王禮春

王禮春，男，博士，現任天津大學副教授。

基本介紹

• 中文名：王禮春
• 畢業院校：德克薩斯大學奧斯汀分校
• 學位/學歷：博士
• 職業：教師
• 專業方向：水文與水資源工程
• 主要成就：2013.05，AAPG（美國石油地質學家協會）獎學金
• 就職院校：天津大學

研究方向

1、多孔和裂隙介質中流體運動與物質傳輸

2、地下水-地表水相互作用

3、岩石（裂隙）水力耦合

4、流域氮循環

5、二氧化碳地質儲存

6、地下水資源管理與評價

人物經歷

學習經歷

2003.09~2007.07，中國地質大學（北京），本科：水文與水資源工程 (水文地質)。

2007.09~2010.07，中國地質大學（北京），碩士：水文與水資源工程 (水文地質)。

2010.08~2015.06，德克薩斯大學奧斯汀分校，博士：地球科學 (水文地質)。

工作經歷

2015.06~2018.07，德克薩斯大學奧斯汀分校，博士後。

2018.09~今，天津大學，副教授。

主講課程

水資源與生態環境

學術成果

科研項目

2020.01~2023.12，裂隙兩相流與非費克物質傳輸特徵及耦合機理研究，國家自然科學基金面上項目。

學術論文

(1)

J-Q Zhou, L. Wang* (王禮春)，C. Li*, H. Tang, L. Wang，2020，Effect of fluid slippage on eddy growth and non-Darcian flow in rock fractures，Journal of Hydrology，doi: 10.1016/j.jhydrol.2019.124440.

(2)

L. Zheng, L. Wang*（王禮春）, T. Wang, K. Singh, Z-L. Wang, X. Chen，2020，Can homogeneous slip boundary condition affect effective dispersion in single fractures with Poiseuille flow?，Journal of Hydrology，doi: 10.1016/j.jhydrol.2019.124385.

(3)

L. Zheng, L. Wang*(王禮春), and S. C. James，2019，When can the local advection–dispersion equation simulate non-Fickian transport through rough fractures?，Stochastic Environmental Research Risk Assessment，doi: 10.1007/s00477-019-01661-7.

(4)

J.-Q. Zhou, Y.-F. Chen*, L. Wang(王禮春), and M. B. Cardenas，2019，Universal relationship between viscous and inertial permeability of geologic porous media，Geophysical Research Letters，doi: 10.1029/2018GL081413.

(5)

L. Zheng, L. Wang*(王禮春), and W. Deng，2019，Seismicity enhances macrodispersion in finite porous and fractured domains: A pore-scale perspective，Journal of Geophysical Research: Solid Earth，doi: 10.1029/2018jb016921.

(6)

L. Zheng and L. Wang*(王禮春)，2019，Scale‐dependent Poiseuille flow alternatively explains enhanced dispersion in geothermal environments，Hydrological Processes，doi: 10.1002/hyp.13339.

(7)

L Zheng*, MB Cardenas, L Wang(王禮春), D Mohrig，2019，Ripple effects: bedform morphodynamics cascading into hyporheic zone biogeochemistry，Water Resources Research.

(8)

J.-Q. Zhou, L. Wang*(王禮春), Y.-F. Chen*, and M. B. Cardenas，2019，Mass Transfer Between Recirculation and Main Flow Zones: Is Physically Based Parameterization Possible?，Water Resources Research，doi: 10.1029/2018wr023124.

(9)

X. Xia, N. Zhou, L. Wang(王禮春), X. Li, S. Jiang*，2019，Identification of transient contaminant sources in aquifers through a surrogate model based on a modified self-organizing-maps algorithm，Hydrogeology Journal.

(10)

J-Q Zhou, Y-F Chen*, H Tang*, L Wang(王禮春), M.B Cardenas，2019，Disentangling the simultaneous effects of inertial losses and fracture dilation on permeability of pressurized fractured rocks，Geophysical Research Letters.

(11)

L. Wang*(王禮春) and M. B. Cardenas，2019，Analysis of permeability change in dissolving rough fractures using depth-averaged flow and reactive transport models，International Journal of Greenhouse Gas Control.

(12)

S. James*, L. Wang(王禮春), and C.V. Chrysikopoulos，2018，Modeling colloid transport in fractures with spatially variable aperture and surface attachment，Journal of Hydrology，doi: 10.1016/j.jhydrol.2018.09.047.

(13)

Z. Yan, T. Wang, L. Wang(王禮春), X. Yang, P. Smith, M. Hilpert, S. Li, V. Bailey, C. Liu*，2018，Microscale Water Distribution and its Effects on Organic Carbon Decomposition in Unsaturated Soils，Science of the Total Environment.

(14)

J-Q Zhou, M Wang, L. Wang(王禮春), Y-F Chen, CB Zhou，2018，Emergence of nonlinear laminar flow in fractures during shear，Rock Mechanics and Rock Engineering，doi: 10.1007/s00603-018-1545-7.

(15)

L. Wang*(王禮春) and M. B. Cardenas，2018，Connecting pressure-saturation and relative permeability models to fracture properties: the case of supercritical CO2 and brine two-phase flow，Water Resources Research，doi: 10.1029/2018wr023526.

(16)

L. Wang*(王禮春) and M. B. Cardenas，2017，Transition from non-Fickian to Fickian longitudinal transport through 3-D rough fractures: Scale-(in)sensitivity and roughness dependence，Journal of Contaminant Hydrology，doi: 10.1016/j.jconhyd.2017.02.002.

(17)

D. Liu*, A. P. Jivkov*, L. Wang(王禮春), G. Si, and J. Yu，2017，Non-Fickian dispersive transport of strontium in laboratory-scale columns: Modelling and evaluation，Journal of Hydrology，doi:10.1016/j.jhydrol.2017.03.053.

(18)

L. Wang*(王禮春) and M. B. Cardenas，2017，Linear permeability evolution of expanding conduits due to feedback between flow and fast phase change，Geophysical Research Letters，doi: 10.1002/2017gl073161.

(19)

L. Zheng*, M. B. Cardenas, and L. Wang(王禮春)，2016，Temperature effects on nitrogen cycling and nitrate removal-production efficiency in bed form-induced hyporheic zones，Journal of Geophysical Research - Biogeosciences，doi: 10.1002/2015JG003162.

(20)

L. Wang*(王禮春) and M. B. Cardenas，2016，Development of an empirical model relating permeability and specific stiffness for rough fractures from numerical deformation experiments，Journal of Geophysical Research - Solid Earth，doi: 10.1002/2016JB013004.

(21)

L. Wang*(王禮春), M. B. Cardenas, D. T. Slottke, R. A. Ketcham, and J. M. Sharp, Jr.，2015，Modification of the Local Cubic Law of fracture flow for weak inertia, tortuosity, and roughness，Water Resources Research，doi: 10.1002/2014WR015815.

(22)

L. Wang*(王禮春) and M. B. Cardenas，2015，An efficient quasi-3D particle tracking-based approach for transport through fractures with application to dynamic dispersion calculation，Journal of Contaminant Hydrology，doi: 10.1016/j.jconhyd.2015.05.007.

(23)

L. Wang*(王禮春) and M. B. Cardenas，2014，Non-Fickian transport through two-dimensional rough fractures: Assessment and prediction，Water Resources Research，doi: 0.1002/2013wr014459.

(24)

L. Wang*(王禮春), M. B. Cardenas, W. Deng, and P. C. Bennett，2012，Theory for dynamic longitudinal dispersion in fractures and rivers

榮譽獎項

2013.05，AAPG（美國石油地質學家協會）獎學金