Title：Professor

Email：zhang_wen@jlu.edu.cn

Research Interests：

1.Geological hazard assessment and protection

2.Fine description of rock mass structure

3.Rock mechanics analysis and numerical   simulation

Education：

2018-2019, University of California, Berkeley,   Department of Civil and Environmental Engineering, Visiting scholar

2007-2013, Jilin University-China, College of   Construction Engineering, Consecutive master's and doctoral degree

2003-2007, Jilin University-China, College of   Construction Engineering, Bachelor degree

Professional Positions：

2019-Current, Jilin University-China, College of   Construction Engineering, Professor

2015-2019, Jilin University-China, College of   Construction Engineering, Associate Professor

2014-2018, Chengdu University of Technology,   College of Environment and Civil Engineering, Postdoctoral Researcher

2013-2015, Jilin University-China, College of   Construction Engineering, Lecturer

Publications：

[1]Zhang W, Han J, Lu C, Liu H, Chen J, Wang J,   Li T, Chen J*. Geometric searching of 3D critical slip surface of a   non-persistent fracture-dominated rock slope. Computers and Geotechnics,   Volume 173, September 2024, 106493.

[2]Wang S, Zhang W*, Zhao X, Sun Q, Dong W.   Automatic identification and interpretation of discontinuities of rock slope   from a 3D point cloud based on UAV nap-of-the-object photogrammetry.   International journal of Rock Mechanics and Mining Sciences, Volume 178, June   2024, 105774.

[3]Chen J, Zhang W*, Cao C, Yin H, Wang J, Li W,   Zheng Y. The effect of the check dam on the sediment transport and control in   debris flow events. Engineering Geology, Volume 329, February 2024, 107397

[4]Zhang W, Wei M, Zhang Y, et al. Discontinuity   development patterns and the challenges for 3D discrete fracture network   modeling on complicated exposed rock surfaces. Journal of Rock Mechanics and   Geotechnical Engineering, 2024, 16(6): 2154-2171.

[5]Zhang S, Song S*, Zhang W*, et al. Research on   the inherent mechanism of rock mass deformation of oil shale in-situ mining   under the condition of thermal-fluid-solid coupling. Energy, 2023: 128149.

[6]Zhang W, Wei M, Zhang Y, et al. Discontinuity   development patterns and the challenges for three-dimensional discrete   fracture network modeling on complicated exposed rock surfaces.Journal of   Rock Mechanics and Geotechnical Engineering, 2023, doi:10.1016/j.jrmge.2023.09.004.

[7]Zhang W, Chen J, Ma J, et al. Evolution of   sediment after a decade of the Wenchuan earthquake: a case study in a   protected debris flow catchment in Wenchuan County, China. Acta Geotechnica,   2023: 1-22.

[8]Wang J, Zhang W*, Tan C, et al.   Multi-dimensional size effects and representative elements for non-persistent   fractured rock masses: A perspective of geometric parameter distribution.   Journal of Rock Mechanics and Geotechnical Engineering, 2023, 15(9):   2339-2354.

[9]Zhang W, Wang J, Chen J, et al. Mass‐Wasting‐Inferred Dramatic Variability of 130,000‐Year Indian Summer Monsoon Intensity From   Deposits in the Southeast Tibetan Plateau. Geophysical Research Letters,   2022, 49.

[10]Zhang W, Zhao X, Pan X, et al.   Characterization of high and steep slopes and 3D rockfall statistical   kinematic analysis for Kangyuqu area, China. Engineering Geology, 2022, 308:   106807.

[11]Chen D, Chen H, Zhang W*, et al. An   analytical solution of equivalent elastic modulus considering confining   stress and its variables sensitivity analysis for fractured rock masses.   Journal of Rock Mechanics and Geotechnical Engineering, 2022, 14(3): 825-836.

[12]Ma W, Chen H, Zhang W*, et al. Study on   representative volume elements considering inhomogeneity and anisotropy of   rock masses characterised by non-persistent fractures.Rock Mechanics and Rock   Engineering, 2021, 54(9): 4617-4637.

[13]Cao C, Zhang W*, Chen J, et al. Quantitative   estimation of debris flow source materials by integrating multi-source data:   a case study. Engineering Geology, 2021, 291: 106222.

[14]Zhang W, Fu R, Tan C, et al. Two-dimensional   discrepancies in fracture geometric factors and connectivity between   field-collected and stochastically modeled DFNs: a case study of sluice   foundation rock mass in Datengxia, China.Rock Mechanics and Rock Engineering,   2020, 53: 2399-2417.

[15]Zhang W, Lan Z, Ma Z, et al. Determination of   statistical discontinuity persistence for a rock mass characterized by   non-persistent fractures. International Journal of Rock Mechanics and Mining   Sciences, 2020, 126: 104-177.

[16]Nie Z, Chen J, Zhang W*, et al. A new method   for three-dimensional fracture network modelling for trace data collected in   a large sampling window.Rock Mechanics and Rock Engineering, 2020, 53:   1145-1161

[17]Zhang W, Wang J, Xu P, et al. Stability   evaluation and potential failure process of rock slopes characterized by   non-persistent fractures.Natural Hazards and Earth System Sciences, 2020,   20(11): 2921-2935

[18]Zhang W, Zhao Q, Huang R, et al.   Determination of representative volume element considering the probability   that a sample can represent the investigated rock mass at Baihetan Dam Site,   China.Rock Mechanics and Rock Engineering, 2017, 50: 2817-2825.

[19]Zhang W, Zhao Q, Chen J, et al. Determining   the critical slip surface of a fractured rock slope considering preexisting   fractures and statistical methodology.Landslides, 2017, 14: 1253-1263.

[20]Zhang W, Zhao Q, Huang R, et al.   Identification of structural domains considering the size effect of rock mass   discontinuities: A case study of an underground excavation in Baihetan Dam,   China. Tunnelling and Underground Space Technology, 2016, 51: 75-83.

[21]Zhang W, Chen J, Cao Z, et al. Size effect of   RQD and generalized representative volume elements: a case study on an   underground excavation in Baihetan dam, Southwest China. Tunnelling and   Underground Space Technology, 2013, 35: 89-98.

[22]Zhang W, Chen J P, Zhang W, et al.   Determination of critical slip surface of fractured rock slopes based on   fracture orientation data.Science China Technological Sciences, 2013, 56:   1248-1256.

[23]Zhang W, Chen J, Cao Z, et al. Size effect of   RQD and generalized representative volume elements: a case study on an   underground excavation in Baihetan dam, Southwest China.Tunnelling and   Underground Space Technology, 2013, 35: 89-98

[24]Zhang W, Chen J, Chen H, et al. Determination   of RVE with consideration of the spatial effect. International Journal of   Rock Mechanics and Mining Sciences, 2013, 61: 154-160.

[25]Zhang W, Chen J, Liu C, et al. Determination   of geometrical and structural representative volume elements at the Baihetan   dam site.Rock Mechanics and Rock Engineering, 2012, 45: 409-419.

[26]Zhang W, Wang Q, Chen J, et al. Determination   of the optimal threshold and length measurements for RQD calculations.   International Journal of Rock Mechanics and Mining Sciences, 2012, 51: 1-12.

[27]Zhang W*, Li Z, Chen J, Zhang C, Xu L, Sang   W. Comprehensive hazard assessment and protection of debris flows along   Jinsha River close to the Wudongde dam site in China. Natural Hazards, 2011,   58: 459-477.

Projects：

1.2022-2025, National Key Research and   Development (Young Scientist Project), spatiotemporal incubation and brittle   failure evolution of rock slope disasters in the tectonic suture zone of   Hengduan Mountains

2.2021-2023, National Natural Science Foundation   of China Outstanding Youth Science Fund, Engineering Geology and Geological   Hazards

3.2020-2023, Subtopic of the Special Project on   Major Basic Scientific Issues of Sichuan Tibet Railway, Mechanism and   Engineering Effects of Tunnel Entrance and Exit and Bridge Abutment Slope   Disasters

4.2019-2022, National Natural Science Foundation   of China General Project, Multi scale Equivalent Structural Model and   Uncertain Disaster Evolution of Rapid Uplift Typical River Bank Slope

5.2019-2024, Subtopic of National Key Research   and Development Project, Evaluation Method for Geological Effects of In situ   Oil Shale Minin

6.2018-2021, Subtopic of National Key Research   and Development Project, Dynamic Evolution Process and Mechanism of   Geological Hazards in Strong Earthquake Areas

Patents：

1.Zhang Wen, Lan Zhiguang, Chen Donghui. A   Self-Drilling Hollow Grouting Anchor Rod Suitable for Large Rock Mass   Structures. December 12, 2023, China, ZL 201711296947.1.

2.Zhang Wen, Xu Yang, Ma Zhifeng, Tan Chun, Yuan   Xiaoqing, Chen Donghui, Liu Tianchang, Nie Zhenbang, Chen Huaiyu, Lan   Zhiguang, Chen Junqi, Yang Guang. A Device for Simulating the Sliding of   Wedge-Shaped Bodies in Rock Masses. October 3, 2023, China, 201810023476.5.

3.Zhang Wen, Wang Le, Ma Zhifeng, Tan Chun, Chen   Yating, Sun Da, Li Guoliang, Li Yanliang. An Automated Device for In-Situ   Information Collection of Rock Mass Structural Planes. October 11, 2019,   China, ZL201720217890.0.

4.Zhang Wen, Chen Jianping, Niu Cencun, Xu   Peihua, Zhan Jiewei. A Device for Collecting Luminescence Test Soil Samples   from Landslides. March 9, 2018, China, 201510990113.5.

5.Zhang Wen, Chen Jianping, Niu Cencun, Xu   Peihua, Yuan Xiaoqing. An Experimental System for Simulating Debris Flow   Movement and Accumulation Processes. November 24, 2017, China,   201510768066.X.

6.Zhang Wen, Chen Jianping, Wang Qing, Yuan   Xiaoqing, Niu Cencun. A Device for Monitoring the Collapse of Dangerous Rock   Masses Using Ultrasonic Waves. February 24, 2016, China, ZL201210566779.4.

7.Zhang Wen, Chen Jianping, Wang Qing, Yuan   Xiaoqing, Niu Cencun. A Device for Monitoring the Collapse of Dangerous Rock   Masses Using Laser Displacement Sensors. May 11, 2016, China,   ZL201210567021.2.

Honors and Awards：

1.Analysis of Parameter Uncertainty in   Heterogeneous Rock Masses and Stability of Stable Structures, Chinese Society   for Rock Mechanics and Engineering, Natural Science Award, Second Prize, 2022   (R1)

2.Theory and Key Technologies for Stability   Evaluation of Complex Fractured Rock Masses, Ministry of Land and Resources,   Science and Technology Award, Second Prize, 2017 (R2)

3.Study on the Uncertainty of Complex Fractured   Rock Masses, Jilin Provincial Civil Engineering and Architecture Society,   Science and Technology Progress Award, Second Prize, 2016 (R2)

4.Research on Structural Parameters of Fractured   Rock Masses, Jilin Provincial Association for Science and Technology and   Jilin Provincial Department of Human Resources and Social Security, Natural   Science Academic Achievement Award, Second Prize, 2015 (R2)

5.Research on Regional Debris Flow Assessment   Methods, Jilin Provincial Association for Science and Technology and Jilin   Provincial Department of Human Resources and Social Security, Natural Science   Academic Achievement Award, First Prize, 2013 (R2)

6.Jilin University - FAW Hongqi Teacher Award,   2022

7.The 15th “Youth Geological Science and Technology Award” (Silver Hammer Award) by the Geological Society   of China, 2015

8.The 2nd “Goodenough Youth Science and Technology Award” by the Engineering Geology Committee of the   Geological Society of China, 2014

Courses:

Undergraduate Courses: Engineering geological   survey