HPR1000堆整体式试验设备的选型与设计

D. Lu, Liangguo Li, Qianhua Su, Jun Xing
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引用次数: 0

摘要

整体试验装置对于研究压水堆在事故中的性能是非常有用的。随着越来越多的被动安全技术被应用到反应堆系统中,整体效果试验设施对这些技术的验证和软件的预测起到了非常重要的作用。基于标度分析,设计并搭建了HPR1000堆整体效应试验装置。该标度标准是根据初级系统的自然循环和恒定体积的排污模型推导的。对这些现象进行了识别和排序,以确保缩放可以在测试设备中复制它们,就像原型一样。试验设备的高度比为1:4,直径比为1:6。共使用177个模拟器对实际反应堆堆芯燃料组件的热工水力学进行了模拟。这使得核心与原型保持相同的数组。每个模拟器都有一个电加热器,其功率由计算机控制。堆芯功率具有轴向余弦剖面和三个径向区,以再现堆芯物理不均匀分布。
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Scaling and Designing Activities of Integral Test Facility for HPR1000 Reactor
The integral test facility is very useful to study the behavior of the pressurized water reactor (PWR) at accidents. As more and more passive safety techniques were adopted in the reactor system, the integral effect test facilities acted very important role to verify these techniques and the prediction of software. An integral effect test facility for the HPR1000 reactor was designed and constructed based on the scaling analysis. The scaling criteria were derived on the model of natural circulation and blowdown of the constant bulk volume in the primary system. The phenomenon were identified and ranked to ensure the scaling can reproduce them in the test facility as the same as the prototype does. The height ratio is 1:4 and the diameter ratio is 1:6 for the test facility. Totally 177 simulators were used to simulate the thermal hydraulics of the fuel assemblies in the practical reactor core. This makes the core keep the same array as the prototype. Each simulator has one electrical heater which power is controlled by the computer. The power of the core has axial cosine profile and three radial zones to reproduce the physical non-uniform distribution in the reactor core.
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