2011.09-2018.03 西安交通大学，动力工程及工程热物理专业，博士
2007.09-2011.06 重庆大学，热能与动力工程专业，学士

2023.01-至今 上海交通大学，核科学与工程学院，副教授
2020.09-2022.12 上海交通大学，核科学与工程学院，助理教授
2018.04-2020.08 上海交通大学，核科学与工程学院，博士后

一、铅铋快堆热工水力与安全分析（多物理场基础模型和数值模拟方法）
二、先进测量技术开发与应用 （电导、电容、电磁探针，丝网传感器）



（常年招收硕士、博士研究生）

国家自然科学基金面上项目，主持
上海市科技创新行动计划，主持
国家自然科学青年基金，主持
博士后基金特别资助，主持
博士后基金面上项目，主持

【1】 Bao, R.Q., Liu, L.*, Liu, S., Liu, M.L., Wang, K., Gu, H.Y. Numerical analysis and structural optimization of a DLC coated capacitance wire-mesh sensor for measuring liquid metal-gas two-phase distribution. Annals of Nuclear Energy 205, 110590 (2024).
【2】Yuan, J.J., Liu, L.*, Bao, R.Q., Luo, H.T., Liu, M.L., Gu, H.Y. Three-dimensional numerical simulation of the interaction between high-pressure sub-cooled water jet impacting high-temperature liquid lead-bismuth metal. Applied Thermal Engineering 230, 120705 (2023).
【3】Zhang, J.R., Liu, L.*, Liu, S., Gu, H.Y. A method for predicting the breakup of gas column in a decaying swirling liquid field. Annals of Nuclear Energy 195, 110176 (2024).
【4】Zhang, J.R., Liu, L.*, Liu, S., Gu, H.Y. A theoretical model of gas column breakup under a swirling flow field based on the jet theory. Annals of Nuclear Energy204, 110552 (2024).
【5】Wang, K., Cheng, Z., Wu, N., Zhang, Q., Liu, L*. Theoretical model on the slug/churn transition based on the generation and evolution of the huge waves. Physics of Fluids 35, 043329 (2023).
【6】Wang, K., Liu, L.*, Xu, D.H., Gu, H.Y. Simulation and optimization of a conical type swirl-vane separator in nuclear SG. Nuclear Engineering and Design 408, 112325 (2023).
【7】Liu, S., Wang, K., Liu, L.*, Zhang, Q., Gu, H.Y. Characterization of liquid film distribution and sub-flow regimes of annular flow in helically coiled tubes using ring island array sensor. International Journal of Multiphase Flow 160, 104357 (2023).
【8】Liu, L., Hu, B., Liu, S., Wang, K., Gu, H.Y.* Recognition of gas-liquid flow regimes in helically coiled tube using wire-mesh sensor and KNN algorithm. International Journal of Multiphase Flow 154, 104144 (2022).
【9】Liu, L., Zhang, J.R., Hu, B., Dai, J.T., Wang, K., Gu, H.Y.* Flow pattern transition and void fraction prediction of gas-liquid flow in helically coiled tubes. Chemical Engineering Science 258, 117751 (2022).
【10】Liu, S., Liu, L.*, Gu, H.Y., Wang, K. Optimization and application of the concentric conductance probes in liquid film thickness measurement in a helically coiled tube. Measurement Science and Technology 33, 085106 (2022).
【11】Liu, S., Liu, L.*, Gu, H.Y., Wang, K. Experimental study of gas-liquid flow patterns and void fraction in prototype 5×5 rod bundle channel using wire-mesh sensor. Annals of Nuclear Energy 171, 109022 (2022).
【12】Zhang, Q., Liu, L.*, Zeng, Y., Zeng, C., Gu, H.Y. Numerical simulation of inherent boric mixing phenomenon inside reactor annular down-comer. Progress in Nuclear Energy 148, 104230 (2022).
【13】Wang, K.*, Zhang, Q., Wu, P.F., Liu, L. Numerical study of flow and heat transfer characteristics in shell-and-plate heat exchangers. Heat Transfer Research 53(8), 99-119 (2022).
【14】Liu, L., Zhang, J.R., Liu, S., Wang, K., Gu, H.Y.* Decay law and swirl length of swirling gas-liquid flow in a vertical pipe. International Journal of Multiphase Flow 137, 103570 (2021).
【15】Zhang, Q., Liu, L., Xiao, Y., et al. Experimental study on the transverse mixing of 5× 5 helical cruciform fuel assembly by wire mesh sensor, Annals of Nuclear Energy 164, 108582 (2021).
【16】Liu, L., Ying, B. B., Gu, H.Y.*, et al. Experimental study on the separation performance of a full-scale SG steam-water separator. Annals of Nuclear Energy 141, 107330 (2020).
【17】Liu, L., Ying, B.B.* Effect of water level on performance of swirl-vane separator and steam dryer in PWR SG. Nuclear Engineering and Design 370, 110918 (2020).
【18】Liu, L., Ying, B.B., Gu, H.Y.*, et al. Effect of velocity and pressure on performance of a full-scale SG steam separator package. Nuclear Engineering and Design 110551 (2020).
【19】Liu, L., Wang, K., Bai, B.F.* Experimental study on flow patterns and transition criteria for vertical swirling gas-liquid flow. International Journal of Multiphase Flow 122, 103113 (2020).
【20】Liu, L., Wang, K., Bai, B.F.* Comparative investigation of liquid film thickness and interfacial wave properties of swirling gas-liquid flows. Chemical Engineering Science 213, 115407 (2020).
【21】Liu, L., Bai, B.F.* Experimental study and similarity analysis of separation efficiency of swirl-vane separator. Nuclear Engineering and Design 359, 110442 (2020).
【22】Lin, R., Wang, K.*, Liu, L., et al. Study on the characteristics of interfacial waves in annular flow by image analysis. Chemical Engineering Science 212, 115336 (2020).
【23】Lin, R., Wang, K.*, Liu, L., et al. Application of the image analysis on the investigation of disturbance waves in vertical upward annular two-phase flow. Experimental Thermal and Fluid Science 114, 110062 (2020).
【24】Wang, K.*, Wu, P., Tang, Z., Liu, L., et al. Flow patterns and pressure drop in the shell-and-plate heat exchangers. International Journal of Multiphase Flow 129, 103323 (2020).
【25】Liu, L., Bai, B.F.* Flow regime identification of swirling gas-liquid flow using image processing technique and neural networks. Chemical Engineering Science 199, 588-601 (2019).
【26】Liu, L., Bai, B.F.* A mechanistic model for the prediction of swirling annular flow pattern transition. Chemical Engineering Science 199, 405-416 (2019).
【27】Liu, L., Bai, B.F.* Error analysis of liquid holdup measurement in gas-liquid annular flow through circular pipes using high-speed camera method. Journal of Shanghai Jiao Tong University (Science) 23(1), 34-40 (2018).
【28】Liu, L., Bai, B.F.* Generalization of droplet entrainment rate correlation for annular flow considering disturbance wave properties. Chemical Engineering Science 164, 279-291 (2017).
【29】Liu, L., Wang, S., Bai, B.F.* Thermal-hydraulic comparisons of 19-pin rod bundles with four circular and trapezoid shaped wire wraps. Nuclear Engineering and Design 318, 213-230 (2017).
【30】Liu, L., Bai, B.F.* Numerical study on swirling flow and separation performance of swirl vane separator. Interfacial Phenomena and Heat Transfer 5(1), 9-21 (2017).
【31】Liu, L., Bai, B.F.* Scaling laws for gas-liquid flow in swirl vane separators. Nuclear Engineering and Design 298, 229-239 (2016).

中文论文：
【1】刘莉，袁俊杰，顾汉洋，包睿祺，刘茂龙，王科. 铅铋快堆SGTR事故下高压过冷水注入高温铅铋合金流动传热数值模拟研究, 核动力工程, 2023, 44(04), 55-64.
【2】包睿祺, 刘莉*, 刘帅, 袁俊杰, 刘茂龙, 顾汉洋. 用于探测液态金属-气体的DLC涂层式丝网探针数值模拟与结构优化, 原子能科学技术, 2023.
【3】刘莉, 刘帅, 张嘉荣等. 基于环-岛阵列式传感器的螺旋管内环状流中液膜分布特性研究[J].原子能科学技术, 2022, 56(11): 2334-2342.
【4】袁俊杰，刘莉*，顾汉洋. U型管式蒸汽发生器内改性壁面强化传热数值研究. 核动力工程, 2022, 43(S2), 94-99.
【5】刘帅, 刘莉*, 顾汉洋, 张嘉荣. 基于WMS的无旋和螺旋气液两相流流型及空泡份额实验研究. 核动力工程, 2022, 43(5), 43-50.
【6】戴军涛, 刘莉*, 刘帅, 顾汉洋, 王科. 基于丝网探针的螺旋管内气液两相流气泡行为研究. 化工学报. 2022, 73(10), 4377-4388.
【7】刘莉, 王科*, 林睿南, 戴军涛. 基于图像分析技术的环状流内界面波识别与捕捉. 科学通报, 2021, 66(26), 3497-3504.
【8】徐德辉，顾汉洋*，刘莉，黄超. 新型锥形式旋叶汽水分离器热态试验与数值研究. 上海交通大学学报, 2021, 55(9), 1087-1094.
【9】刘莉, 白博峰*. 基于可视化和图像处理的气液螺旋两相流流型研究. 工程热物理学报, 2022, 43(11), 2978-2985.
【10】刘莉, 白博峰*. 气液螺旋环状流界面波失稳机理. 中国科学院大学学报, 2017, 34(2), 153-159.

《工程与社会》 授课对象：本科生 课时：32学时
《工程学导论》 授课对象：本科生 课时：48学时

发明专利授权：
【1】一种圆管内气液两相环状流截面相含率的测量及修正方法，ZL 2018 1 0327373.8.
【2】一种圆管内气液两相环状流液膜厚度的测量及修正方法，ZL 2018 1 0327886.9.
【3】一种基于蒸汽闭式循环的汽水分离性能热态试验系统，ZL 2019 1 1018114.8.
【4】一种基于电导率法的在线测量蒸汽湿度的系统及方法，ZL 2019 1 1016913.1.
【5】一种线列阵传感器测量误差的修正方法，ZL 2019 1 1035085.6.
【6】一种丝网探针浓度探测装置的校正系统及方法，ZL 2020 1 1264170.2.
【7】一种用于测量壁面液膜厚度的叉指阵列装置及检测方法，ZL 2021 1 0675040.6.
【8】一种用于测量原型棒束通道内流体参数的丝网传感器组件，ZL 2021 1 0675152.1.
【9】基于丝网探针的气液两相流场特征重构方法、系统及介质，ZL 2020 1 1141070.0.
【10】一种适用于高温高压流动工况下的丝网传感器组件, ZL 2021 1 0675151.7.
【11】用于测试汽水分离再热器波形板组件分离性能的试验系统, ZL 2020 1 0484524.8.


软件著作权：
【1】电导式丝网探针数据后处理软件，登记号：2021SR0379333.
【2】圆管内气液两相流中液膜厚度图像处理软件，登记号：2021SR0540616.
【3】基于三维空泡矩阵的复杂螺旋通道内气液两相流场分析软件，登记号：2022SR1049536.

2023 教育部科技进步奖一等奖
2022 中国电力科技进步一等奖
2022 中国核能行业协会科技进步奖一等奖
2021 中国核能行业协会技术发明奖二等奖
2020 上海市“巾帼建功标兵”称号
2020 上海交通大学机动学院博士后考核优秀
2019 上海交通大学机动学院博士后考核优秀
2018 上海市“超级博士后”激励计划

2023 中国核学会核反应堆热工流体力学分会第三届学术年会 优秀论文奖
2023 第四届热与流体动力学国际研讨会（ISTFD2023）最佳论文奖
2021 第二届热与流体动力学国际研讨会（ISTFD2021）优秀报告奖
2018 第三届流动传热实验与模拟国际会议（ENFHT'18）优秀报告奖
2015 第七届中韩热工水力国际会议（WORTH-7）最佳论文奖