Wireless Sensor Having a Controllable Photosensitive Circuit
    12.
    发明申请
    Wireless Sensor Having a Controllable Photosensitive Circuit 审中-公开
    具有可控光敏电路的无线传感器

    公开(公告)号:US20150271896A1

    公开(公告)日:2015-09-24

    申请号:US14731551

    申请日:2015-06-05

    Inventor: James P. Steiner

    Abstract: A wireless battery-powered daylight sensor for measuring a total light intensity in a space is operable to transmit wireless signals using a variable transmission rate that is dependent upon the total light intensity in the space. The sensor comprises a photosensitive circuit, a wireless transmitter for transmitting the wireless signals, a controller coupled to the photosensitive circuit and the wireless transmitter, and a battery for powering the photosensitive circuit, the wireless transmitter, and the controller. The photosensitive circuit is operable to generate a light intensity control signal in response to the total light intensity in the space. The controller transmits the wireless signals in response to the light intensity control signal using the variable transmission rate that is dependent upon the total light intensity in the space. The variable transmission rate may be dependent upon an amount of change of the total light intensity in the space. In addition, the variable transmission rate may be further dependent upon a rate of change of the total light intensity in the space.

    Abstract translation: 用于测量空间中的总光强度的无线电池供电的日光传感器可操作以使用取决于空间中的总光强度的可变传输速率来发送无线信号。 传感器包括光敏电路,用于发送无线信号的无线发射器,耦合到感光电路和无线发射器的控制器,以及用于给感光电路,无线发射器和控制器供电的电池。 感光电路可操作以响应于空间中的总光强度而产生光强度控制信号。 控制器使用取决于空间中的总光强度的可变传输速率响应于光强度控制信号来发送无线信号。 可变传输速率可以取决于空间中总光强度的变化量。 此外,可变传输速率可以进一步取决于空间中的总光强度的变化率。

    METHOD AND SEMICONDUCTOR COMPONENT FOR IDENTIFYING AMBIENT LIGHT FLUCTUATIONS
    13.
    发明申请
    METHOD AND SEMICONDUCTOR COMPONENT FOR IDENTIFYING AMBIENT LIGHT FLUCTUATIONS 有权
    用于识别环境光波动的方法和半导体元件

    公开(公告)号:US20150211920A1

    公开(公告)日:2015-07-30

    申请号:US14415513

    申请日:2013-07-12

    Abstract: Fluctuation frequency (F) of an ambient light (S) is identified by: A) specifying first frequency (F1) and second frequency (F2), higher than said first frequency; B) measuring an optical power of the ambient light with a signal receiver (2) over a measuring time interval (Ti) during a total measuring time (T), which is shorter than or equal to a first cycle duration (P1) belonging to the first frequency; C) detecting the optical power of the ambient light in a time series over the total measuring time; D) determining at least one detection feature for identifying the fluctuation frequency by evaluating the time series; and E) identifying the fluctuation frequency of the ambient light as the first frequency or as the second frequency by means of the at least one detection feature.

    Abstract translation: 通过以下方式来识别环境光(S)的波动频率(F):A)指定高于所述第一频率的第一频率(F1)和第二频率(F2) B)在总测量时间(T)期间测量环境光的光功率与信号接收器(2)在测量时间间隔(Ti)之间,该总测量时间(T)小于或等于属于第一周期持续时间(P1)的总测量时间 第一个频率; C)在总测量时间内以时间序列检测环境光的光功率; D)通过评估时间序列来确定用于识别波动频率的至少一个检测特征; 以及E)通过所述至少一个检测特征来识别环境光的波动频率作为第一频率或第二频率。

    Optical sensor
    14.
    发明授权
    Optical sensor 有权
    光学传感器

    公开(公告)号:US09000355B2

    公开(公告)日:2015-04-07

    申请号:US13729716

    申请日:2012-12-28

    CPC classification number: G01J1/42 G01J1/16 G01V8/20

    Abstract: A monitor-light-emitting device and multiple light-emitting devices are mounted on a board, and a light-guiding member is disposed in front of these devices. Monitor light emitted from the monitor-light-emitting device is directly supplied to a light receiving device. Part of light emitted from the multiple light-emitting devices is incident on the light-guiding member and is used as reference light. The reference light is received by the light receiving device. Reflected detection light that has been reflected off a target object located in front of the optical sensor is transmitted through the light-guiding member and is received by the light receiving device. A condenser is disposed in front of the light receiving device and the reference light or the reflected detection light is efficiently supplied to the light receiving device.

    Abstract translation: 显示器发光装置和多个发光装置安装在板上,并且导光部件设置在这些装置的前面。 从监视发光装置发出的监视光被直接提供给光接收装置。 从多个发光装置发射的光的一部分入射在导光部件上并用作参考光。 参考光被光接收装置接收。 已经从位于光学传感器前面的目标物体反射的反射检测光透过导光部件并被光接收装置接收。 冷凝器设置在光接收装置的前面,并且将参考光或反射的检测光有效地提供给光接收装置。

    System and Method for Generation of Extreme Ultraviolet Light
    15.
    发明申请
    System and Method for Generation of Extreme Ultraviolet Light 有权
    用于生成极紫外光的系统和方法

    公开(公告)号:US20150076359A1

    公开(公告)日:2015-03-19

    申请号:US14335442

    申请日:2014-07-18

    Abstract: An EUV light source includes a rotatable, cylindrically-symmetric element having a surface coated with a plasma-forming target material, a drive laser source configured to generate one or more laser pulses sufficient to generate EUV light via formation of a plasma by excitation of the plasma-forming target material, a set of focusing optics configured to focus the one or more laser pulses onto the surface of the rotatable, cylindrically-symmetric element, a set of collection optics configured to receive EUV light emanated from the generated plasma and further configured to direct the illumination to an intermediate focal point, and a gas management system including a gas supply subsystem configured to supply plasma-forming target material to the surface of the rotatable, cylindrically-symmetric element.

    Abstract translation: EUV光源包括可旋转的圆柱对称元件,其具有涂覆有等离子体形成目标材料的表面;驱动激光源,被配置为产生足以通过激发等离子体产生EUV光的一个或多个激光脉冲 等离子体形成目标材料,一组聚焦光学元件,其被配置为将一个或多个激光脉冲聚焦到可旋转的圆柱形对称元件的表面上;一组收集光学器件,被配置为接收从所产生的等离子体发出的EUV光,并进一步配置 将照明引导到中间焦点,以及气体管理系统,其包括被配置为将等离子体形成目标材料供应到可旋转的圆柱对称元件的表面的气体供应子系统。

    Photoelectric Sensor
    16.
    发明申请
    Photoelectric Sensor 有权
    光电传感器

    公开(公告)号:US20140145065A1

    公开(公告)日:2014-05-29

    申请号:US14043007

    申请日:2013-10-01

    Abstract: Provided is a photoelectric sensor that enables intuitive sensitivity adjustment while ensuring a wide dynamic range, and ease grasp of an adjustment state. The photoelectric sensor includes: an adjusting device having a variable resistor embedded in at least one of a driving circuit and a light receiving circuit, and configured to change a resistance value of the variable resistor according to a rotational position of a rotatable adjusting element; an evaluator configured to generate a determination signal based on a comparison result between a light receiving signal superimposed on a reference level and a threshold value; a margin ration calculator configured to calculate a ratio of an amount of a light receiving signal in the light receiving signal superimposed on the reference level and a difference between the threshold value and the reference level as a margin ratio to be displayed.

    Abstract translation: 提供了一种光电传感器,其能够在确保宽动态范围的同时进行直观的灵敏度调节,并且简化对调整状态的掌握。 光电传感器包括:调节装置,其具有嵌入在驱动电路和光接收电路中的至少一个中的可变电阻器,并且被配置为根据可旋转调节元件的旋转位置改变可变电阻器的电阻值; 评估器,被配置为基于叠加在参考电平上的光接收信号与阈值之间的比较结果产生确定信号; 边缘比例计算器,被配置为计算叠加在基准电平上的光接收信号中的光接收信号的量与阈值与基准电平之间的差作为显示的余量比。

    Wireless battery-powered daylight sensor
    17.
    发明授权
    Wireless battery-powered daylight sensor 有权
    无线电池供电的日光传感器

    公开(公告)号:US08723447B2

    公开(公告)日:2014-05-13

    申请号:US13875434

    申请日:2013-05-02

    Inventor: James P. Steiner

    Abstract: A wireless battery-powered daylight sensor for measuring a total light intensity in a space is operable to transmit wireless signals using a variable transmission rate that is dependent upon the total light intensity in the space. The sensor comprises a photosensitive circuit, a wireless transmitter for transmitting the wireless signals, a controller coupled to the photosensitive circuit and the wireless transmitter, and a battery for powering the photosensitive circuit, the wireless transmitter, and the controller. The photosensitive circuit is operable to generate a light intensity control signal in response to the total light intensity in the space. The controller transmits the wireless signals in response to the light intensity control signal using the variable transmission rate that is dependent upon the total light intensity in the space. The variable transmission rate may be dependent upon an amount of change of the total light intensity in the space. In addition, the variable transmission rate may be further dependent upon a rate of change of the total light intensity in the space.

    Abstract translation: 用于测量空间中的总光强度的无线电池供电的日光传感器可操作以使用取决于空间中的总光强度的可变传输速率来发送无线信号。 传感器包括光敏电路,用于发送无线信号的无线发射器,耦合到感光电路和无线发射器的控制器,以及用于给感光电路,无线发射器和控制器供电的电池。 感光电路可操作以响应于空间中的总光强度而产生光强度控制信号。 控制器使用取决于空间中的总光强度的可变传输速率响应于光强度控制信号来发送无线信号。 可变传输速率可以取决于空间中总光强度的变化量。 此外,可变传输速率可以进一步取决于空间中的总光强度的变化率。

    Illumination system with automatic adaptation to daylight level
    18.
    发明申请
    Illumination system with automatic adaptation to daylight level 有权
    照明系统具有自动适应日光级别

    公开(公告)号:US20140035468A1

    公开(公告)日:2014-02-06

    申请号:US14048187

    申请日:2013-10-08

    Abstract: An illumination system and method is disclosed. In one example, the illumination system comprises a light source, a controller controlling the power output of the light source, and a light sensor wirelessly communicating with the controller. In a normal mode, the controller controls the light source such that the light level remains substantially constant. In a change mode, the controller controls the light source such that the light level is gradually changed with a predetermined change rate so as to decrease a deviation from a target level, The controller switches from the normal mode to the change mode on the basis of input signals received from the light sensor. The light sensor measures a light level, and decides whether or not to communicate a signal to the controller. The light sensor refrains from transmitting a signal when receiving the signal does not cause the controller to change its control behaviour.

    Abstract translation: 公开了照明系统和方法。 在一个示例中,照明系统包括光源,控制光源的功率输出的控制器和与控制器无线通信的光传感器。 在正常模式下,控制器控制光源,使得光级保持基本恒定。 在改变模式中,控制器控制光源,使得光水平以预定的变化速率逐渐变化,以便减小与目标水平的偏差。控制器基于以下方式从正常模式切换到改变模式 从光传感器接收的输入信号。 光传感器测量光电平,并决定是否将信号传送给控制器。 接收信号时,光传感器不发送信号,不会导致控制器改变其控制行为。

    SCANNING OPTICAL SYSTEM MANUFACTURING METHOD, BEAM INSPECTION METHOD, AND BEAM INSPECTION APPARATUS
    19.
    发明申请
    SCANNING OPTICAL SYSTEM MANUFACTURING METHOD, BEAM INSPECTION METHOD, AND BEAM INSPECTION APPARATUS 有权
    扫描光学系统制造方法,光束检测方法和光束检查装置

    公开(公告)号:US20130068927A1

    公开(公告)日:2013-03-21

    申请号:US13608997

    申请日:2012-09-10

    Applicant: Hiroki Yoshida

    Inventor: Hiroki Yoshida

    CPC classification number: H04N1/00018 G01J1/16 G01J1/44 G01J2001/444

    Abstract: A scanning optical system manufacturing method includes receiving a scanning beam, emitted from a scanning unit including an incident optical system and a deflecting device and passed through an image-forming optical system, in an area having a width in the main scanning direction narrower than a spot diameter of the scanning beam by a light-receiving unit configured to be capable of being displaced at each image height position in the main scanning direction, calculating, based on an output of the light-receiving unit, a peak light quantity at each image height position of the scanning beam, smoothing distribution data of the peak light quantity at each of the image height position acquired by the calculating, and determining, based on the data acquired by the smoothing, either nondefective/defective states of the scanning unit and the image-forming optical system or a nondefective/defective state of only the image-forming optical system.

    Abstract translation: 一种扫描光学系统制造方法,包括:从包括入射光学系统和偏转装置的扫描单元发射的扫描光束,其通过成像光学系统,所述扫描光束在主扫描方向上的宽度窄于 通过被配置为能够在主扫描方向上的每个图像高度位置处移位的光接收单元的扫描光束的光斑直径,基于光接收单元的输出计算每个图像上的峰值光量 扫描光束的高度位置,通过计算获取的每个图像高度位置处的峰值光量的平滑分布数据,并且基于通过平滑获取的数据确定扫描单元的无缺陷/缺陷状态,以及 成像光学系统或只有图像形成光学系统的非缺陷/缺陷状态。

    Instrument and method for measuring total luminous flux of luminous elements
    20.
    发明授权
    Instrument and method for measuring total luminous flux of luminous elements 有权
    用于测量发光元件总光通量的仪器和方法

    公开(公告)号:US08144316B2

    公开(公告)日:2012-03-27

    申请号:US12571506

    申请日:2009-10-01

    Abstract: The present invention provides an instrument and method for measuring total luminous flux of luminous elements, which forms an approximately uniform spatial intensity distribution by simultaneously lighting a plurality of luminous elements for measurement in an integrating sphere when comparing a total luminous flux standard lamp with the luminous elements to measure the total luminous flux of the luminous elements, thus not requiring spatial mismatch error correction.

    Abstract translation: 本发明提供了一种用于测量发光元件的总光通量的仪器和方法,当将总光通量标准灯与发光元件进行比较时,通过在积分球中同时点亮多个用于测量的发光元件形成近似均匀的空间强度分布 用于测量发光元件的总光通量的元件,因此不需要空间失配误差校正。

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