Professor  Tsinghua Univeristy
Address: Tsinghua University, Haidian district, Beijing10084
Office Tel:(+86) 10-62785566    
E-mail：jcb@tsinghua.edu.cn

PhD 1986/08—1989/12 Institute of Water Conservancy and Hydropower Research, Hydraulics， Beijing
MS 1983/08—1986/ 07 Dept. Hydraulic Engineering, Tsinghua University, Beijing
BA 1978/09—1983/07 Dept. Hydraulic Engineering, Tsinghua University, Beijing

2002/12— present  Professor，Dept. Hydraulic Engineering, Tsinghua University
1998/05— 2011/11   Associate Professor， Department of Hydraulic Engineering, Tsinghua University
1994/04— 1998/04  Research Engineer，Unic Corporation(Tokyo), Civil Engineering
1990/01— 1994/03  Assistant Professor，Chuo University (Tokyo), Civil Engineering
ACADEMIC EXCHANGE
Visiting Scholar, Chuo University, Japan (1989/12 – 2003/ 03)
Visiting Scholar, Kyushyu University, Japan (2003/ 03 –4)

1.  Engineering Hydraulics

2.  Computational Fluid Mechanics

1.      Watershed flood model and its application.

   Based on the comparison of the series coupling models of hydrology and hydrodynamics and the dynamic unidirectional coupling between hydrological model and one-dimensional hydrodynamic model at home and abroad， a DBCM (Dynamic Bidirectional Coupling Model) direct Dynamic Coupling Model is being established for flood and waterlogging prediction ( refer to: NAT. Hazards Earth Syst. Sci., 21, 497-515).

It is the direct dynamic bidirectional coupling between the distributed hydrological model and the two-dimensional hydrodynamics. The spatial conservation discrete scheme is adopted to ensure the conservation of water and momentum through the coupled dynamic boundary. The explicit time scheme is adopted to make the model have better computational efficiency. The computational efficiency of the model is further improved by multi-grid technology.

2.      Watershed environment model and its application

   Based on the comparison of the existing land model and water model integration or series coupling, a watershed water environment model based on DBCM is proposed. The land model and water model are dynamically coupled, which belongs to full coupling model or mechanism coupling model. The proposed model will keep good accuracy and improved computational efficiency.

   National Key Basic Research Program of China. 973 Program Program. Water ecological process, waterenvironmental effects and ecological safety regulation of wetlands in Huang-Huai-Hai region.  Through the cooperation with the Ministry of Water Resources and the China Three Gorges Corporation, we have carried out long-term research on the water environment characteristics of the Three Gorges Reservoir, simulated and predicted the change trend of water level and water environment before and after the construction of the major river sections in the Three Gorges Reservoir area, and undertaken several major scientific research projects.

3. Computational Fluid Mechanics

    A mult-step finite element method based on the Taylor expansion is proposed, which has the advantages of good numerical stability and high calculation precision.

Study on flood discharge capacity of spillway tunnel of Dagu and Jieju Hydropower Station in Tibet, 2019-2021

Water Resources Protection and Utilization Research for Yarlung Zangbo River, 2021-2023

Flood discharge and energy dissipation of Baihetang hydropower project, appointed by the East China Institute of exploration and design of water conservancy and hydropower, 2009-2012

The shape optimization of the plunge pool and energy dissipation of Xiluodu hydropower project, appointed by the Chengdu Institute of exploration and design for water conservancy and hydropower, 2007-2009

Environment performance at near dam region of the Three Gorges reservoir, appointed by the Three Gorges Project Corporation, 2005-2007

River rehabilitation of the Ju river in Beijing City, appointed by the Planning Bureau of  Pinggu District, Beijing, 2003-2006

River rehabilitation of the Kalangguer river in Tacheng city, appointed by the Development and Reform Commission of Tacheng city, Xinjiang, 2003-2006

Member of Hydraulic Engineering (1998 – present)
Vice-chairmen, Hydraulics Committee of waterpower, 2017-present

[1] National Science and Technology Progress Award, National Science and Technology Progress Award, Key Technology and Application of Dynamic Characteristics and Habitat Factors Simulation and Control in Complex Waters, Ranking 2019-J-222-2-01-R05, December 2019

[2] Sichuan Science and Technology Progress Award, First Prize, Key Technology and Application of Flood Discharge and Energy Dissipation Safety and Intelligent Inspection for High Dam Project, 2020, Ranking (6/10)

[3] Electronic channel and its application for the South-North Water Transfer Middle Route Project,  Chinese University Scientific and Technological Progress Award, first prize, 2008

[4] The theory and application of the mathematical model for the main stream and its tributaries of the Yellow river, Chinese University Scientific and Technological Progress Award, second prize, 2002

[5] The mechanism and the modelling for the pollutant mixing and transportation in the water, Natural prize of Hubei province, second prize, 2007

[6] The change rule and its application of the hydrodynamics and environmental performance for the near dam region of the large hydropower project, Chinese University Scientific and Technological Progress Award, first prize, 2010

[7] First prize in teaching achievements of Tsinghua University, 2010

Awards

[1] Interactions between the urban flood evolution and the obstructions, NSFC 51679121, 2017/01-2020/12

[2] Experimental investigation and numerical simulation of flood propagation affected by urban structures (NSFC 51511130073), The coupling mechanism and its application between the water flow, vegetation and the sedimentation, NSFC 51279082, 2013/01-2016/12

[3] The effects of the hydropower stations on the sedimentation and the water temperature,   NSFC 90610028, 2011/01-2013/12

[4] Dynamic mechanism and systematic simulation of water environmental process in wetland (973 Program 2006CB403304,, 2006/01-2010/12

[5] The investigations of the water temperature and the environmental capacity of the Three Gorges Reservoir,  NSFC 50379022,, 2004/01-2006/12

[6] The large scale water pollution simulation model for the Three Gorges Reservoir, NSFC 59979013, 2000/01-2003/12

Jiang Chunbo, Zhangyongliang, Ding Zeping, Coputational Fluid Mechanics, China Electric Power Press, Beijing, ISBN 978-7-302-15631-4, 2007

Li Yuzhu, Jiang Chunbo, Engineering Fluid Mechanics, Tsinghua University Press, Beijing, ISBN 978-7-5083-5876-5, 2007 

Kaiqi Chen, Chunbo Jiang， Numerical simulation of environmental impact assessment of surface water and its application, China Environmental Publishing Group, April 2018, ISBN  978-7-5111-3378-6

Deng Xiaomei, Jiang Chunbo, Wang Yuhong, Strategic Planning for the sustainable development of the Hebei Hengshui Lake national nature researvoir,  2011 

[1] Chunbo Jiang, Qi Zhou, Wangyang Yu, et al. A dynamic bidirectional coupled surface flow model for flood inundation simulation[J]. Nat. Hazards Earth Syst. Sci., 21, 497–515, 2021 https://doi.org/10.5194/nhess-21-497-2021

[2] JIANG Chunbo，ZHOU Qi，SHEN Yanxia，LIU Gaofei，ZHANG Di，Review on hydrological and hydrodynamic coupling models for flood forecasting in mountains watershed，Journal of Hydraulic Engineering，2021，https://doi.org/10.13243/j.cnki.slxb.2021000

[3] JIANG Chunbo, ZHOU Qi, SHEN Yanxia, LIU Gaofei, DUAN Yanhua，Effects of dividing flow on the flow pattern transition in urban streets，Journal of Hydroelectric Engineering， 2021，https://kns.cnki.net/kcms/detail/11.2241.TV.20210311.1640.004.htm

[4] Zhang Mingwu, Jiang Chunbo, Huang Heqing, et al. Analytical models for velocity distributions in compound channels with emerged and submerged vegetated floodplains, Chinese Geographical Science, 2017, 27(4), 577-588

[5] Zhang Di, Jiang Chunbo, Cheng, Liang, et al. A refined r-factor algorithm for TVD schemes on arbitrary unstructured meshes. INTERNATIONAL JOURNAL FOR NUMERICAL METHODS IN FLUIDS, 2016, 80(2), 105-139

[6] Zhang Di, Jiang Chunbo, Liang Dongfang, et al. A review on TVD schemes and a refined flux-limiter for steady-state calculations. JOURNAL OF COMPUTATIONAL PHYSICS, 2015, 302, 114-154

[7] Di Zhang , Chunbo Jiang ,  Dongfang Liang , Zhengbing Chen , Yan Yang and Ying Shi, A refined volume-of-fluid algorithm for capturing sharp fluid interfaces on arbitrary meshes,  Journal of Computational Physics,  2014, 274: 709-736

[8] Di Zhang, Chunbo Jiang, Chen Yang, Yan Yang. Assessment of different reconstruction techniques for implementing the NVSF schemes on unstructured meshes, INTERNATIONAL JOURNAL FOR NUMERICAL METHODS IN FLUIDS, 2014, 74(3), 189-221

[9] Chen, Z., Jiang, C., Nepf, H., 2013. Flow adjustment at the leading edge of a submerged aquatic canopy. Water Resources Research, 49, 5537–5551.

[10] Chen Yang, Chunbo Jiang, Binliang Lin, 2013. Modelling Graded Sediment Transport and Bed Evolution in a Tidal Harbour. Journal of Coastal Research, 29(3): 736-744 

[11] YANG Chen, JIANG Chunbo, A New Model For Predicting Bed Evolution In Estuarine Area And Its Application In Yellow River Delta, Journal of Hydrodanymics, 2011,23(4):823-828 

[12] Jiang ChunBo, LIANG Dongfang. Study on the critical submergence of surface vortices and the design of anti-vortex intakes. Science China: Tech Sci. 2011, 54: 799-804 

[13] Wang Yingkui, Jiang Chunbo, Liang Dongfang. Comparison between empirical formulae of intake vortices. Journal of Hydraulic Research, 2011, 49: 1, 113-116 [3]

[14] Hui EQ, Hu XE, Jiang CB, et al. A Study Of Drag Coefficient Related With Vegetation Based On The Flume Experiment, JOURNAL OF HYDRODYNAMICS, 2010, 22(3):329-337. 

[15] Chen Yang,  Binliang Lin, Chunbo Jiang, Ying Liu. Predicting near field dam-break flow and impact force using a 3D model. Journal of Hydraulic Research,2010,48( 6): 784–792

[16] Chunbo JIANG, Chen YANG, Dongfang LIANG, Computation of shallow wakes with the fractional step finite element method, Journal of Hydraulic Research, 2009, 47(1):F127-136,  SCI

[17] MA FangKai,  JIANG ChunBo,  Rauen William B, Lin BinLiang,  Modelling sediment transport processes in macro-tidal estuary, Science in China, Series E, Technological Sciences, 2009, 52(11):3368-3375,  SCI

[18] KONG QingRong, JIANG ChunBo, QIN JunJie & GUO Bin, Sediment transportation and bed morphology reshaping in Yellow River Delta, Science in China, Series E, Technological Sciences, 2009, 52(11):3382-3390,  SCI

[19]  Chun Bo Jiang, Y. L. Li, Y.S. Li, et al., Experimental Study of Steady Concentration Fields in Turbulent Wakes, Experiments in Fluids , 2001, Vol..31, 269-276.  SCI

[20] D.F. Liang, C.B.Jiang, Y.L. Li, Cellular neural network to detect spurious vectors in PIV data, Experiments in Fluids (2003) , Vol.34: 52-62  SCI

[21] D.F. Liang, C.B.Jiang, Y.L. Li, A Combination Correlation-based Interrogation and Tracking Algorithm for Digital PIV Evaluation, Experiments in Fluids (2002), Vol.33: 684-695  SCI

[22] JIANG Chun Bo, DU Li Hui and Liang Dongfang, Study of Concentration Fields in Turbulent Wake Regions,  Journal of Hydraulic Research, Vol.41, No.3, 2003,311-318   SCI 

[23] JIANG Chun Bo,  Li Kai， Liu Ning, Zhang Qing Hai, Implicit Parallel FEM Computation of Shallow Water Equations, Tsinghua Science and Technology, Vol.10, No.3, 2005, 364-371

[24] C. B. Jiang, M. Kawahara and K. Kashiyama, A Taylor-Galerkin-Based Finite Element Method For Turbulent Flows, Fluid Dynamics Research 9, 165-178, 1992.  EI, FDRSEH ISSN: 0169-5983

[25] C. B. Jiang, M. Kawahara, A three-step finite element method for unsteady incompressible flows, Journal of Computational Mechanics, Vol.11(5,6),355-370, 1993

[26] C. B. Jiang, M. Kawahara, The analysis of unsteady incompressible flows by a Three-Step finite element method, Int. J. Numer. Meth. Fluids, 1993, Vol.16,793-811 

[27] C. B. Jiang, M. Kawahara, K. Hatanaka and K. Kashiyama, A three-step finite element method for convection dominated incompressible flows, Computational Fluid Dynamics Journal, Vol.1, no.4, 447-466, 1993

[28] K.Kashiyama, K.Kaneko, C.B.Jiang and T.Yamada, A three-step Taylor-Galerkin finite element method for orographic rainfall, Journal of wind Engineering and Industrial Areodynamics, 46-47, 1993, 731-740.  SCI