Abstract:
The present invention relates to thermal detectors and the application of such to devices and methods of detecting the infrared images using thermal detectors. For example, by using optical measuring systems in combination with at least one light source to measure changes position of a movable anchored surface coupled to an absorption surface such that the movable anchored surface changes position due to absorption of infrared radiation by the absorption surface. In another example, by combining a detector pixel (infrared radiation sensitive) with an optical measuring device such as an interferometer.
Abstract:
The present invention relates to thermal detectors and the application of such to devices and methods of detecting the infrared images using thermal detectors. For example, by using optical measuring systems in combination with at least one light source to measure changes position of a movable anchored surface coupled to an absorption surface such that the movable anchored surface changes position due to absorption of infrared radiation by the absorption surface. In another example, by combining a detector pixel (infrared radiation sensitive) with an optical measuring device such as an interferometer.
Abstract:
The present invention relates to thermal detectors and the application of such to devices and methods of detecting the infrared images using thermal detectors. For example, by using optical measuring systems in combination with at least one light source to measure changes position of a movable anchored surface coupled to an absorption surface such that the movable anchored surface changes position due to absorption of infrared radiation by the absorption surface. In another example, by combining a detector pixel (infrared radiation sensitive) with an optical measuring device such as an interferometer.
Abstract:
A method and apparatus for measurement of the brightness, flow velocity and temperature of radiant media. A substantially collimated beam (3) of light is directed to a linear polarizer (5) through an interference filter (4). An electro-optically active birefringent crystal (7) separates the linearly polarized output of the polarizer (5) into two characteristic waves and introduces a final phase delay between the wave. The birefringent crystal (7) is electro-optically modulated to introduce a variable phase delay between the characteristic waves. The resultant characteristic waves are combined to interfere and the combination is sampled to produce a signal from which the emission moment of the radiant media can be determined.
Abstract:
A method and apparatus for measurement of the brightness, flow velocity and temperature of radiant media. A substantially collimated beam (3) of light is directed to a linear polarizer (5) through an interference filter (4). An electro-optically active birefringent crystal (7) separates the linearly polarized output of the polarizer (5) into two characteristic waves and introduces a final phase delay between the wave. The birefringent crystal (7) is electro-optically modulated to introduce a variable phase delay between the characteristic waves. The resultant characteristic waves are combined to interfere and the combination is sampled to produce a signal from which the emission moment of the radiant media can be determined.
Abstract:
처리 장치의 이상을 판정할 수 있는 시스템 및 방법을 제공한다. 처리 장치를 검사하는 시스템은, 처리 장치의 처리실 내의 부품의 온도를 조정하는 온도 조정 기구와, 측정광을 발생시키는 광원과, 온도 조정 기구에 의한 부품의 온도 조정 중에, 광원에서 발생된 측정광을 출사광으로서 처리 장치의 처리실 내의 부품에 출사하고 또한 반사광을 입사하는 복수의 광학 소자와, 반사광에 기초하여 광학 소자에 대응하는 측정 개소마다 부품의 온도를 측정하고, 측정 개소의 부품의 온도 각각의 비교에 기초하여 처리 장치의 이상을 판정하는 제어부를 구비한다.