Method for measuring the camouflaging capacity of a smoke
    21.
    发明公开
    Method for measuring the camouflaging capacity of a smoke 失效
    测量吸烟能力的方法

    公开(公告)号:EP0090299A3

    公开(公告)日:1985-04-24

    申请号:EP83102745

    申请日:1983-03-19

    Inventor: Agren, Bengt-Ake

    CPC classification number: G01N21/538

    Abstract: Method for measuring the camouflaging capacity of a smoke. A selected radiation source, such as an IR radiation source, is divided into a predetermined number of IR radiating elements (0-7) having mutually differing radiation temperatures. After the release of smoke between the radiation elements and an IR camera, the number of temperature peaks which cannot be distinguished with respect to the background temperature is employed as a measure of the IR camouflaging capacity of the smoke. When measuring the camouflaging capacity of the smoke over a wide area several groups (21-26) of such IR-radiating elements (28, 29) are distributed over the area.

    IMPROVED TYMPANIC THERMOMETER
    25.
    发明申请
    IMPROVED TYMPANIC THERMOMETER 审中-公开
    改进型式温度计

    公开(公告)号:WO1995014913A1

    公开(公告)日:1995-06-01

    申请号:PCT/US1994012509

    申请日:1994-10-31

    Abstract: This invention is an IR thermometer design using multiple sensor outputs for correcting errors induced by variable probe placement in a patient's ear canal. One embodiment of the system uses two or more sensors (32, 34) to create varying fields of view of the tympanic membrane IR emissions. These discrete IR readings are then reconciled by onboard signal processing to provide an accurate, repeatable and relatively position independent temperature reading.

    Abstract translation: 本发明是一种使用多个传感器输出的IR温度计设计,用于校正由患者耳道中的可变探针放置引起的误差。 该系统的一个实施例使用两个或更多个传感器(32,34)来产生鼓膜IR发射的不同视野。 然后通过车载信号处理来调节这些离散的IR读数,以提供准确,可重复和相对位置独立的温度读数。

    SIMULTANEOUS DETERMINATION OF LAYER THICKNESS AND SUBSTRATE TEMPERATURE DURING COATING
    26.
    发明申请
    SIMULTANEOUS DETERMINATION OF LAYER THICKNESS AND SUBSTRATE TEMPERATURE DURING COATING 审中-公开
    涂层在同时厘定厚度和基质温度

    公开(公告)号:WO1994029681A1

    公开(公告)日:1994-12-22

    申请号:PCT/DE1994000168

    申请日:1994-02-16

    CPC classification number: G01B11/0633 G01J5/60

    Abstract: The invention describes a process and device for measuring temperature and layer thickness during coating by prior art methods in semiconductor manufacturing, plasma, ion and other dry-etching plants and in the production of optical coatings. The current results of layer thickness and temperature measurements may be used in process control. The interference phenomena in thermal substrate radiation on the growing layer continuously cause the emissivity epsilon to change during coating, thus preventing the use of pyrometric temperature measurement, which gives rise to particular problems in multi-layer systems in which the current emissivity depends on the thickness of all the layer, their optical constants, the temperature-dependence of the optical constant and the observation angle and wavelength. The present invention solves these fundamental problems by determining the reflectivity R of the wafer using a reflectometer. According to the law of the conservation of energy, for non-transparent substrates epsilon = 1 - R, and hence the current emissivity of the entire (multi-layer) system can be directly determined with the reflectometer. The temperature is measured by means of a given evaluation rule, while the thickness is found by comparing the reflectometer curve with the theoretical layer thickness dependence.

    Abstract translation: 本发明描述了在与半导体制造设备,等离子体,离子等干式蚀刻,并在生产光学层的公知的涂布技术涂覆工艺用于温度测量和层厚的方法和装置。 层厚度和温度测量的当前测量值可以用于工艺控制。 为一体的热衬底辐射到生长层的干扰现象的结果,连续地涂布,因此不能被应用于一个测温温度测量期间EPSILON发射率的变化。 特别成问题的是多层系统的测温温度测量,当前发射率是依赖于它的光学常数中,光学常数的温度依赖关系,观察角度和观测波长的所有层的厚度。 这个基本问题将通过本发明的晶片的反射率R用反射计测定所要解决。 由于能量守恒定律是有效的用于非透明基板的ε-= 1 - R,使得总(多层)系统的实际发射率与反射计直接确定。 温度测量然后通过确定的评估规则进行的,而厚度是由Reflektometerkurve与理论膜厚依赖性进行比较来确定。

    A RADIATION PYROMETER ASSEMBLY FOR SENSING THE TEMPERATURE OF AN ELONGATE BODY MOVING LONGITUDINALLY
    27.
    发明申请
    A RADIATION PYROMETER ASSEMBLY FOR SENSING THE TEMPERATURE OF AN ELONGATE BODY MOVING LONGITUDINALLY 审中-公开
    用于感测远端身体运动的温度的辐射感光元件组件

    公开(公告)号:WO1994009348A1

    公开(公告)日:1994-04-28

    申请号:PCT/GB1993002162

    申请日:1993-10-20

    CPC classification number: G01J5/0022 G01J2005/0029 G01J2005/0048

    Abstract: A radiation pyrometer assembly and method for sensing the temperature of an elongate body, such as metal strip, moving longitudinally in the direction of its length includes a spray gun which deposits a narrow stripe (5) of black paint of a uniform emissivity, upon one surface of the strip as it moves towards a temperature sensing station. The sensing station includes a calibration radiation pyrometer (6) arranged to view the black stripe (5) once the temperature of the stripe has reached the temperature of the strip. The accuracy of the apparatus may be improved by the provision of a process control radiation pyrometer (7) directed to the opposite, un-painted surface of the strip (1) the combined readings from the two pyrometers allow the correction of otherwise unpredictable errors in the temperature of the strip.

    Abstract translation: 辐射高温计组件和用于感测沿其长度方向纵向移动的细长主体(例如金属条)的温度的方法包括:喷枪,其将具有均匀发射率的窄条纹(5)黑色涂料沉积在一个 当条移动到温度感测台时,带的表面。 感测站包括校准辐射高温计(6),其被布置成一旦条纹的温度达到条带的温度就能观察黑色条纹(5)。 可以通过提供针对条带(1)的相对的未涂漆表面的过程控制辐射高温计(7)来改善设备的精度,来自两个高温计的组合读数允许校正其他不可预测的误差 条带的温度。

    TEMPERATURE MESURING DEVICE AND USE THEREOF
    28.
    发明申请
    TEMPERATURE MESURING DEVICE AND USE THEREOF 审中-公开
    温度检测装置及其应用

    公开(公告)号:WO1993011410A1

    公开(公告)日:1993-06-10

    申请号:PCT/FR1992001150

    申请日:1992-12-04

    Inventor: OPTOMETRA

    Abstract: A device for mesuring temperature in a semi-transparent material and use of this device for determining a temperature profile in this material, particularly in molten glass, are disclosed. The device comprises at least two optical pyrometers (41, 42) positioned in an essentially even manner around the run-out, and each fitted with an infrared detector and a mobile support for at least three narrow-band interference filters centred on wavelengths which are substantially equal or matched for the said pyrometers. At least one of the said pyrometers has a means for mesuring the width of the said glass run-out, and the device incorporates means for synchronizing the movement of the said mobile supports for the said filters of all the said pyrometers.

    OPTICAL TEMPERATURE MEASUREMENT TECHNIQUES
    29.
    发明申请
    OPTICAL TEMPERATURE MEASUREMENT TECHNIQUES 审中-公开
    光学温度测量技术

    公开(公告)号:WO1986003293A1

    公开(公告)日:1986-06-05

    申请号:PCT/US1985002333

    申请日:1985-11-27

    CPC classification number: G01K11/3213

    Abstract: An optical temperature measurement technique that utilizes the decaying luminescent intensity characteristic of a sensor composed of a luminescent material that is excited to luminescence by a light pulse or other periodic or other intermittent source of radiation. The luminescent emissions of a preferred sensor exhibit an approximately exponential decay with time that is the average of a distribution of chemically reproducible crystallites and are repeatable with a high degree of accuracy regardless of excitation level or prior temperature history of the sensor.

    Method and apparatus for measuring internal body temperature utilizing infrared emissions
    30.
    发明公开
    Method and apparatus for measuring internal body temperature utilizing infrared emissions 失效
    用于测量使用红外辐射的内部温度的方法和装置

    公开(公告)号:EP0180368A3

    公开(公告)日:1986-08-20

    申请号:EP85307383

    申请日:1985-10-14

    Abstract: A hand held probe unit has an infrared sensitive thermopile mounted in a metal housing kept at a constant reference temperature by a regulator circuit. A waveguide tube, surrounded by a thermally insulative probe, directs infrared emissions to the thermopile. The thermopile and regulator circuit of the probe unit are electrically connected to processing circuitry in a chopper unit. Prior to taking a patient's temperature, the probe unit is mated with the chopper unit so that the thermopile detects infrared emissions from a reference target which is also kept at a constant reference temperature by another regulator circuit. The processing circuitry repeatedly acquires the output level of the thermopile and stores calibration data. The probe unit is then removed from the chopper unit, the probe is covered with an IR transparent, disposable speculum, and is inserted in the patient's external ear canal. The processing circuitry then determines the patient's core temperature by comparing the stored calibration data to the maximum output of the thermopile during a succession of ear canal samplings.

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