TITLE: INTEGRATED PACKAGING FOR MULTI-COMPONENT SENSORS
    191.
    发明申请
    TITLE: INTEGRATED PACKAGING FOR MULTI-COMPONENT SENSORS 审中-公开
    标题:多分量传感器的集成包装

    公开(公告)号:US20160327433A1

    公开(公告)日:2016-11-10

    申请号:US15110981

    申请日:2014-09-08

    Abstract: Technologies are generally described for fabrication of a multi-component device, and employment thereof. The device may include a substrate, and a multitude of light sources and one or more photo detectors positioned on a surface of the substrate. The light sources may be configured to illuminate at least a portion of an object with light, and the photo detectors may be configured to detect reflected light from the object in response to the illumination. In some examples, the reflected light may be analyzed to determine a spectral profile of the object. The device may further include a structure applied to the substrate adjacent to the photo detectors, where the structure may be configured to reduce direct light transmission from the light sources to the photo detectors. The structure may include a deposited material, a protrusion, and/or a recession on the surface of the substrate, for example.

    Abstract translation: 技术通常被描述为用于制造多组件装置,以及其使用。 该装置可以包括基板和多个光源以及位于基板的表面上的一个或多个光电检测器。 光源可以被配置为用光照亮物体的至少一部分,并且光电检测器可以被配置为响应于照明来检测来自物体的反射光。 在一些示例中,可以分析反射光以确定对象的光谱轮廓。 该装置还可以包括施加到与光电检测器相邻的衬底的结构,其中该结构可被配置为减少从光源到光电检测器的直接光透射。 该结构可以包括例如在基底表面上的沉积材料,突起和/或凹陷。

    VITREOUS SILICA CRUCIBLE AND DISTORTION-MEASURING APPARATUS FOR THE SAME
    192.
    发明申请
    VITREOUS SILICA CRUCIBLE AND DISTORTION-MEASURING APPARATUS FOR THE SAME 有权
    相同的二氧化硅可疑和失真测量装置

    公开(公告)号:US20160313234A1

    公开(公告)日:2016-10-27

    申请号:US15103609

    申请日:2014-12-25

    Abstract: In an embodiment, a distortion-measuring apparatus for measuring a distortion distribution of an entire vitreous silica crucible in a non-destructive way includes: a light source 11; a first polarizer 12 and a first quarter-wave plate 13 disposed between the light source 11 and an outer surface of a vitreous silica crucible wall; a camera 14 disposed inside of a vitreous silica crucible 1; a camera control mechanism 15 configured to control a photographing direction of the camera 14; a second polarizer 16 and a second quarter-wave plate 17 disposed between the camera 14 and an inner surface of the vitreous silica crucible wall. An optical axis of the second quarter-wave plate 17 inclines 90 degrees with respect to the first quarter-wave plate 13.

    Abstract translation: 在一个实施例中,用于以非破坏性方式测量整个石英坩埚坩埚的失真分布的失真测量装置包括:光源11; 设置在光源11和石英玻璃坩埚壁的外表面之间的第一偏振器12和第一四分之一波长板13; 设置在石英玻璃坩埚1内的相机14; 被配置为控制相机14的拍摄方向的相机控制机构15; 设置在相机14与玻璃状石英玻璃坩埚壁的内表面之间的第二偏振器16和第二四分之一波片17。 第二四分之一波片17的光轴相对于第一四分之一波片13倾斜90度。

    Optical metrology with reduced sensitivity to grating anomalies
    193.
    发明授权
    Optical metrology with reduced sensitivity to grating anomalies 有权
    光学测量与光栅异常的灵敏度降低

    公开(公告)号:US09470639B1

    公开(公告)日:2016-10-18

    申请号:US15014987

    申请日:2016-02-03

    Abstract: Methods and systems for performing broadband spectroscopic metrology with reduced sensitivity to grating anomalies are presented herein. A reduction in sensitivity to grating anomalies is achieved by selecting a subset of available system parameter values for measurement analysis. The reduction in sensitivity to grating anomalies enables an optimization of any combination of precision, sensitivity, accuracy, system matching, and computational effort. These benefits are particularly evident in optical metrology systems having large ranges of available azimuth angle, angle of incidence, illumination wavelength, and illumination polarization. Predictions of grating anomalies are determined based on a measurement model that accurately represents the interaction between the measurement system and the periodic metrology target under measurement. A subset of available system parameter values is selected to reduce the impact of grating anomalies on measurement results. The selected subset of available system parameters is implemented on a configurable spectroscopic metrology system performing measurements.

    Abstract translation: 本文介绍了对光栅异常灵敏度降低的宽带光谱测量方法和系统。 通过选择用于测量分析的可用系统参数值的子集来实现对光栅异常的灵敏度的降低。 对光栅异常的灵敏度的降低使得能够优化精度,灵敏度,精度,系统匹配和计算工作的任何组合。 在具有大范围的可用方位角,入射角,照明波长和照明偏振的光学测量系统中,这些益处特别明显。 基于精确表示测量系统和测量周期测量目标之间的相互作用的测量模型,确定光栅异常预测。 选择可用系统参数值的一个子集来减少光栅异常对测量结果的影响。 所选择的可用系统参数的子集在执行测量的可配置光谱计量系统上实现。

    Optimizing Computational Efficiency By Multiple Truncation Of Spatial Harmonics
    194.
    发明申请
    Optimizing Computational Efficiency By Multiple Truncation Of Spatial Harmonics 审中-公开
    通过多重截断空间谐波优化计算效率

    公开(公告)号:US20160246285A1

    公开(公告)日:2016-08-25

    申请号:US15048981

    申请日:2016-02-19

    Inventor: Andrei Veldman

    Abstract: Methods and systems for solving measurement models of complex device structures with reduced computational effort and memory requirements are presented. The computational efficiency of electromagnetic simulation algorithms based on truncated spatial harmonic series is improved for periodic targets that exhibit a fundamental spatial period and one or more approximate periods that are integer fractions of the fundamental spatial period. Spatial harmonics are classified according to each distinct period of the target exhibiting multiple periodicity. A distinct truncation order is selected for each group of spatial harmonics. This approach produces optimal, sparse truncation order sampling patterns, and ensures that only harmonics with significant contributions to the approximation of the target are selected for computation. Metrology systems employing these techniques are configured to measure process parameters and structural and material characteristics associated with different semiconductor fabrication processes.

    Abstract translation: 提出了减少计算量和存储要求的复杂器件结构测量模型的方法和系统。 基于截断空间谐波序列的电磁仿真算法的计算效率对于表现出基本空间周期和基本空间周期的整数分数的一个或多个近似周期的周期性目标进行了改进。 空间谐波根据显示多个周期的目标的每个不同周期进行分类。 为每组空间谐波选择明显的截断顺序。 这种方法产生最优的稀疏截断序列采样模式,并确保仅选择具有对目标近似值的重要贡献的谐波进行计算。 采用这些技术的计量系统被配置为测量与不同半导体制造工艺相关联的工艺参数和结构和材料特性。

    SIMPLE SUGAR CONCENTRATION SENSOR AND METHOD

    公开(公告)号:US20160213292A1

    公开(公告)日:2016-07-28

    申请号:US15093547

    申请日:2016-04-07

    Inventor: Valentin Korman

    Abstract: A glucose sensor comprising an optical energy source having an emitter with an emission pattern; a first polarizer intersecting the emission pattern; a second polarizer spaced a distance from the first polarizer and intersecting the emission pattern, the second polarizer rotated relative to the first polarizer by a first rotational amount Θ; a first optical detector intersecting the emission pattern; a second optical detector positioned proximal to the second polarizer, the first polarizer and the second polarizer being positioned between the optical energy source and the second optical detector, the second optical detector intersecting the emission pattern; a compensating circuit coupled to the second optical detector; and a subtractor circuit coupled to the compensating circuit and the first optical detector.

    Device for Compensating for the Drift of a Phase Shift of a Device for Modulating the Polarization State of a Light Beam
    198.
    发明申请
    Device for Compensating for the Drift of a Phase Shift of a Device for Modulating the Polarization State of a Light Beam 审中-公开
    用于补偿用于调制光束的极化状态的装置的相移的装置

    公开(公告)号:US20160139033A1

    公开(公告)日:2016-05-19

    申请号:US14899966

    申请日:2014-06-20

    Abstract: A device for analyzing and/or generating a polarization state of a measurement point of a target object includes a polarizer suitable for selecting, in an incident light wave, a light beam which is linearly polarized in a predefined direction; a first birefringent element suitable for having the light beam pass therethrough; a second birefringent element identical to the first element and suitable for having the light beam pass therethrough, the light beam then being directly or indirectly directed toward the object in order to be reflected in the form of a reflected beam. The device includes an optical assembly having one or more optical elements located in an optical path between the first element and the second element, and the optical assembly includes an odd number of mirrors, or, an odd number of half-wave plates, or, an odd number of a mix of mirrors and half-wave plates.

    Abstract translation: 用于分析和/或产生目标对象的测量点的偏振状态的装置包括适于在入射光波中选择在预定方向上线性偏振的光束的偏振器; 适于使光束通过的第一双折射元件; 与第一元件相同并且适于使光束通过的第二双折射元件,光束然后直接或间接地指向物体,以便以反射光束的形式被反射。 该装置包括具有位于第一元件和第二元件之间的光路中的一个或多个光学元件的光学组件,并且光学组件包括奇数个反射镜,或奇数个半波片, 奇数混合的镜子和半波片。

    IN-SITU ON-LINE DETECTION DEVICE AND METHOD FOR LONG-DISTANCE METALLURGICAL LIQUID METAL COMPONENT
    199.
    发明申请
    IN-SITU ON-LINE DETECTION DEVICE AND METHOD FOR LONG-DISTANCE METALLURGICAL LIQUID METAL COMPONENT 有权
    用于长距离冶金液体金属部件的现场在线检测装置和方法

    公开(公告)号:US20160131581A1

    公开(公告)日:2016-05-12

    申请号:US14898600

    申请日:2013-11-28

    Abstract: An in-situ on-line detection device and detection method for a long-distance metallurgical liquid metal component. The detection device comprises a front-end high-temperature resistant probe (18), a middle-end optical sensing device (19) and a back-end control platform (24), wherein the head of the front-end high-temperature resistant probe (18) is placed in a liquid metal (22), the tail thereof is coaxially connected to the middle-end optical sensing device (19), and an optical window (15) is arranged in the connection position; and the middle-end optical sensing device (19) is connected to the hack-end control platform (24) through a signal line (25). The detection device and detection method can provide a timely and valid message for quality control and a melting end, so that the detection time is greatly shortened, the detection distance can he adjusted extensively, the measurement result is accurate, and it can he achieved to measure components that are difficult to measure such as C, S, P, etc.

    Abstract translation: 一种用于长距离冶金液体金属部件的原位在线检测装置和检测方法。 检测装置包括前端耐高温探头(18),中端光学传感装置(19)和后端控制平台(24),其中前端耐高温头 探针(18)被放置在液态金属(22)中,其尾部同轴地连接到中端光学感测装置(19),并且光学窗口(15)被布置在连接位置; 并且中端光学感测装置(19)通过信号线(25)连接到黑客端控制平台(24)。 检测装置和检测方法可以为质量控制和熔化结束提供及时有效的信息,使检测时间大大缩短,检测距离可以广泛调整,测量结果准确,可以达到 测量难以测量的组件,如C,S,P等

    Defect inspection device and defect inspection method
    200.
    发明授权
    Defect inspection device and defect inspection method 有权
    缺陷检查装置和缺陷检查方法

    公开(公告)号:US09329136B2

    公开(公告)日:2016-05-03

    申请号:US14396908

    申请日:2013-04-24

    Abstract: To detect an infinitesimal defect, highly precisely measure the dimensions of the detect, a detect inspection device is configured to comprise: a irradiation unit which irradiate light in a linear region on a surface of a sample; a detection unit which detect light from the linear region; and a signal processing unit which processes a signal obtained by detecting light and detecting a defect. The detection unit includes: an optical assembly which diffuses the light from the sample in one direction and forms an image in a direction orthogonal to the one direction; and a detection assembly having an array sensor in which detection pixels are positioned two-dimensionally, which detects the light diffused in the one direction and imaged in the direction orthogonal to the one direction, adds output signals of each of the detection pixels aligned in the direction in which the light is diffused, and outputs same.

    Abstract translation: 为了检测无限小的缺陷,高度精确地测量检测器的尺寸,检测检查装置被配置为包括:照射单元,其照射样品表面上的线性区域中的光; 检测单元,其检测来自所述线性区域的光; 以及处理通过检测光而获得的信号并检测缺陷的信号处理单元。 检测单元包括:光学组件,其在一个方向上扩散来自样品的光并在与该一个方向正交的方向上形成图像; 以及检测组件,其具有阵列传感器,其中检测像素被二维地定位,其检测沿与所述一个方向正交的方向成像的沿所述一个方向漫射的光,并将每个所述检测像素的输出信号相加, 光漫射的方向,并输出。

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