Universal ultraviolet/ IR/ visible light emitting module
    171.
    发明申请
    Universal ultraviolet/ IR/ visible light emitting module 审中-公开
    通用紫外/红外/可见光发光模块

    公开(公告)号:US20090065715A1

    公开(公告)日:2009-03-12

    申请号:US12229104

    申请日:2008-08-20

    Applicant: Lee Wainright

    Inventor: Lee Wainright

    CPC classification number: G01J1/08 G01J1/32 G01J3/10 G01J3/108 G01N21/8806

    Abstract: A miniature, battery operated plastic module designed to project at least three different frequencies of energy from light emitting diodes is described. A first frequency is between 390 nm-420 nm just above harmful Ultraviolet Frequencies, a second frequency is between 850 nm-1200 nm in the infrared band and a third frequency is for a visible white light. The light emitting module has a base unit, the unit including a pulsed LED that emits an ultraviolet wavelength of light adapted to focus on a surface having phosphorescence means on the surface to activate the phosphorescence. The light emitting module may also have a base unit which includes a pulsed LED that emits an infrared wavelength of light adapted to penetrate a particular atmosphere. The module may also provide optional power for external items in addition to the three frequencies.

    Abstract translation: 描述了一种设计用于从发光二极管投射至少三种不同频率的能量的微型电池操作的塑料模块。 第一频率在有害的紫外线频率之上的390nm-420nm之间,第二频率在红外频带中在850nm-1200nm之间,第三频率是可见的白光。 发光模块具有基本单元,该单元包括发射适于聚焦在表面上的具有磷光装置的表面的光的紫外线波长的脉冲LED,以激活磷光。 发光模块还可以具有基本单元,其包括发射适于穿透特定气氛的光的红外波长的脉冲LED。 除了三个频率之外,该模块还可以为外部项目提供可选功率。

    Measurement method using solar simulator
    172.
    发明授权
    Measurement method using solar simulator 失效
    使用太阳能模拟器的测量方法

    公开(公告)号:US07411408B2

    公开(公告)日:2008-08-12

    申请号:US11454123

    申请日:2006-06-16

    CPC classification number: G01J1/08 G01J1/32 H02S50/10

    Abstract: This invention provides a solar simulator measurement method capable of high-accuracy measurements with fast-response photovoltaic devices as well as with slow-response photovoltaic devices, and a solar simulator for implementing the method. A flash having a pulse waveform with a flattened peak is generated from a xenon lamp. The flash is sensed by an irradiance detector, its irradiance measured, and the irradiance of the light source is adjusted to fall within a prescribed narrow range based on the detected irradiance value. Then, the flash with irradiance within the prescribed range irradiates photovoltaic devices under measurement, and the current and the voltage output by the photovoltaic devices are measured at multiple points while a load of the photovoltaic devices is controlled. This process is repeated with multiple flashes to obtain an I-V curve for the photovoltaic devices.

    Abstract translation: 本发明提供了能够利用快速响应光伏器件以及缓慢响应的光伏器件进行高精度测量的太阳模拟器测量方法,以及用于实现该方法的太阳能模拟器。 从氙灯产生具有扁平峰值的脉冲波形的闪光灯。 通过辐照度检测器感测闪光,测量其辐照度,并且基于检测到的辐照度值将光源的辐照度调整到规定的窄范围内。 然后,在规定范围内具有辐照度的闪光照射测量的光电器件,并且在多个点测量光伏器件的电流和电压,同时控制光伏器件的负载。 用多次闪光重复该过程以获得光伏器件的I-V曲线。

    Photosensor testing device with built-in light source and tester provided with said device
    173.
    发明申请
    Photosensor testing device with built-in light source and tester provided with said device 有权
    具有内置光源和测试仪的光电传感器测试设备与所述设备一起提供

    公开(公告)号:US20080129304A1

    公开(公告)日:2008-06-05

    申请号:US11987439

    申请日:2007-11-30

    Applicant: Joy Ou Albert Fan

    Inventor: Joy Ou Albert Fan

    CPC classification number: G01J1/08 G01J1/02 G01J1/0271

    Abstract: The present invention provides a photosensor testing device with a built-in light source and a tester provided with said device, which has a base and an upper cover disposed above the base, characterized in that the upper cover is equipped with at least one light emitting diode (LED) assembly used as a light source for a photosensor under test to undergo testing operation. Therefore, the components such as high intensity discharge lamps and optical processing devices are unnecessary any more, reducing the bulk volume of the testing device and its related cost. Besides, the testing process would be speeded up and the testing accuracy could be improved, as well as the time consumed in replacing the light source would be saved.

    Abstract translation: 本发明提供了一种具有内置光源的光电传感器测试装置和设置有所述装置的测试仪,其具有设置在基座上方的基座和上盖,其特征在于,所述上盖配备有至少一种发光 二极管(LED)组件用作被测光电传感器的光源进行测试操作。 因此,不需要诸如高强度放电灯和光学处理装置的部件,减少了测试装置的体积和相关成本。 此外,测试过程将加快,可以提高测试精度,节省更换光源的时间。

    Method for stabilizing the temperature dependency of light emission of an LED
    175.
    发明授权
    Method for stabilizing the temperature dependency of light emission of an LED 有权
    稳定LED发光温度依赖性的方法

    公开(公告)号:US07339173B2

    公开(公告)日:2008-03-04

    申请号:US11128119

    申请日:2005-05-10

    Abstract: Method for correction of the temperature dependency of a light quantity L emitted by a light emitting diode (LED), being operated in pulsed mode with substantially constant pulse duration tP, and measured in a light detector, using a predetermined parameter X, correlated to the temperature T of the LED in a predetermined ratio, whereby a correction factor K is determined from the parameter X, preferably using a calibration table, especially preferred using an analytic predetermined function, whereby the measured emitted light quantity L is corrected for the temperature contingent fluctuations of the emitted light quantity, whereby the parameter X is determined from at least two output signals of the LED, which are related to each other in a predetermined manner.

    Abstract translation: 用于校正由发光二极管(LED)发射的光量L的温度依赖性的方法,其以脉冲模式以基本上恒定的脉冲持续时间t P P运行,并且在光检测器中测量,使用 预定参数X,以预定比例与LED的温度T相关,由此,优选使用校准表,从参数X确定校正因子K,特别优选使用分析预定功能,由此测量的发射光量 根据发射光量的温度偶然波动来校正L,由此根据预定方式彼此相关的LED的至少两个输出信号来确定参数X.

    Illuminator that generates linearly polarized light for microdisplay based light engine
    176.
    发明授权
    Illuminator that generates linearly polarized light for microdisplay based light engine 失效
    用于基于微型显示器的光引擎产生线性偏振光的照明器

    公开(公告)号:US07327408B1

    公开(公告)日:2008-02-05

    申请号:US10989019

    申请日:2004-11-15

    Applicant: Arthur Berman

    Inventor: Arthur Berman

    Abstract: A hollow sphere with a scattering (e.g., white diffusive) interior surface directs light input from at least one input light source to an exit. In one embodiment, an internal hot mirror and phosphor are positioned to intercept the input light on which visible light is reflected and ultraviolet light is directed to the phosphor for conversion to visible light. The exit has a reflective polarizer that passes light of a selected polarization to an output. Light of other polarization(s) is reflected back into the sphere where it becomes unpolarized because of reflections and may eventually be returned to the exit at the selected polarization.

    Abstract translation: 具有散射(例如,白色扩散)内表面的中空球将从至少一个输入光源的光输入引导到出口。 在一个实施例中,内部热镜和磷光体被定位成拦截可见光被反射的输入光并且紫外光被引导到磷光体以转换成可见光。 出口具有将所选偏振光的光传递到输出的反射偏振器。 其他极化的光被反射回球体,其中由于反射而变得非偏振,并且可能最终以选定的极化返回到出射口。

    Object Digitizing Device Using Integrating Sphere Wave Source
    177.
    发明申请
    Object Digitizing Device Using Integrating Sphere Wave Source 失效
    使用积分球波源的对象数字化设备

    公开(公告)号:US20080002385A1

    公开(公告)日:2008-01-03

    申请号:US11575405

    申请日:2005-08-17

    Abstract: An object image digitizing device using an integrating sphere wave source is provided which makes the degree of uniformity of the wave irradiation distribution over the output port surface of the integrating sphere for illumination of the transmissive object as precise as the degree of digitization requires and stabilizes in time the degree of uniformity The object image digitizing device comprises (a) an integrating sphere wave source in which the object illumination is spatially uniform and temporally stable, (b) a transmissive object mounting assembly placed near an output port of waves of the integrating sphere, and (c) a two-dimensional imaging device for imaging a transmissive object placed on the said mounting assembly and converting the object image into digital form, wherein the spherical shape of the integrating sphere is maintained in order to keep the uniform distribution of wave at the output port, and not to disturb the spherical distribution of the diffusive non-directive reflection layer of the internal surface in any manner, except at the output port of the said integrating sphere for illumination of the object and at the input port of the said integrating sphere for taking the original light or waves from outside of the sphere.

    Abstract translation: 提供了一种使用积分球形波源的物体图像数字化装置,其使得在数字化程度要求并稳定的同时精确地使得透射对象的照明的积分球的输出端口表面上的波长照射分布的均匀度 时间均匀度目标图像数字化装置包括(a)积分球波源,其中物体照明在空间上均匀和时间稳定,(b)透射物体安装组件放置在积分球的波浪的输出端附近 ,和(c)二维成像装置,用于对放置在所述安装组件上的透射物体进行成像,并将目标图像转换为数字形式,其中保持积分球的球形以保持波的均匀分布 在输出端口,而不是扰乱扩散非直接的球面分布 除了用于照射物体的所述积分球的输出端口和用于从球体外部取出原始光或波的所述积分球的输入端口处以任何方式的内表面的反射层。

    System and Methods for Improving Signal/Noise Ratio for Signal Detectors
    178.
    发明申请
    System and Methods for Improving Signal/Noise Ratio for Signal Detectors 有权
    用于提高信号检测器信号/噪声比的系统和方法

    公开(公告)号:US20070295899A1

    公开(公告)日:2007-12-27

    申请号:US11758381

    申请日:2007-06-05

    Abstract: A method and system for characterizing and quantifying various error and calibration components of signals associated with photo-detectors. By varying the detector operational parameters such as input light intensity and integration times, measured signals can be analyzed to separate out and quantify various components of the measured signals. The various components thus determined may be categorized according to their dependencies on the operational parameters. Such component characterization allows better understanding of the detector system and ways in which such system can be improved so as to yield an improved measurement result for which the detector is being utilized.

    Abstract translation: 用于表征和量化与光电检测器相关联的信号的各种误差和校准分量的方法和系统。 通过改变检测器的操作参数,例如输入光强度和积分时间,可以分析测量信号以分离和量化测量信号的各种分量。 这样确定的各种组件可以根据其对操作参数的依赖性进行分类。 这种组件表征允许更好地理解检测器系统以及可以改进这种系统的方式,以便产生检测器被利用的改进的测量结果。

    Inflatable spherical integrating source for spaceflight applications having a reflective interior surface
    179.
    发明授权
    Inflatable spherical integrating source for spaceflight applications having a reflective interior surface 有权
    用于具有反射内表面的航天应用的充气球形积分源

    公开(公告)号:US07256390B1

    公开(公告)日:2007-08-14

    申请号:US11282511

    申请日:2005-11-18

    Abstract: A system for calibrating a sensor in a vehicle, such as a space capsule or other space borne apparatus, uses an expandable integrating sphere. A sensor in the vehicle measures the energy from an electromagnetic energy source within the integrating sphere through a calibration window. The expandable fluid impermeable integrating sphere expands when filled with a fluid, such that when filled with the fluid, its interior is viewable through the calibration window. The system includes a source of fluid to fill the integrating sphere and a fluid regulator coupled to the vehicle to determine when to supply the fluid to the integrating sphere to maintain an appropriate gas pressure level with the integrating sphere.

    Abstract translation: 用于校准车辆中的传感器的系统,例如空间胶囊或其他空间传感装置,使用可扩展的积分球。 车辆中的传感器通过校准窗口测量积分球内的电磁能源的能量。 可膨胀流体不可渗透的积分球在充满流体时膨胀,使得当填充流体时,其内部可通过校准窗观察。 该系统包括用于填充积分球的流体源和耦合到车辆的流体调节器,以确定何时将流体供应到积分球,以保持与积分球的适当的气体压力水平。

    MACHINE AND METHOD FOR MEASURING A CHARACTERISTIC OF AN OPTICAL SIGNAL
    180.
    发明申请
    MACHINE AND METHOD FOR MEASURING A CHARACTERISTIC OF AN OPTICAL SIGNAL 有权
    用于测量光信号特性的机器和方法

    公开(公告)号:US20070171403A1

    公开(公告)日:2007-07-26

    申请号:US11621036

    申请日:2007-01-08

    Abstract: A machine and methods measure a characteristic of an optical signal incident upon a detector characterized by one or more dynamic response parameters. One method receives an output signal from the detector and compares that output signal and a computationally determined response of the detector to a known optical signal incident upon the detector. The response is based on said one or more dynamic parameters. The method determines the characteristic based on a relationship between the output signal and the computationally determined response. Another method observes an output signal from an optical detector detecting one or more optical signals, accesses a characteristic curve of detector response, compares the observed output signal to the characteristic curve, and calculates at least one characteristic of one or more optical signals based on a relationship of the observed output signal and the characteristic curve.

    Abstract translation: 机器和方法测量入射在特征为一个或多个动态响应参数的检测器上的光信号的特性。 一种方法从检测器接收输出信号,并将该输出信号和检测器的计算确定响应与入射到检测器上的已知光信号进行比较。 所述响应基于所述一个或多个动态参数。 该方法基于输出信号和计算确定的响应之间的关系确定特性。 另一种方法观察来自检测一个或多个光信号的光检测器的输出信号,访问检测器响应的特性曲线,将观察到的输出信号与特性曲线进行比较,并且基于一个或多个光信号来计算至少一个特性 观测输出信号与特性曲线的关系。

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