Determining phase-transition temperatures of molten salt mixtures through microsecond-scale staircase voltammetry

IF 4.7 3区 工程技术 Q2 ELECTROCHEMISTRY Electrochemistry Communications Pub Date : 2024-06-29 DOI:10.1016/j.elecom.2024.107773
Hwakyeung Jeong , Tae-Hyeong Kim , Han Lim Cha , Sang Ho Lim , Jong-Yun Kim
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Abstract

Determining the phase-transition temperature is crucial in the design of molten salt reactors, as operational temperatures need to be established considering the safety margins related to the thermodynamic stability of the molten salt system. This study introduces a novel approach to determine the phase-transition temperature based on rapid electrical conductivity measurements using a microsecond-scale staircase voltammetry technique. The phase-transition temperature is determined near distinct points where the electrical conductivity abruptly changes, indicating phase transitions. The phase-transition temperatures of three LiCl–KCl molten salt systems, determined using the proposed approach based on electrical conductivity measurements, are with relative errors less than 3% compared with reported phase transition data based on conventional thermal analysis techniques.

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通过微秒级阶梯伏安法确定熔盐混合物的相变温度
确定相变温度对于熔盐反应堆的设计至关重要,因为在确定运行温度时需要考虑与熔盐系统热力学稳定性相关的安全系数。本研究介绍了一种基于微秒级阶梯伏安法技术的快速电导率测量来确定相变温度的新方法。相变温度是在电导率突然变化的明显点附近测定的,这些点表明了相变。与基于传统热分析技术的相变数据相比,使用基于电导率测量的拟议方法测定的三种锂盐-氯化钾熔盐体系的相变温度的相对误差小于 3%。
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来源期刊
Electrochemistry Communications
Electrochemistry Communications 工程技术-电化学
CiteScore
8.50
自引率
3.70%
发文量
160
审稿时长
1.2 months
期刊介绍: Electrochemistry Communications is an open access journal providing fast dissemination of short communications, full communications and mini reviews covering the whole field of electrochemistry which merit urgent publication. Short communications are limited to a maximum of 20,000 characters (including spaces) while full communications and mini reviews are limited to 25,000 characters (including spaces). Supplementary information is permitted for full communications and mini reviews but not for short communications. We aim to be the fastest journal in electrochemistry for these types of papers.
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