Inflatable spherical integrating source for spaceflight applications
    111.
    发明公开
    Inflatable spherical integrating source for spaceflight applications 有权
    Aufblasbare,auf einer integrationskugel basierenden quellefürraumfluganwendungen

    公开(公告)号:EP2333500A2

    公开(公告)日:2011-06-15

    申请号:EP11159030.3

    申请日:2006-09-26

    Abstract: A system for calibrating a sensor in a vehicle, such as a space capsule or another 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: 用于校准诸如空间胶囊或其它空间装置的车辆中的传感器的系统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填充流体时膨胀,使得当填充流体时,其内部可通过校准窗口观察。 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。

    VORRICHTUNG ZUM PRÜFEN VON SOLARZELLEN
    112.
    发明公开
    VORRICHTUNG ZUM PRÜFEN VON SOLARZELLEN 有权
    VORRICHTUNG ZUMPRÜFENVON SOLARZELLEN

    公开(公告)号:EP2326962A1

    公开(公告)日:2011-06-01

    申请号:EP09778611.5

    申请日:2009-09-18

    CPC classification number: F21S8/006 F21Y2115/10 G01J1/08 H02S50/10

    Abstract: The invention relates to a device for testing solar cells. The device comprises an illumination field (10) having solid state illumination means, said field being arranged to emit radiation, a holding device arranged to hold at least one solar cell (20) at a predetermined position and/or in a predetermined location relative to the illumination field (10) in such a way that the illumination field (10) emits the radiation at least partially to the at least one solar cell, connection means (47) arranged to establish an electrical contact with the at least one solar cell (20), and a measuring unit (30) arranged to measure a voltage present at the connection means and/or a current flowing through the connection means.

    Abstract translation: 本发明涉及一种太阳能电池测试装置。 该装置包括具有固态照明装置的照明场(10),所述场被布置成发射辐射;保持装置,被布置成将至少一个太阳能电池(20)保持在预定位置和/或在相对于 所述照明场(10)使得所述照明场(10)至少部分地向所述至少一个太阳能电池发射所述辐射,所述连接装置(47)被布置成与所述至少一个太阳能电池建立电接触( 20),以及测量单元(30),其被布置成测量连接装置处存在的电压和/或流过连接装置的电流。

    Quantum dot based radiation source and radiometric calibrator using the same
    114.
    发明公开
    Quantum dot based radiation source and radiometric calibrator using the same 有权
    量子力学仪器和放射性测量仪器

    公开(公告)号:EP2280255A1

    公开(公告)日:2011-02-02

    申请号:EP10164071.2

    申请日:2010-05-27

    Abstract: In one embodiment, a quantum dot based radiation source includes a housing having a wall defining a cavity therein, a plurality of quantum dots disposed on an inner surface of the wall of the housing, and a radiation excitation source in optical communication with the housing and configured to output radiation to excite the plurality of quantum dots to emit radiation in a desired wavelength range. The quantum dot based radiation source can be used in a calibration system or calibrator, for example to calibrate a detector.

    Abstract translation: 在一个实施例中,基于量子点的辐射源包括壳体,其具有在其中限定空腔的壁,设置在壳体的壁的内表面上的多个量子点和与壳体光学连通的辐射激发源, 被配置为输出辐射以激励所述多个量子点以发射所需波长范围内的辐射。 基于量子点的辐射源可以用于校准系统或校准器中,例如用于校准检测器。

    Microchip testing device
    118.
    发明公开
    Microchip testing device 审中-公开
    PrüfvorrichtungfürMikrochips

    公开(公告)号:EP2105725A1

    公开(公告)日:2009-09-30

    申请号:EP09003481.0

    申请日:2009-03-10

    Abstract: A testing device (100) equipped with: a microchip (7) having a receiver (71) for a test fluid, a discharge lamp (1) which emits light into the microchip test fluid receiver (71), a light source housing (2) in which the discharge lamp (1) is located, and an arithmetic calculation mechanism (110), which calculates the concentration of the component to be detected, based on the intensity of the light emitted from the test fluid container unit (71). To reduce the size of the device and to shield the arithmetic calculation mechanism (110) from electromagnetic waves generated around the light source (1), the light source housing (2) is equipped with shielding (26) connected to the ground on the outside of the light source housing (20) made of insulating material. The light source housing (2,20) is positioned within an enclosure of the testing device holding the microchip (7) and containing the arithmetic calculation mechanism (110), analysis output device(s) (101), etc.

    Abstract translation: 一种配备有:具有用于测试流体的接收器(71)的微芯片(7)的测试装置(100),向微芯片测试流体接收器(71)发射光的放电灯(1),光源壳体 )和根据从被检流体容器单元(71)发射的光的强度来计算被检测部件的浓度的运算计算机构(110)。 为了减小装置的尺寸并屏蔽算术计算机构(110)与在光源(1)周围产生的电磁波,光源壳体(2)配备有在外部连接到地面的屏蔽(26) 由绝缘材料制成的光源壳体(20)。 光源壳体(2,20)位于保持微芯片(7)并包含运算计算机构(110),分析输出装置(101)等的测试装置的外壳内。

    Integrating photometer for measuring total flux of light generated from light source to be measured, and method for measuring total flux of light through use of the same
    119.
    发明公开
    Integrating photometer for measuring total flux of light generated from light source to be measured, and method for measuring total flux of light through use of the same 有权
    用于测量总光通量集成光计从一个光源和方法,用于通过使用测量总光通量测量它们的

    公开(公告)号:EP2053370A1

    公开(公告)日:2009-04-29

    申请号:EP08167373.3

    申请日:2008-10-23

    Inventor: Ohkubo, Kazuaki

    CPC classification number: G01J1/04 G01J1/08 G01J2001/0481

    Abstract: A mirror (3) is provided with a light source window (2) and an illumination window (4) each establishing communicative connection between an inner face side and an outer side of a hemispherical unit (1). The light source window (2) is an opening to which a light source (OBJ) to be measured is attached mainly. The illumination window (4) is an opening for guiding a flux of light from a correcting light source (9) used for measurement of self-absorption toward the inner face of the hemispherical unit (1). A self-absorption correcting coefficient of the light source (OBJ) is calculated based on an illuminance by a correcting flux of light in a case where the light source to be measured (OBJ) in a non-light emitting state is attached to the light source window (2) and an illuminance by a correcting flux of light in a case where a calibration mirror is attached to the light source window.

    Abstract translation: 的反射镜,(3)设置有光源窗(2)和上照明窗(4)的面内侧之间并且在半球部的外侧的各建立通信连接(1)。 光源窗(2)是一个光源(OBJ)要测量其主要附接的开口。 照明窗(4)是用于从用于自吸收的测量向半球部(1)的内表面上的校正光源(9)引导的光的光通量的开口。 光源(OBJ)的自吸收校正系数的计算基于在照度通过光的情况下在非发光状态下的校正光束,其中待测量的光源(OBJ)的附着于光 源窗口(2),在照度通过光的情况下,其中一个校准镜附接到光源窗校正光束。

    PORTABLE LIGHT SOURCE
    120.
    发明授权
    PORTABLE LIGHT SOURCE 有权
    便携式光源

    公开(公告)号:EP1186829B1

    公开(公告)日:2008-03-12

    申请号:EP00922912.1

    申请日:2000-04-28

    Abstract: This portable light source apparatus accommodates a deuterium lamp 10 in a lamp box 42 and, at the same time, in a housing 41 in order for the influence of temperature changes in the outside air to become very small. Namely, the deuterium lamp 10, which is susceptible to changes in temperature, is enveloped not only by the lamp box 42 but also by the housing 41, thereby being accommodated in a double shield structure. As a result, the temperature change of the housing 41, which is the most likely to be affected by the outside air, is harder to be transmitted to the deuterium lamp 10, whereby the latter can be utilized without taking account of the changes in weather during outdoor operations or influences of air conditioners and the like during indoor operations. Further, the deuterium lamp 10 can be inserted into and removed from the lamp box 42 from thereabove, so that operations of replacing the lamp 10 become easier even when the housing 41 is made compact, whereby the light source apparatus can be carried easier outdoors and in the field.

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