学科方向和团队

核能科学与工程，先进核能系统团队

个人资料

刘晓星，河北邯郸人，博士，中山大学百人计划副教授

邮箱: liuxx85@mail.sysu.edu.cn，zdliuxiaoxing@163.com

教育经历

2012.10-2015.9，九州大学（日本）应用物理与核工程系  博士研究生 指导老师：守田幸路

2010.9-2012.6，浙江大学 计算数学专业  硕士研究生

2006.9-2010.6，浙江大学 数学系 本科

工作经历

2020.6-至今，中山大学中法核工程与技术学院，百人计划副教授

2015.10-2020.5，日本九州大学应用物理与核工程系，博士后研究员

研究领域

反应堆热工水力

快中子反应堆事故模拟和安全分析

无网格移动粒子类方法（MPS, SPH等）

近期动态

2025届硕士毕业，正然是指导的第一个三年制硕士，还有两位共同指导的硕士，裕彬和维奇，预祝大家前程似锦，鹏程万里。

毕业学生

2025年 硕士 卢正然（吉林省公务员）

2023年 硕士 吕俊儒 （深圳市公务员） 金文辉（共同指导，TPLINK） 陈松徽（共同指导，近物所）

2022年 硕士 许益华（东京大学博士在读）

2021年 硕士 徐锐聪（共同指导，东京大学博士在读）

科研项目

2025-2027 国家自然科学基金联合基金 课题负责人

2024  成果转化类重点项目 一种复杂几何自由面流动多分辨率数值模拟方法及系统  项目负责人 

2023-2024 横向项目 聚变堆关键安全现象模拟仿真验证  项目负责人

2021-2022 横向项目 微小通道气溶胶沉积试验入口效应模型评估与验证 项目负责人

2021-2022 横向项目 基于MPS-DEM方法的核反应堆严重事故模型开发  项目负责人

2020-2021 横向项目  MPS方法的两相流模型开发  项目负责人

2021-2024  广东省区域联合基金青年基金项目 基于MPS方法的钠冷快堆严重事故下熔融燃料和冷却剂相互作用研究  项目负责人

2021-2023  广州市基础与应用基础研究项目 面向多相流模拟的自适应多分辨率无网格移动粒子方法开发  项目负责人

2016-2020  日本经济产业省项目“钠冷快中子反应堆严重事故中的共晶反应模型开发” 主要完成人

2012-2015  日本原子力研究开发机构-九州大学联合研究课题“钠冷快堆堆芯解体事故验证实验EAGLE-ID1数值模拟研究” 主要参与者

学术兼职

JANDT International Journal of Advanced Nuclear Reactor Design and Technology 期刊青年编辑

分会主席   第二十一届IACM计算流体大会（CFC 2021） 2021.10 中国杭州

分会主席   第十二届反应堆热工水力运行和安全国际会议 (NUTHOS-12), 2018.10 中国青岛

分会主席   第十一届反应堆热工水力运行和安全国际会议 (NUTHOS-11), 2016.10，韩国首尔

发表期刊论文

[1] X Liu*, S He*, W Huang, X Wang, X. A stabilized LSMPS for three-dimensional complex free-surface flow with moving wall. Computer Methods in Applied Mechanics and Engineering, 2025, 441, 117998.

[2] X Liu, K Wang*, S Cheng, S Zhang*. A volume compensation model for multi-resolution moving particle method simulating free-surface flow. Engineering Analysis with Boundary Elements, 2025, 171, 106080.

[3] X Liu, K Wang, G Duan*, S Zhang*. A volume-conservation particle shifting scheme for moving particle method simulating free-surface flow. Computational Particle Mechanics, 2024: 1-12.

[4] X Liu, Y Xu, K Wang, S Cheng, L Tong*. Study on bubble dynamics in sodium using three-dimensional MPS method. Nuclear Engineering and Design, 416(2024), 112810.

[5] R Xu, X. Liu*, S Cheng. Numerical study of debris bed formation behavior for severe accident in sodium-cooled fast reactor by using least square MPS-DEM method. Nuclear Engineering and Design, 2023, 415: 112624.

[6] K Wang, H Cheng, X. Liu*, C. Y. Li, K Okamoto, How nucleation site density affects the nucleate boiling crisis: Explanations of varied experimental results based on a bubble percolation method. International Communications in Heat and Mass Transfer, 2023, 140, 106552.

[7]Y. Xu, R. Xu, R., H. Cheng*, X. Liu*, S Cheng, S. Numerical simulation of jet breakup phenomenon during severe accident of sodium-cooled fast reactor using MPS method. Annals of Nuclear Energy, 172 (2022) 109087.

[8] X Liu*, L Tong*, Numerical study of gas bubble rising in liquid sodium using advanced MPS method, Nuclear engineering and Design, 2022, 397: 111924

[9] X Liu, S Zhang*, Development of adaptive multi-resolution MPS method for multiphase flow simulation. Computer Methods in Applied Mechanics and Engineering, 2021, 387: 114184. 

[10] X Liu*, K Morita, S Zhang, Direct numerical simulation of incompressible multiphase flow with vaporization using moving particle semi-implicit method, Journal of Computational Physics, 425 (2021) 109911, Top.

[11] X Liu*, K Morita, S Zhang, Machine learning based surface tension model for multiphase flow simulation using particle method, International Journal for Numerical Methods in Fluids, 93(2) (2021) 356-368.

[12]X Liu*, K Morita, S Zhang, Comparative study of two corrective gradient models in the simulation of multiphase flows using MPS,International Journal for Numerical Methods in Fluids, 92 (6) (2020) 573-586.

[13]X Liu*, K Morita, S Zhang, A stable moving particle semi-implicit method with renormalized Laplacian model improved for incompressible free-surface flows,Computer Methods in Applied Mechanics and Engineering, 356 (2019) 199-219, Top.

[14]X Liu*, K Morita, S Zhang, A conservative Finite volume-particle hybrid method for simulations of incompressible interfacial flow, Computer Methods in Applied Mechanics and Engineering, 355 (2019) 840-859, Top.

[15]X Liu*, K Morita, S Zhang, An ALE pairwise-relaxing meshless method for compressible flows,Journal of Computational Physics, 387 (2019) 1-13, Top.

[16]X Liu*, K Morita, S Zhang, A pairwise-relaxing incompressible smoothed particle hydrodynamics scheme,Computer Methods in Applied Mechanics and Engineering, 348 (2019) 297-312, Top.

[17]X Liu*, K Morita, S Zhang, An advanced moving particle semi-implicit method for accurate and stable simulation of incompressible flows, Computer Methods in Applied Mechanics and Engineering, 339 (2018) 467-487, Top.

[18]X Liu*, R Ogawa, M Kato, K Morita, S Zhang, Accuracy and stability enhancements in the incompressible finite-volume-particle method for multiphase flow simulations, Computer Physics Communications, 230 (2018) 59-69, Top.

[19]X Liu*, K Morita, S Zhang, Enhancement of the accuracy of the finite volume particle method for the simulation of incompressible flows, International Journal for Numerical Methods in Fluids, 12 (85) (2017) 712-726.

[20]X Liu*, L Guo, K Morita, S Zhang, Development of a hybrid particle-mesh method for two-phase flow simulations, International Journal for Numerical Methods in Fluids, 82 (6) (2016) 334-347.