformly illuminates. A first grating is positioned in the object plane to condition the radiation entering the input of a projection optic. A projection optical system projects an image of the first grating onto the focal plane. A second grating is positioned at the focal plane that receives a diffracted image of the source to form a shearing interferometer. A CCD detector receives the image of the first grating through the projection optical system and the second grating that forms a fringe pattern if there are aberrations in the projection optical system. Phaseshift readout of fringe pattern can be accomplished by stepping the first grating in a lateral direction and reading each frame with the CCD detector. The first grating includes a plurality of reflecting lines each formed by a plurality of reflecting dots. The first grating has a pitch that is ½ times the magnification of the projection system times the pitch of the second grating for achromatic operation.
    • 波前测量系统包括电磁辐射源。 成像系统将电磁辐射引导到均匀照明的物平面。 第一光栅定位在物平面中,以调节进入投影光学器件输入的辐射。 投影光学系统将第一光栅的图像投影到焦平面上。 第二光栅位于焦平面处,接收源的衍射图像以形成剪切干涉仪。 如果在投影光学系统中存在像差,CCD检测器通过投影光学系统和第二光栅接收第一光栅的图像,其形成条纹图案。 条纹图案的移相读数可以通过沿横向方向步进第一光栅并用CCD检测器读取每个帧来实现。 第一光栅包括多个由多个反射点形成的反射线。 第一光栅具有投影系统的倍率的1/2倍的间距乘以第二光栅的间距用于消色差操作。