教育经历
· 2008.2 - 2012.6
Eindhoven University of Technology - Applied Mathematics-Scientific Computing - Doctor of Science
· 2010.10 - 2011.3
University of Nottingham - Visiting Scholar
· 2007.4 - 2008.1
Tongji University - Wind Engineering - Ph.D student
· 2004.9 - 2007.3
Northwestern Polytechnical University - Engineering Mechanics - Master of Engineering
· 2000.9 - 2004.6
Northwestern Polytechnical University - Civil Engineering - Bachelor of Engineering
工作经历
· 2016.7 - 2017.9
Tianjin Key Laboratory of Cognitive Computing and Application → Tianjin University → Associate Professor
· 2013.1 - 2016.6
High Performance Computing Center → Tianjin University → Assistant Professor
· 2012.10 - 2013.1
Shenzhen Research Institute → City University of Hongkong → Research Fellow
研究方向
· AI+长距离引排水工程，即结构-水力-水量-水质智能监测、感知和联合调控基础理论与工程应用，包括明渠非恒定流、管道瞬变流、明满交替流、气液两相流、输水管道结构动力学、流固耦合、地下水动力学、地表径流、环境水力学等正反问题的数学建模、计算方法和实际工程应用。
个人简介
Qingzhi Hou holds B.S. and M.Sc degrees in Civil Engineering and Engineering Mechanics from Northwestern Polytechnical University. From 2008 to 2012, he did his Ph.D at Eindhoven University of Technology with the scholarship award from China Scholarship Council (CSC), where he focused on numerical and experimental study of unsteady conduit flows. From 2010 to 2011, as a Visiting Scholar, he visited the University Technology Centre for Mechanical Transmissions Systems, Gas Turbine Transmission Systems, University of Nottingham. Before joining Tianjin university in 2013, he was a Research Fellow at Shenzhen Research Institute, City University of Hong Kong.
Dr. Hou is currently working on Lagrangian particle modeling and experiments of multi-phase fluid dynamics, its visualization and engineering application. His focus includes meshless methods, high performance computing, scientific computing and visualization.
学术成果
论文成果
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[1]Fluid-structure interaction with pipe-wall viscoelasticity during water hammer
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[3]Dynamic force on an elbow caused by a traveling liquid slug
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[4]Smoothed particle hydrodynamics simulations of flow separation at bends
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[5]Experimental and numerical investigations on filling of a large-scale pipeline
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[6]Water-column mass losses during emptying of a large-scale pipeline by pressurized air
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[7]Generalized finite difference time domain method and its application to acoustics
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[9]An improved one-dimensional model for liquid slugs travelling in pipelines
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[10]Improved one-dimensional models for rapid emptying and filling of pipelines