Hasegawa Laboratory, Institute of Industrial Science, The University of Tokyo

LIU Ming

　　　　　

Profile

LIU Ming

Postdoctoral Research Associate
Institute of Industrial Science
The University of Tokyo

Room: De201
TEL&FAX: +81-(0)3-5452-6171 (EXT: 56171)
E-mail:  liuming [at] iis.u-tokyo.ac.jp

Japanese page is here

Education

Sep. 2012-Jun. 2016
BS, Thermal and Power Engineering, Southeast University
Aug. 2016-Jun.2021
Ph.D., Power Engineering and Engineering Thermophysics, Tsinghua University

Research Interests

Topology optimization; Immersed boundary method; Turbulent flow; Porous medium; Turbomachinery

Publications (Research Articles)

[1] Liu M, Hasegawa Y.
“Adjoint-based shape optimization for compressible flow based on volume penalization method ”
Engineering with Computers, Online (2024).

[2] Liu M, Hasegawa Y.
“Inverse design optimization of the spatial distribution of emissivity for radiative transfer problems based on adjoint method ”
Solar Energy Materials and Solar Cells, 277: 113085 (2024).

[3] Liu M, Tan L, Zhao X, Ma C, Gou J.
“Theoretical model on transient performance of a centrifugal pump under start-up conditions in pumped-storage system ”
Energy, 299: 131452 (2024).

[4] Liu M, Matsubara K, Hasegawa Y.
“Adjoint-based shape optimization for radiative transfer in porous structure for volumetric solar receiver ”
Applied Thermal Engineering, 246: 122899 (2024).

[5] Han Y, Liu M, Tan L.
“A review on the application of hybrid RANS-LES methods in hydraulic machinery ”
Ocean Engineering, 305: 117943 (2024).

[6] Lu Y, Liu M, Tan L, Liu D.
“Design Method for Impeller of Centrifugal Pump With Guide Vanes Based on Oseen Vortex ”
ASME Journal of Fluids, Engineering, 146: 061205 (2024).

[7] Liu M, Hasegawa Y.
“Adjoint-based shape optimization for radiative transfer using level-set function and volume penalization method ”
International Journal of Heat and Mass Transfer, 210: 124158 (2024).

[8] Liu M, Han Y, Tnan L, Lu Y, Ma C, Gou J.
“Theoretical prediction model of transient performance for a mixed flow pump under fast start-up conditions ”
Physics of Fluids, 35(2): 025125 (2023).

[9] Wang H, Tan L, Liu M, Liu X, Zhu B.
“Numerical investigation on the transition flow around NLF airfoil ”
Energies, 16(4): 1826 (2023).

[10] Liu M, Hasegawa Y.
“Volume penalization method for solving coupled radiative-conductive heat transfer problems in complex geometries ”
International Journal of Heat and Mass Transfer, 200: 123499 (2023).

[11] Zhai W, Liu M, Huang C, Cheng D, Tan L.
“Large Eddy Simulation of Flow Characteristics around Cylinders with Crosswise and Streamwise Arrangements in Ocean Energy ”
Energies, 16(22): 7605 (2023).

[12] Liu M, Wang B, Tan L.
“Correlation of drag coefficient between rising bubbles in chain ”
Physics of Fluids, 34(4): 043314 (2022).

[13] Liu M, Tan L, Cao S.
“Performance Prediction and Geometry Optimization for Application of Pump as Turbine”
A Review. Frontiers in Energy Research, 9: 818118, 2022

[14] Han Y, Liu M, Tan L.
“Method of data-driven mode decomposition for cavitating flow in a Venturi nozzle ”
Ocean Engineering, 261: 112114 (2022).

[15] Lu Y, Tan L, Han Y, Liu M.
“Cavitation-vibration correlation of a mixed flow pump under steady state and fast start-up conditions by experiment ”
Ocean Engineering, 251: 111158 (2022).

[16] Liu M, Tan L, Cao S.
“Influence of viscosity on energy performance and flow field of a multiphase pump”
Renewable Energy, 162: 1151-1160, 2020.

[17] Liu M, Tan L, Cao S.
“Method of dynamic mode decomposition and reconstruction with application to a three-stage multiphase pump”
Energy, 208: 118343, 2020.

[18] Liu M, Tan L, Xu Y, Cao S.
“Optimization design method of multi-stage multiphase pump based on Oseen vortex”
Journal of Petroleum Science and Engineering, 184: 106532, 2020

[19] Liu M, Tan L, Cao S.
“Dynamic mode decomposition of gas-liquid flow in a rotodynamic multiphase pump"
Renewable Energy, 139: 1159-1175, 2019.

[20] Liu M, Tan L, Cao S.
“Dynamic mode decomposition of cavitating flow around ALE 15 hydrofoil”
Renewable Energy, 139: 214-227, 2019.

[21] Liu M, Tan L, Cao S.
“Theoretical model of energy performance prediction and BEP determination for centrifugal pump as turbine”
Energy, 172: 712-732, 2019.

[22] Liu M, Tan L, Cao S.
“A review of prewhirl regulation by inlet guide vanes for compressor and pump”
Proceedings of the Institution of Mechanical Engineers, Part A: Journal of Power and Energy, 233(6): 803-817, 2019

[23] Liu MTan L, Cao S.
“Cavitation-vortex-turbulence interaction and one-dimensional model prediction of pressure for hydrofoil ALE15 by large eddy simulation ”
ASME Journal of Fluids Engineering, 141: 021103 (2019).

[24] Liu M, Cao S.
“Numerical analysis for interphase forces of gas-liquid flow in a multiphase pump”
Engineering Computations, 35(6): 2386-2402, 2018.

[25] Liu M, Tan L, Liu Y B, Xu Y, Cao S.
“Controllable velocity moment and prediction model for inlet guide vanes of a centrifugal pump”
Engineering Computations, 35(3): 1364-1382, 2018.

[26] Liu M, Tan L, Liu Y B, Xu Y, Cao S.
“Large eddy simulation of cavitation vortex interaction and pressure fluctuation around hydrofoil ALE 15”
Ocean Engineering, 163: 264-274, 2018.

[27] Liu M, Cao S.
“Design method of controllable blade angle and orthogonal optimization of pressure rise for a multiphase pump”
Energies, 11: 1048, 2018.

[28] Liu M, Tan L, Cao S.
“Influence of geometry of inlet guide vanes on pressure fluctuations of a centrifugal pump”
ASME Journal of Fluids Engineering, 140: 091204, 2018.

[29] Liu M, Tan L, Liu M, Hao Y, Xu Y.
“Influence of prewhirl angle and axial distance on energy performance and pressure fluctuation for a centrifugal pump with inlet guide vanes ”
Energies, 10(5): 695 (2017).

Proceedings in English

[1] Liu M, Hasegawa Y.
“Shape optimization for compressible flows based on volume penalization method and adjoint method ”
The 3rd Pacific Rim Thermal Engineering Conference(PRTEC), Honolulu, USA (2024).

[2] Guan F, Liu M, Hasegawa Y.
“Dissimilar Heat Transfer Enhancement in a Flow between Parallel Porous Plates with an Upstream Disturbance at Low Reynolds Numbers ”
The 3rd Pacific Rim Thermal Engineering Conference(PRTEC), Honolulu, USA (2024).

[3] Liu M, Liu Z, Kato C, Hasegawa Y.
“Discriminator for identifying an under-resolved flow field and its applications to a novel turbulence model for a wall-bounded flow ”
The 38th CFD Symposium, Tokyo, Japan (2024).

[4] Endo T, Liu Z, Liu M, Yugeta Y, Itoh T, Kato C, Hasegawa Y.
“Development of Wall Model for Large Eddy Simulation Using Generative Adversarial Networks ”
The 38th CFD Symposium, Tokyo, Japan (2024).

[5] Liu M, Hasegawa Y.
“Optimization of the spatial distribution of the emissivity to enhance the thermal absorption efficiency of porous structures for volumetric solar receivers ”
61st National Heat Transfer Symposium of Japan, Kobe, Japan (2024).

[6] Guan F, Liu M, Han X, Hasegawa Y.
“Dissimilar heat transfer enhancement by a travelling wave-like disturbance induced between parallel porous plates with an upstream obstacle ”
61st National Heat Transfer Symposium of Japan, Kobe, Japan (2024).

[7] Liu M, Hasegawa Y.
“Carbon dioxide thermochemical splitting using non-stoichiometric compound, III: Shape optimization of porous structure for combined conduction-convection-radiation heat transfer ”
JSME Thermal Engineering Conference 2023, Kobe, Japan (2023).

[8] Guan F, Liu M, Han X, Hasegawa Y.
“Heat transfer and pressure drop characteristics of a flow through multiple parallel porous plates ”
JSME Thermal Engineering Conference 2023, Kobe, Japan (2023).

[9] Pan J, Liu M, Matsubara K, Hasegawa Y.
“Carbon dioxide thermochemical splitting using non-stoichiometric compound, II: Combined analysis of thermal conduction, convection and radiative heat transfer in a solar thermal receiver ”
JSME Thermal Engineering Conference 2023, Kobe, Japan (2023).

[10] Liu M, Hasegawa Y.
“Shape optimization of porous structures for radiative transfer based on adjoint method ”
60st National Heat Transfer Symposium of Japan, Fukuoka, Japan (2024).

[11] Liu M, Hasegawa Y.
“Radiative transfer simulation for complex geometries based on immersed boundary technique and level-set function ”
JSME Thermal Engineering Conference 2022, Tokyo, Japan (2022).

[12] Pan J, Liu M, Nakakura M, Matsubara K, Hasegawa Y.
“Numerical simulation of combined radiation-conduction-convection heat transfer in porous structure based on an immersed boundary method ”
JSME Thermal Engineering Conference 2022, Tokyo, Japan (2022).

[13] Liu M, Tan L, Cao S.
“Influence of prewhirl angle on a centrifugal pump with inlet guide vane running at turbine mode”
29th IAHR Symposium on Hydraulic Machinery and Systems, Kyoto, Japan (2019).

[14] Liu M, Tan L, Cao S, Wang B.
“Numerical investigation of initial stage of bubble rise”
Asian Working Group- IAHR’s Symposium on Hydraulic Machinery and Systems, Beijing, China (2018).