電流源型數(shù)模綜合仿真系統(tǒng)研究
[Abstract]:In recent years, microgrid, distributed generation and renewable energy have developed rapidly. At the same time, the research of interaction between microgrid and grid becomes more and more important because of its more and more extensive application. For this kind of research, power system real-time simulation is an efficient and convenient tool, but the traditional pure digital simulation system or pure physical simulation system can not meet the requirements of power system research. Therefore, the digital physical comprehensive simulation system technology combining the advantages of both is put forward. The current source digital-analog integrated simulation system is suitable for the small system with large impedance on the digital side and the large system with small impedance on the physical side, which has better flexibility and wider application range. In this paper, the whole frame of the current source digital-analog integrated simulation system is presented, in which the physical side interface is the key research object, according to the characteristics of the digital-analog integrated simulation system, Three-phase rectifier and single-phase inverter are selected as the main circuit topology of physical side interface. Considering the stability of digital-analog integrated simulation system, a compensation algorithm based on ideal transformer model is proposed in this paper, and the algorithm is verified by simulation. For rectifier and inverter follower, the PWM signal generation scheme and control scheme of three-phase rectifier and single-phase inverter are given respectively, and the simulation model is built in MATLAB. The simulation experiments of steady and dynamic conditions are carried out. Finally, the rectifier and inverter are simulated in series, and a micro-grid small system model is established to simulate the digital-analog interface, which is compared with the full-digital simulation. The simulation results show that the rectifier can provide a stable DC current source, the inverter follower can realize the tracking output of most waveforms, and the digital-analog interface can meet the requirements of the digital-analog integrated simulation system. The results of digital and analog simulation are consistent with the full digital simulation. The interface device can realize real time simulation of power system.
【學(xué)位授予單位】:華中科技大學(xué)
【學(xué)位級(jí)別】:碩士
【學(xué)位授予年份】:2014
【分類號(hào)】:TM743
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