M. Perdigão, J. Alonso, M. D. Dalla Costa, E. S. Saraiva
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引用次数: 9
摘要
在磁控电子镇流器中,为了实现灯的启动和调光,用可变电感代替了典型的谐振电感。这种可变电感由直流电流控制,直流电流改变谐振槽以改变灯电流的有效值,从而改变发光输出。为了进行优化研究,精确模拟荧光灯和可变电感在磁控电子镇流器中的真实行为的计算模型是非常必要的。传统上,它们是在电路仿真程序中实现的,例如基于spice的程序。本文演示了如何使用简单的实验室测量轻松地开发出与MATLAB/Simulink兼容的可变电感器行为模型。所得模型包括线圈损耗,但不包括温度效应。设计准则和实际验证验证了该模型。理论预测与36 W TLD飞利浦荧光灯的实验结果进行了验证,该荧光灯也已经进行了测试和实验建模,以得出调光特性。
A variable inductor MATLAB/Simulink behavioral model for application in magnetically-controlled electronic ballasts
In magnetically-controlled electronic ballasts, in order to perform the lamp start and dimming, the typical resonant inductor is substituted by a variable inductor. This variable inductor is controlled by a dc current, which modifies the resonant tank in order to vary the rms value of the lamp current and thereby the luminous output. In order to perform optimization studies, computational models, which accurately simulate the real behavior of the fluorescent lamp and the variable inductor, in magnetically-controlled electronic ballasts, are extremely necessary. Traditionally, they are implemented in circuit-simulation programs, such as SPICE-based programs. In this paper it is demonstrated how a MATLAB/Simulink compatible behavioral model of a variable inductor can be developed easily using simple laboratory measurements. The resulting model includes coil losses but not temperature effects. Design criteria and practical verifications are included to confirm this model. Theoretical predictions are verified with the experimental results for a 36 W TLD Philips fluorescent lamp which has also been previously tested and modeled experimentally, in order to derive the dimming characteristics.