Change of Thinking, Molten Salt Reactor (MSR)

Chang Hwa Lee, Tae-Hyeong Kim, D. Yoon
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Abstract

A loss of coolant in a nuclear power plant using solid nuclear fuel can cause a severe nuclear accident, surpassing a design-basis accident, and may include a meltdown and subsequent steam and hydrogen explosion leading to a major release of radioactive material to the environment. A molten salt reactor (MSR), one of the six concepts for a Generation-IV non-pressurized water reactor, utilizes liquid fuel in which the coolant and nuclear fuel are integrated. The integration of the fuel and coolant is fundamentally safe from severe accidents caused by a loss of coolant. Because an MSR operates at atmospheric pressure and high temperature compared to pressurized water reactors, the reactor structure is simple and thermal efficiency is excellent. An MSR can be deployed at any scale from a small micro-reactor to a large commercial nuclear power plant. At a time when the role of nuclear power is growing dramatically more significant for achieving “2050 Carbon Neutrality”, the MSR technology draws attention due to its superior safety and efficiency as well as an expectation that can resolve the spent nuclear fuel issue. This article briefly introduces the characteristics and the R&D status of MSRs.
思维的转变,熔盐反应堆(MSR)
在使用固体核燃料的核电站中,冷却剂的损失可能导致严重的核事故,超过设计基础事故,并可能包括熔毁和随后的蒸汽和氢气爆炸,导致放射性物质大量释放到环境中。熔盐反应堆(MSR)是第四代非压水堆的六大概念之一,它使用的是冷却剂和核燃料一体化的液体燃料。燃料和冷却剂的结合从根本上来说是安全的,不会因为冷却剂的损失而导致严重的事故。与压水堆相比,MSR在常压和高温下运行,结构简单,热效率高。MSR可以部署在任何规模,从小型微型反应堆到大型商业核电站。在核电对实现“2050碳中和”的作用日益重要的今天,MSR技术因其优越的安全性和效率以及解决乏燃料问题的期望而备受关注。本文简要介绍了MSRs的特点和研发现状。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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