神州娱乐城

翟 钱


通讯方式:[email protected]

研究方向:

(1)非饱和土工程特性的基础研究
非饱和土广泛分布于地表浅层,其工程特性受含水率、吸力及干湿循环等因素显著影响。本研究方向聚焦非饱和土的水力-力学耦合机理,重点探讨土-水特征曲线、渗透系数函数、抗剪强度及体积变形等核心问题。通过试验与理论分析相结合,揭示吸力变化对土体强度和变形的影响规律,建立适用于非饱和土的本构模型。

(2)浅层边坡失稳评估与防治技术
浅层边坡失稳常由降雨入渗或水位变化诱发,具有突发性强、危害范围广的特点。本研究方向基于非饱和土力学理论,分析水分迁移对边坡稳定性的影响机制,建立考虑吸力变化的浅层边坡稳定性评价方法。结合现场监测与数值模拟,识别失稳临界条件,发展排水、植被、土工材料等轻型防治技术,为山区公路、铁路及城市边坡工程提供科学依据与工程对策。

(3)特殊地质条件下基础承载机理与性能研究
在膨胀土、湿陷性黄土、冻土等特殊地质条件下,地基基础的承载性能受环境因素影响显著。本研究方向关注桩-土相互作用在非饱和状态下的演化规律,探讨水分变化、干湿循环及冻融作用对基础承载力的劣化机制。通过模型试验与数值分析,揭示基础在复杂水力边界条件下的响应特征,提出承载力预测方法与设计优化建议,保障重大基础设施的安全运营。

(4)智慧岩土相关微型软件开发与应用
随着岩土工程数字化转型的推进,专业化、轻量化的计算工具需求日益增长。本研究方向聚焦岩土工程中的典型问题,开发面向非饱和土渗流、边坡稳定、基础沉降等场景的微型应用软件。软件注重界面友好与计算效率,集成常用模型与解析解,支持工程快速评估与教学演示。通过模块化设计与持续迭代,推动岩土分析技术向智能化、便携化方向发展,服务工程实践与人才培养。


办公地点:土木楼1614

 

 

个人简介

翟老师现任教于神州娱乐城,长期致力于非饱和土力学理论与工程应用的研究工作。2005年本科毕业于神州娱乐城「中国」官方网站,获学士学位;后赴新加坡南洋理工大学深造,分别于2010年和2016年获硕士及博士学位,师从国际著名岩土力学专家Rahardjo Harianto教授,系统接受了非饱和土力学领域的严格学术训练。

在科研方面,翟老师聚焦非饱和土的核心基础理论,围绕非饱和土渗流特性、土-水特征曲线、吸力变化对强度的影响机制等关键科学问题开展了系统深入的研究。相关成果揭示了非饱和土在多场耦合条件下的水力-力学行为规律,在非饱和土渗流理论与强度理论方面形成了一系列具有创新性的学术贡献,为复杂环境下岩土工程问题的理论建模提供了重要支撑。

在深耕基础研究的同时,翟老师高度重视科研成果向工程实践的转化。依托扎实的理论功底,他积极参与多项岩土工程项目实践,尤其在降雨诱发边坡失稳的机理分析与治理技术方面积累了丰富的工程经验。通过将非饱和土力学理论应用于边坡稳定性评价、排水系统设计及加固方案优化,成功解决了多项实际工程难题,形成了理论研究与工程实践相互促进的良性循环。

翟老师的研究工作兼具理论深度与工程广度,致力于推动非饱和土力学从经典理论向工程实用的纵深发展,为我国重大基础设施建设及地质灾害防治提供科学支撑。


2001-2005 神州娱乐城 神州娱乐城 工学学士

2009-2010 新加坡南洋理工大学 (NTU, Singapore) 土木与环境神州娱乐城 工学硕士

2010-2016 新加坡南洋理工大学 (NTU, Singapore) 土木与环境神州娱乐城 哲学博士

2016-2018 新加坡南洋理工大学 (NTU, Singapore) 土木与环境神州娱乐城 博士后

学术兼职
  • 《International Journal of Geotechnical Engineering》编委


教学课程

本科生课程

《土力学与工程地质》、《土力学与基础工程》、《地质实习》

研究生课程

《高等基础工程》、《非饱和土力学基本原理》

科研、教改项目
  • 《工程地质实习》思政教改项目

  • 《基础工程》全英文联合教学

  • 《非饱和土力学基本原理》全英文联合教学


论文和专著

代表论文(英文期刊)

46, Zhai Q*, Chen YH, Rahardjo H, Satyanaga A, Dai GL, Gong WM, Zhao XL, and Qian LZ (2026) “Predictive models of the initial shear modulus of unsaturated sandy and silty soils from soil index properties” Bulletin of Engineering Geology and the Environment (In press)

45, Zhai Q*, Chen YH, Rahardjo H, Satyanaga A, Dai GL, Gong WM, Zhao XL, and Qian LZ (2026) “Estimation of the initial shear modulus of unsaturated soil from soil-water characteristic curve” Engineering Geology (In Press)

44, Zhai Q*, Zhang RZ, Rahardjo H, Satyanaga A, Dai GL, Gong WM, Chen XY, Qian LZ and Chua YS (2025) “Evaluation the shear modulus of unsaturated soils estimated from different indirect methods” Environmental Geotechnics (Accepted)

43,Zhu YY, Dai GL, Zhai Q, Rahardjo H, Satyanaga A, Gong WM, Qian LZ, and Chua YS. (2025) “A pore-water-distribution model for the estimation of the hydraulic conductivity of stiff unsaturated soil during the wetting process” Canadian Geotechnical Journal, (Accepted)

42,Zhai Q*, Zhang RZ, Rahardjo H,  Satyanaga A, Dai GL, Gong WM, Zhao XL(2024)  and Chua YS “A new mathematical model for the estimation of shear modulus for unsaturated compacted soils” Canadian Geotechnical Journal, 61: 2124–2137

41,Zhao XL, Cui YX, Zhang RZ, Tian G, Satyanaga A, Zhai Q* (2024) “Experimental investigation of the collapsibility of loess subjected to water invasion” Bulletin of Engineering Geology and the Environment, 83:33, //doi.org/10.1007/s10064-023-03532-6

40, Zhang X, Wang H, Gao ZW, Xiang K , Zhai Q , Satyanaga A and Chua YS (2023) “Evaluation of the Performance of the Horizontal Drain in Drainage of the Infiltrated Water from Slope Soil under Rainfall Conditions” Sustainability, 2023, 15, 14163

39, Ji P, Yang JL , Zhang N ,  Zhai Q , Li MJ , Wang YY , Shen TL and Satyanaga A. (2023) Energy Measurement in Standard Penetration Tests, Sustainability, 2023, 15, 4763.

38,Zhai Q*, Xiang K, Rahardjo H,  Satyanaga A, Dai GL, Gong WM and Zhao XL(2023) “A new domain model for estimating water distribution in soil pores during the drying and wetting processes” Engineering Geology, 107180

37,  Zhai Q*, Zhang J, Rahardjo H,  Satyanaga A, Dai GL, Gong WM, Zhao XL and Wang SJ(2023) “Evaluation of equations for the determination of the ultimate bearing capacity of shallow foundation in cohesionless soils”. Arabian Journal of Geosciences (2023) 16:69.

36,  Zhao Y, Rahardjo H,  Satyanaga A, Zhai Q, He J. (2023) “A General Best‑Fitting Equation for the Multimodal Soil–Water Characteristic Curve”. Geotechnical and Geological Engineering volume 41, pages3239–3252 (2023)

35,Zhai Q*, Zhu YY, Rahardjo H,  Satyanaga A, Dai GL, Gong WM, Zhao XL and Ou YZ (2023)  “Prediction of the soil-water characteristic curves for the fine-grained soils with different initial void ratios”  Acta Geotechnica, 18,  5359–5368

34, Li XB, Shen TL, Xiang K, Zhai Q*, Rahardjo H, Satyanaga A and Wang SJ (2023)  “Effect of the wetting hydraulic property of soil on 1-D water infiltration”  Sustainability, 15, 1822

33, Zhai Q*, Zhu YY, Rahardjo H, Satyanaga A, Dai GL, Gong WM, Zhao XL (2023) “Mathematical model forthedetermination ofthepre‑consolidation pressure using thegraphical method” Arabian Journal of Geosciences (2023) 16:69.

32, Chen Z, Ji P, Zhai Q, Li MJ, Zheng ZP and ShenTL (2022) “A Field Study of Soil Plugging of Jacked Pile and Its Effect on the Pile Resistance” Sustainability, 14(24): 16598

31, Chen SG, Li H, He JC, Li ZW, Tao J, and Zhai Q*. (2022) “ Uncertainty in the stability for excavated surface during the cutter replacement in tunneling construction” Mathematical Problems in Engineering, 3381003.

30,Liu Y, Tian G, Wang SJ,  Satyanaga A,  Zhai Q* (2022) “Parametric analysis of rainfall-induced loess soil slope due to the rainwater infiltration” Urban Science, 6, 54: 1-11.

29, Tang L, Tian G, Dai GL, Zhai Q*, Rahardjo H, and Satyanaga A (2022) “Effect of threshold suction on the prediction of the permeability function by using the statistical method” Results in Engineering, 14: 100456.

28, Lin ZQ, Qian JG, Shi ZH, and Zhai Q. (2022) “Bi-linear strength envelope of coarse- and fine-grained unsaturated soils with bimodal water-retention curve”, Engineering Geology, 304:106694.

27, Zhai Q*, Ye WM, Rahardjo H, Satyanaga A, Du YJ, Dai DL and Zhao XL (2022) “Estimation of the hydraulic conductivity of unsaturated soil incorporating the film flow” Canadian Geotechnical Journal, //doi.org/10.1139/cgj-2021-0361

26, Zhai Q*, Tian G, Ye W, Rahardjo H, Dai G, and Wang S. (2022). “Evaluation of unsaturated soil slope stability by incorporating soil water characteristic curve”. Geomechanics and Engineering, 2022, 28(6):637-644.

25, Wang S, Li W, Chen Z, Tian G, Dai G, Zhai Q, and Rahardjo H. (2022). “Effect of Cr on the performance of Fredlund and Xing (1994)'s equation in best fitting soil-water characteristic curve data”. Results in Engineering, 100373.

24, Lin ZQ, Qian JG, and Zhai Q. (2022). “A Novel Hysteretic Soil–Water Retention Model with Contact Angle-Dependent Capillarity”. International Journal of Geomechanics, 2022, 22(2): 06021037

23,  Satyanaga A, Wijaya M, Zhai Q, Moon SW, Pu J, and Kim JR. (2021) Stability and consolidation of sediment tailings incorporating unsaturated soil mechanics Fluids, 6(12):423. 

22, Zhai, Q, Ye, WM, Rahardjo H, Satyanaga A, Dai GL, and Zhao XL. (2021). “Theoretical method for the estimation of vapour conductivity for unsaturated soil”. Engineering Geology, 2021, 295: 106447.

21, Zhai Q, Rahardjo H, Satyanaga A, Zhu YY, Dai GL, and Zhao XL. (2021) “Estimation of wetting hydraulic conductivity function for unsaturated sandy soil” Engineering Geology, 285: 106034. 

20, Zhai Q, Rahardjo H, Satyanaga A, and Dai GL. (2020) “Estimation of tensile strength of sandy soil from soil–water characteristic curve” Acta Geotechnica 15: 3371-3381

19,Zhai Q, Rahardjo H, Satyanaga A, Dai GL, and Zhuang Y (2020) “Framework to estimate the soil-water characteristic curve for the soil with different void ratios” Bulletin of Engineering Geology and the Environment, 79: 4399-4409 

18, Zhai Q, Rahardjo H, Satyanaga A, Dai GL, and Du YJ. (2020) “Estimation of the wetting scanning curves for sandy soils” Engineering Geology, 272:105635

17, Dai GL, Zhu WB, Zhai Q, Gong WM, and Zhao XL. (2020) “Characteristic Test Study on Bearing Capacity of Suction Caisson Foundation Under Vertical Load” China Ocean Eng., 34 (2) :267-278

16, Zhai Q, Rahardjo H, Satyanaga A, Dai GL, and Du YJ. (2020) “Effect of the uncertainty in soil-water characteristic curve on the estimated shear strength of unsaturated soil” Journal of Zhejiang University-SCIENCE A 21(4):317-330. 

15, Zhai Q, Rahardjo H, Satyanaga A, and Dai GL. (2020) “Estimation of the soil-water characteristic curve from the grain size distribution of coarse-grained soils” Engineering Geology, 267: 105502

14,Dai GL, Zhu WB, Zhai Q, Gong WM, and Zhao XL. (2019) “Upper Bound Solutions for Uplift Ultimate Bearing Capacity of Suction Caisson Foundation” China Ocean Eng., 33(6): 685–693. 

13, Zhai Q, Rahardjo H, Satyanaga A, and Dai GL. (2019) “Estimation of unsaturated shear strength from soil-water characteristic curve” Acta Geotechnica, 14(6): 1977-19904789().,-vol(V0)123456789().,-

12,Zhai Q, Zhang CF, Dai GL, and Zhao XL (2019) “Effect of the segments of soil-water characteristic curve on estimated permeability function using the statistical method” Journal of Zhejiang University-SCIENCE A, 20(8): 627-633. 

11, Zhai Q, Rahardjo H, and Satyanaga A. (2019) “Estimation of air permeability from soil-water characteristic curve” Canadian Geotechnical Journal  56 (4): 505-513. 

10, Zhai Q, Rahardjo H, Satyanaga A, Priono, and Dai GL. (2019) “Role of pore-size distribution function on the water follow in soil ” Journal of Zhejiang University-SCIENCE A, 20(1): 10-20. 

09, Zhai Q, Rahardjo H and Satyanaga A. (2018) “A pore-size distribution function based method for estimation of hydraulic properties of sandy soils” Engineering Geology  246: 288-292

08, Zhai, Q, Rahardjo H, and Satyanaga H. (2019) “Uncertainty in the estimation of hysteresis of Soil-water Characteristic Curve”, Environmental Geotechnics, 6(4): 204–213

07, Zhai Q, Rahardjo H, Satyanaga A, and Priono (2017)  “Effect of bimodal soil-water characteristic curve on the estimation of permeability function ” Engineering Geology 230: 142-151

06, Satyanaga A, Rahardjo H, and Zhai Q. (2017) “Estimation of Unimodal Water Characteristic Curve for Gap-graded Soil”  Soils and Foundations 57: 789–801

05, Zhai Q, Rahardjo H, and Satyanaga A. (2017) “Effects of residual suction and residual water content on the estimation of permeability function” Geoderma 303: 165-177

04, Zhai Q, Rahardjo H, and Satyanaga A. (2016) “Variability in unsaturated hydraulic properties of residual soil in Singapore” Engineering Geology 209: 21-29

03, Zhai Q, Rahardjo H. (2015) “Estimation of permeability function from the Soil-Water Characteristic Curve” Engineering Geology 199: 148-156. 

02, Zhai Q, Rahardjo H. (2013) “Quantification of uncertainty in soil-water characteristic curve associated with fitting parameters” Engineering Geology 163: 144-152. 

01, Zhai Q, Rahardjo H. (2012) Determination of soil–water characteristic curve variables. ComputGeotech 2012;42:37–43. 

 

    代表论文(中文期刊)

6. 翟钱,沈天伦,田刚,戴国亮,赵学亮,龚维明,蔡建国.考虑膜态水渗流的非饱和土渗透系数计算方法研究[J] 岩土工程学报2024 , 46(2) : 291-298

5. 翟钱,田刚, 朱益瑶 ,戴国亮,赵学亮,龚维明,杜延军. 考虑滞后性的土-水特征曲线物理-统计模型研究[J] 岩土工程学报2023, 45(10): 2072-2080

4. 翟钱,朱益瑶,叶为民,杜延军,戴国亮,赵学亮.全吸力范围非饱和土水力渗透系数的计算[J].岩土工程学报, 2022,44(4):660~668.

3. 朱益瑶,翟钱*.概率统计法测算非饱和土渗透系数的理论研究[J].神州娱乐城学报(自然科学版),2021,51(05):826-832.

2. 周林, 翟钱*.可变形土中孔径分布函数的模拟(英文)[J].Journal of Southeast University(English Edition),2020,36(03):328-333.

1. 翟钱,戴国亮,赵学亮. 水-土特征曲线对非饱和砂土抗剪强度的影响[J]. 岩土工程学报, 2020, 42(7):1343-1349.


专著及教材

《非饱和土力学基本原理》中国建筑工业出版社,第一主编;

《基础工程》武汉大学出版社,副主编

专利、软件著作权

国际专利(PCT)

  • A Bag And System For Using The Same/ WO2017052473 A1

国家发明专利

  • 翟钱,戴国亮,阮梦飞,李奔琦,丁建声,王瑞. 双管式排水井[P]. CN112195944B

  • 冯东,庄妍,翟钱,杜佃春,田刚,宁帅,崔晓艳. 一种路堤的双层毛细屏障排水防渗结构[P]. CN112942004B

  • 庄妍,冯东,翟钱,韩非,杜佃春,赵益东,崔晓艳,黄杰. 一种具有防渗排水功能的复合路堤[P]. 江苏省:CN113152186A,2021-07-23.

  • 崔晓艳,庄妍,王志强,杜佃春,田刚,翟钱. 一种基于数值模拟的多向复合加筋垫层加固方法[P]. 江苏省:CN113255176A,2021-08-13.



指导学生

硕士研究生

  • 2022年 

  田刚 (2022年度,优秀毕业生)

  • 2023年 

  朱益瑶 (2023年度,直博),张举

  • 2024年 

张瑞泽、 向珂、沈天伦、徐晨鑫(2024年度,直博)

  • 2025年 

徐之鹏、叶宇轩、易显庭(2025年度,直博)、格拉奇(海外留学生,升博士)

  • 2026年 

菲力(海外留学生)、马儒琛(2026年度,直博)






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