余锡平

教授 

E-mail:yuxiping@tsinghua.edu.cn

电话号码:+86-10-62776777

通信地址:清华大学水利水电工程系

邮编: 100084 

教育背景

1984年毕业于清华大学水利工程系

1986年获清华大学水力学与河流动力学专业硕士学位

1990年获日本东京大学海岸工程专业博士学位

工作履历

2001年至今 清华大学水利水电工程系教授

2001年10月 教育部长江学者奖励计划特聘教授

2003年-2008年任水利系系主任

1999年-2000年 上海交通大学工程力学系教授

1997年-1999年 日本东京大学土木工程系副教授

1993年-1997年 日本长崎大学土木工程系副教授

开设课程

流体力学

研究领域

水波理论及海岸水动力学

水沙两相流理论及海岸泥沙动力学

海气相互作用及台风风暴潮过程

海岸工程建筑物先进设计理论

海岸环境的安全性及舒适性评价与沿岸地区可持续发展战略

学术兼职

教育部海洋科学类教学指导委员会 委员

水沙科学与水利水电工程国家重点实验室(清华大学)学术委员会委员

《International Journal of Ocean and Coastal Engineering》主编

《Coastal Engineering》编委

奖励与荣誉

1984年 清华大学优良毕业生

2001年 教育部长江学者奖励计划特聘教授

2005年 清华大学研究生“良师益友”荣誉称号

2009年 教育部自然科学一等奖

2009年 日本东京大学工学院 Fellow称号

2012年 清华大学优秀博士论文指导教师

2017年 清华大学优秀博士论文指导教师

2018年 清华大学本科生“清韵烛光-我最喜爱的教师”称号

2019年 清华大学优秀博士论文指导教师

学术成果

【专著】

[1] 余锡平,《近岸水波的数值方法》,科学出版社,2017

[2] 余锡平,《近岸水波的解析理论》,科学出版社,2012

[3] 余锡平(主编),《浙江沿海及海岛开发战略研究:滩涂及海岛开发》,浙江人民出版社,2012年

[4] 余锡平(主编),《江苏沿海地区综合开发战略研究:滩涂资源评价及合理开发应用》,江苏人民出版社,2008年


【代表性论文】

1. Shan K., Yu X.* (2020). A Simple Trajectory Model for Climatological Study of Tropical Cyclones. Journal of Climate, 33 (18): 7777–7786.

2. Shan K., Yu X.* (2020). Enhanced understanding to poleward migration of tropical cyclone genesis. Environmental Research Letters, 15: 104062

3. Shan K., Yu X.* (2020). Interdecadal variability of tropical cyclone genesis frequency in western North Pacific and South Pacific ocean basins. Environmental Research Letters, 15: 064030.

4. Xu Y., Yu X.* (2020). Enhanced formulation of wind energy input into waves in developing sea. Progress in Oceanography, 186: 102376.

5. Lin X.*, Chamecki M., Yu X. (2020). Aerodynamic and deposition effects of street trees on PM2.5 concentration: from street to neighborhood scale. Building and Environment, 185: 107291. 

6. Shi H., Si P., Yu X.* (2019). A two-phase SPH model for massive sediment motion in free surface flows. Advances in Water Resources, 129: 80-98.

7. Si P., Shi H., Yu X.* (2019). A general frictional-collisional model for dense granular flows. Landslides, 16: 485-496.

8. Si P., Shi H., Yu X.* (2018). A general numerical model for surface waves generated by granular material intruding into a water body. Coastal Engineering, 142: 42-51.

9. Si P., Shi H., Yu X.* (2018). Development of a mathematical model for submarine granular flows. Physics of Fluids, 30: 083302.

10. Liang L., Yu X.*, Bombardelli F. (2018). A general formulation of relative motion between two phases in sediment-laden water flows. International Journal of Multiphase Flow, 109: 63-83. 

11. Chen Y., Zhang F.*, Green B. W., Yu X.* (2018). Impacts of ocean cooling and reduced wind drag on Hurricane Katrina (2005) based on numerical simulations. Monthly Weather Review, 146: 287-306. 

12. Wen H., Ren B.*, Zhang X., Yu X. (2018). SPH modeling of wave transformation over a coral reef with seawall. Journal of Waterway, Port, Coastal and Ocean Engineering, 145(1): 04018026

13. Wen H., Ren B.*, Yu X. (2018). An improved SPH model for turbulent hydrodynamics of a 2D oscillating water chamber. Ocean Engineering, 150: 152-166.

14. Lin X., Chamecki M.*, Katul G. G., Yu X. (2018). Effects of leaf area index and density on ultrafine particle deposition onto forest canopies: A LES study. Atmospheric Environment, 189: 153-163. 

15. Si P., Aaron J., McDougall S., Lu J., Yu X.*, Roberts N., Clague J. J. (2018). A non-hydrostatic model for the numerical study of landslide-generated waves. Landslides, 15:711–726. 

16. Shi H., Yu X.*, Dalrymple R. A. (2017). Development of a two-phase SPH model for sediment laden flows. Computer Physics Communications, 221: 259-272.

17. Liang L., Yu X.*, Bombardelli F. (2017). A general mixture model for sediment laden flows. Advances in Water Resources, 107: 108–125. 

18. Chen Y., Yu X.* (2017). Sensitivity of storm wave modeling to wind stress evaluation methods. Journal of Advances in Modelling Earth System, 9: 893–907. 

19. Chen Y., Yu X.* (2016). Enhancement of wind stress evaluation method under storm conditions. Climate Dynamics, 47: 3833-3843.

20. Liu Y., Yu X.* (2016). A coupled phase-field and volume-of-fluid method for accurate representation of limiting water wave deformation. Journal of Computational Physics, 321: 459-475. 

21. Liang T., Yu X.* (2016). A numerical study of sea-spray aerosol motion in a coastal thermal internal boundary layer. Boundary-Layer Meteorology, 160: 347-361. 

22. Liang T., Chamecki M., Yu X. (2016). Sea salt aerosol deposition in the coastal zone: A large eddy simulation study. Atmospheric Research, 180: 119-127. 

23. Yu X.*, Niu X., Zhou H. (2015). Statistical law for tropical cyclone motion in the Northwest Pacific Ocean. International Journal of Climatology, 36: 1700-1707. 

24. Lin X., Yu X.* (2015). A finite difference method for effective treatment of mild-slope wave equation subject to non-reflecting boundary conditions. Applied Ocean Research, 53: 179-189. 

25. Chen X., Yu X.* (2015). A numerical study on oscillatory flow-induced sediment motion over vortex ripples. Journal of Physical Oceanography, 45:228-246. 

26. Shi H., Yu, X.* (2015). An effective Euler-Lagrange model for suspended sediment transport by open channel flows. International Journal of Sediment Research, 30: 361-370. 

27. Niu X., Yu X. (2014). Numerical study on wave propagation over a fluid-mud layer with different bottom conditions, Ocean Dynamics, 64(2):293-300. 

28. Chen X., Niu X., Yu X.* (2013). Near-bed sediment condition in oscillatory sheet flows. Journal of Waterway, Port, Coastal, and Ocean Engineering (ASCE), 139(5):393-403. 

29. Shi H., Yu X.* (2013). Application of transport timescales to coastal environmental assessment: A case study. Journal of Environmental Management, 130:176-184.

30. Niu X., Yu X.* (2012). An analytic solution for combined wave diffraction and refraction around a vertical cylinder with idealized scour pit. Coastal Engineering, 67:80-87. 

31. Hu Y., Niu X., Yu X.* (2012). Large eddy simulation of wave breaking over muddy seabed. Journal of Hydrodynamics, 24(2):298-304. 

32. Chen X., Li Y., Niu X., Chen D., Yu X.* (2011). A two-phase approach to wave-induced sediment transport under sheet flow conditions. Coastal Engineering, 58(11):1072-1088. 

33. Chen X., Li Y., Niu X., Li M., Chen D., Yu X.* (2011). A general two-phase turbulent flow model applied to the study of sediment transport in open channels. International Journal of Multiphase Flow, 37(9): 1099-1108. 

34. Niu X., Yu X.* (2011). Analytical Solution of Long Wave Propagation over a Submerged Hump. Coastal Engineering, 58(2): 143-150. 

35. Niu X., Yu X.* (2011). Analytical study on long wave refraction over a dredge excavation pit. Wave Motion, 48(3): 259-267. 

36. Niu X., Yu X.* (2011). Long Wave Scattering by a Vertical Cylinder with Idealized Scour Pit. Journal of Waterway, Port, Coastal, and Ocean Engineering, ASCE, 137(6):279-285. 

37. Liu Y., Niu X., Yu X.* (2011). A new predictive formula for inception of regular wave breaking. Coastal Engineering, 58(9): 877-889. 

38. Hua L., Yu X. (2009). An enhanced element-free Galerkin method for dynamics response of poroelastic seabed. Journal of Hydrodynamics, 21(3): 429-435.

39. Hua L., Yu X. (2009). Element-free Galerkin method for response of stratified seabed under wave action. Journal of Hydrodynamics, 21(4): 550-556.

40. Niu X., Yu X. (2008). A practical model for decay of random waves on muddy beaches. Journal of Hydrodynamics, 20(3): 288-292. 

41. Lu J., Yu X. (2008). Numerical study of solitary wave fission over an underwater step. Journal of Hydrodynamics, 20(3): 398-402.

42. Li B., Yu X., Yu Y. (2007). Nonlinear dynamics of nearshore irregular waves: a three-dimensional numerical model. Coastal Engineering Journal, 49(2): 103-126.

43. Li B., Yu X., Yu Y. (2006). Three-dimensional numerical simulation of oblique wave action on vertical walls. Acta Oceanologica Sinica, 25(1): 147-153.

44. Li B., Yu X., Yu Y. (2005). A 2-D Numerical Irregular Wave Tank and Its Verification. Journal of Hydrodynamics, 17(2): 222-227.

45. Yu X., Zhang B. (2003), An extended analytic solution for combined diffraction and diffraction of long waves over a circular shoal, Ocean Engineering, 30(10), 1253-1267.

46. Yu X. (2002), Functional performance of a submerged and essentially horizontal plate for offshore wave control: a review, Coastal Engineering Journal, 44(2): 127-147. 

47. Yu X. (1998). Finite difference methods for the reduced water wave equation. Computer Methods in Applied Mechanics and Engineering, 154: 265-280.

48. Yu X. (1996). Finite analytic method for the mild slope wave equation. Journal of Engineering Mechanics, ASCE, 122(2): 109-115.

49. Yu X. (1996). Oscillations in a coupled bay-river system. 1. Analytic solution. Coastal Engineering, 28: 147-164.

50. Yu X., Togashi H. (1996). Oscillations in a coupled bay-river system. 2. Numerical method. Coastal Engineering, 28: 165-182.

51. Yu X., Isobe M., Watanabe A. (1995). Wave breaking over submerged horizontal plate, Journal of Waterway, Port, Coastal and Ocean Engineering, ASCE, 121(2): 105-113.

52. Yu X. (1995). Diffraction of water waves by porous breakwaters. Journal of Waterway, Port, Coastal and Ocean Engineering, ASCE, 121(6): 275-282.

53. Yu X., Chwang A. T. (1994). Wave induced oscillation in harbor with porous breakwaters. Journal of Waterway, Port, Coastal and Ocean Engineering, ASCE, 120(2): 125-144.

54. Yu X., Chwang A. T.  (1994). Water waves above submerged porous plate. Journal of Engineering Mechanics, ASCE, 120(6): 1270-1282.

55. Yu X., Chwang A. T.  (1994). Wave motion through porous structures. Journal of Engineering Mechanics, ASCE, 120(5): 989-1008.

56. Yu X., Chwang A. T.  (1993). Analysis of wave scattering by submerged circular disk. Journal of Engineering Mechanics, ASCE, 119(9): 1804-1917.


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