核反应堆安全研究用24ka可控硅整流器的DSP设计与仿真

G. Srivastava, Ranjan Kumar, R. D. Kulkarni
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摘要

与核电站安全相关的实验研究与开发设施利用模拟核燃料簇进行创新研究,以了解在事故和正常情况下功率/温度瞬变对核燃料通道的影响。为实验设备中的这些瞬态供电是通过电加热来实现的,类似于通过高功率整流器通过电流/功率控制的大电流进行核裂变加热。通过控制相角控制晶闸管整流系统的设定参考电流/功率,而不考虑输入电压和负载电阻的变化,可以获得所需的功率/温度曲线。本文介绍了基于12脉冲24 kA、90伏可控硅整流器的数字信号处理器为核燃料簇模拟器供电的设计与性能仿真。本文介绍了整流变压器、相间电抗器和晶闸管组件的冷却要求等设计参数。设计中采用的数字控制器是TI DSP TMS320F28335,用于低压大电流闭环系统。晶闸管控制整流器被设计成在恒流模式或恒功率模式下工作。此外,设计中还规定,整流器可以单独运行,提供6个脉冲输出,也可以并联运行,提供12个脉冲输出,为燃料集群模拟器提供高直流电流。给出了各种电气参数波形的性能仿真结果,以验证设计的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design & Simulation of DSP based 24 kA Thyristor Controlled Rectifier for Nuclear Reactor Safety Study
Experimental research and development facilities pertaining to safety of nuclear power plant utilizes simulated nuclear fuel clusters for conducting innovative research studies to understand the effect of power/temperature transients on nuclear fuel channel during accidental as well as normal situations. Powering those transients in an experimental facility is performed by electrical heating analogous to nuclear fission heating by current/power controlled high current through high power rectifiers. The desired power/temperature profile can be obtained by controlling the set reference current/power of the phase angle controlled thyristor rectifier system regardless of input voltage and load resistance variations. The paper presents design and performance simulation of digital signal processor based 12-pulse 24 kA, 90 volts thyristor controlled rectifier powering nuclear fuel cluster simulators. Design parameter including cooling requirements of rectifier transformer, inter phase reactor and thyristor assemblies have been described in the paper. The digital controller incorporated in the design is a TI DSP TMS320F28335, for low voltage high current application in close feedback loop system. The thyristor controlled rectifier has been designed to operate either in constant current mode or in constant power mode. Besides, the provision has been made in the design such that rectifier can be operated individually delivering six pulse output as well as in parallel delivering twelve pulse output for high DC current supply to fuel cluster simulators. The performance simulation results highlighting waveforms of various electrical parameters has been presented for demonstration of design validation.
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