电工技术学报
電工技術學報
전공기술학보
TRANSACTIONS OF CHINA ELECTROTECHNICAL SOCIETY
2004年
7期
4-10
,共7页
刘洪武%陈德桂%戴瑞成%李志鹏%李兴文
劉洪武%陳德桂%戴瑞成%李誌鵬%李興文
류홍무%진덕계%대서성%리지붕%리흥문
电弧运动%光电测试%塑壳断路器
電弧運動%光電測試%塑殼斷路器
전호운동%광전측시%소각단로기
Arc motion%optoelectronic measurement%molded case circuit breakers
开发了一套带有四个模拟通道的二维光纤快速摄像系统,用于研究塑壳断路器中高速运动的高温电弧等离子体.其最大拍摄速度可达106幅/s,模拟通道可直接测量如电弧电流、电压及压力等物理量.构成测试区域的每根光纤顶端均加装了非均匀介质纤维透镜,可有效解决观测区域重叠的问题,大大提高测量精度.同时软件部分采用发布-订阅对象行为型设计模式,通过建立动态图元与试验数据之间的松散耦合实现了图形组态功能,增强了系统的适用性和灵活性.实现结果表明,系统为研究和提高塑壳断路器尤其是应用气吹来弧技术的新一代断路器的开断性能提供了更先进的精确测试手段.
開髮瞭一套帶有四箇模擬通道的二維光纖快速攝像繫統,用于研究塑殼斷路器中高速運動的高溫電弧等離子體.其最大拍攝速度可達106幅/s,模擬通道可直接測量如電弧電流、電壓及壓力等物理量.構成測試區域的每根光纖頂耑均加裝瞭非均勻介質纖維透鏡,可有效解決觀測區域重疊的問題,大大提高測量精度.同時軟件部分採用髮佈-訂閱對象行為型設計模式,通過建立動態圖元與試驗數據之間的鬆散耦閤實現瞭圖形組態功能,增彊瞭繫統的適用性和靈活性.實現結果錶明,繫統為研究和提高塑殼斷路器尤其是應用氣吹來弧技術的新一代斷路器的開斷性能提供瞭更先進的精確測試手段.
개발료일투대유사개모의통도적이유광섬쾌속섭상계통,용우연구소각단로기중고속운동적고온전호등리자체.기최대박섭속도가체106폭/s,모의통도가직접측량여전호전류、전압급압력등물리량.구성측시구역적매근광섬정단균가장료비균균개질섬유투경,가유효해결관측구역중첩적문제,대대제고측량정도.동시연건부분채용발포-정열대상행위형설계모식,통과건립동태도원여시험수거지간적송산우합실현료도형조태공능,증강료계통적괄용성화령활성.실현결과표명,계통위연구화제고소각단로기우기시응용기취래호기술적신일대단로기적개단성능제공료경선진적정학측시수단.
An integrated measurement system for the investigation of high speed and high temperature arc plasma is presented. 2-D optical fiber high-speed imaging system is integrated with four analog channels to gain insight into the complex arc plasma in molded case circuit breakers. The imaging system captures at a rate of 106 images per second. The analog channels permit direct measurement to obtain transient signal, such as arc current, voltage and pressure. To improve the spatial resolution of optical fibers, lens with inhomogeneous dielectric is fixed on the top of each fiber. The Publisher-Subscriber behavioral design pattern is applied to the software and the loosely coupled relationship between glyph and experimental data is once established, the graphic configuration can be implemented for simulation analysis, and the flexibility and applicability of the whole system are obviously improved. It demonstrates that the system provides a better research technique especially for new-generation MCCB with gas-driven arc.