郑州大学水利与交通学院副教授
研究方向:高聚物材料的物理力学性能、改性和应用水输运微观形态和机理纳米材料的动力学特性和纳米器件
办公地点:
王翠霞,女,郑州大学水利与交通学院副教授,主要研究方向为高聚物材料的物理力学性能、改性和应用,水输运微观形态和机理,纳米材料的动力学特性和纳米器件等。任中国岩石力学与工程学会极地岩土力学与工程专业委员会委员、中国土工合成材料工程协会青年工作委员会委员、大坝工程学会混凝土与岩石断裂力学专委会委员、中国水利学会会员、中国土木工程学会会员等。
主持国家自然科学基金、河南省自然科学基金等国家级和省部级科研项目多项,发表SCI、EI及核心期刊论文70余篇。授权发明专利19项。获河南省高等学校优秀科技成果科技进步一等奖、优秀科技论文奖一等奖等。
[1] 中国岩石力学与工程学会极地岩土力学与工程专业委员会委员
[2] 中国大坝工程学会大坝混凝土与岩石断裂力学专业委员会委员
[3] 中国土工合成材料工程协会青年工作委员会委员
[1] 国家自然科学基金:非水反应类高聚物注浆材料抗渗性能的多尺度试验与理论计算研究,主持;
[2] 中国博士后特别资助项目:高水压和超高水压环境下高聚物注浆材料渗透抑制机理及其多尺度理论与试验研究,主持;
[3] 河南省高等学校重点科研项目:发泡高聚物注浆材料阻水性能研究,主持;
[4] 水利部旱区生态水文与水安全重点实验室开放基金:旱区水利工程渗漏高聚物注浆修复机理研究,主持;
[5] 国家自然科学基金面上项目:多因素耦合作用下混凝土排水管道紫外光固化修复材料与结构的全过程工作性态研究,参与;
[6] 河南省重点研发专项课题:极端低温天气地下管道灾变机理及复合修复材料理论研究与技术,参与;
[7] 河南省自然科学基金重点项目:紫外光固化复合材料性能提升及其修复排水管道理论与技术研究,参与;
[8] 河南省科技厅科技攻关项目:高聚物注浆材料成型稳定性的试验与模拟研究,参与;
[9] 中铁七局集团有限公司:复杂工况下冻结暗挖清障辅助盾构下穿既有结构及接收关键技术研究与应用,参与。
[1] Chao Zhang, Wenjing Xing, Pengyang Li, Yangyang Xia, Cuixia Wang*, Ping Xu. Self-inductivesensing behavior of multi-walled carbon nanotubes reinforced epoxy matrix composites under static-dynamic tension, Polymer Composites, 2026,
[2] Chao Zhang, Jianbing Gan, Shen Luo, Quanhong Liu, Yuanpeng Xiang, Ummin Okumura, Cuixia Wang*. Detection of Frozen Soil Structures Using Rayleigh Waves: Insights from Thermo-Mechanical Coupling and MASW Analysis. Cold Regions Science and Technology, 2026
[3] 张超, 甘健兵, 王鸿飞. 刘铨鸿. 奥村运明, 王翠霞. 基于瑞利波频散分析的人工冻结壁动态无损监测技术研究. 科学技术与工程, 2026
[4] Cuixia Wang, Tao Liu, Yangyang Xia*, Chao Zhang*, Hongyuan Fang. Spatial distribution of flexural properties and analysis of failure mechanisms of curved glass fiber-reinforced UV-CIPP materials, Polymer Composites, 2026, 0,1-16, 71138
[5] Chao Zhang, Bo Xu, Jing Wan*, Jian Liang, Yongshen Wu, Cuixia Wang. Low-Frequency In-Plane Phonons Dominate Thermal Transport in Montmorillonite: Machine-Learning Molecular Dynamics Insights. Langmuir, 2026, 42, 5, 3902–3912(封面文章)
[6] 文杰, 张超*, 王翠霞, 夏洋洋, 林玉亮. 碳纳米管增强光热耦合固化修复材料的力学与传感性能. 材料导报, 2026
[7] Cuixia Wang, Jie Sun, Guojie Liu, Chao Zhang*, Juan Zhang, Chengchao Guo, Xueming Du, Hongyuan Fang, Fuming Wang. Assessment and prediction of polymer grouting repair for permafrost embankment based on heat-moisture-deformation coupling model. Thermal Science and Engineering Progress, 2026, 104365.
[8] Cuixia Wang, Menghao Du, Ruyi Zhang, Chao Zhang*, Xiaolei Qiao, Xiaojian Zhang*, Yangyang Xia, Wenjing Xing, Jie Wen. Pipeline structural health monitoring with curved multi-walled carbon nanotubes/epoxy composites: Mechanical and piezoresistive properties. Polymer Composites, 2025, 0:1–13.
[9] Xi Zhang, Cuixia Wang, Chao Zhang*. A prediction strategy for embankment piping occurrence based on comprehensive feature selection and machine learning. Reliability Engineering & system Safety, 2025, 111987.
[10] 张超, 王鸿飞, 罗珅, 刘铨鸿, 王翠霞*. 考虑冻结管串并联的人工冻结壁发展数值模型, 华北水利水电大学学报(自然科学版), 2025(网络首发)
[11] Cuixia Wang, Caihong Zhang, Chao Zhang*, Yongshen Wu, Quanhong Liu, Huaiping Feng, Hongyuan Fang. Water migration driven by temperature gradients in confined clay channels. Geoderma, 2025, 464, 117594.
[12] Chao Zhang, Jie Wen*, Cuixia Wang *, Yangyang Xia, Xinxin Sang, Hongyuan Fang, Niannian Wang. An intelligent and multifunctional composite for drainage pipeline monitoring based on deformation and temperature sensitivity. Tunnelling and Underground Space Technology, 2025, 167, 107088.
[13] Xi Zhang, Yangyang Xia, Chao Zhang*, Cuixia Wang*, Bokai Liue, Hongyuan Fang. An Archimedes Optimization Algorithm Based Extreme Gradient Boosting Model for Predicting the Bending Strength of UV Cured Glass Fiber Reinforced Polymer Composites. Polymer Composites, 2025, 0: 1-18
[14] Yongshen Wu, Chao Zhang*, Cuixia Wang, Hongyuan Fang. Atomistic Insights into Interfacial Failure Prevention of clay-polyurethane composites. Computers and Geotechnics, 2025, 187, 107484
[15] Wang Pan, Cuixia Wang, Chao Zhang*, Hongyuan Fang, Jing Wang. Self-Skinning Polyurethane Composites: Fatigue Durability and Thermomechanical Degeneration Mechanisms. International Journal of Mechanical Sciences, 2025, 300, 110485.
[16] 张超, 张磊, 夏洋洋, 王翠霞*, 刘铨鸿, 方宏远, Timon Rabczuk, 王复明. 基于界面形貌三维重构的高聚物-粉土剪切特性分析[J] . 郑州大学学报(工学版), 20250624网络首发
[17] Yangyang Xia, Chao Zhang*, Cuixia Wang, Jing Wang, Xinxin Sang, Peng Zhao, Hongyuan Fang*. Bending damage of novel UV-CGFR composites for pipeline rehabilitation: Experimental characterization and numerical simulation. Composite Structures, 2025, 360: 119065
[18] Yongshen Wu, Cuixia Wang*, Caihong Zhang, Yongbo Wang, Chao Zhang*, Pengjia Zhu, Hongyuan Fang. Redefining surface dynamics: Advanced insights into nanoindentation and morphological variability of foamed polyurethane. Surfaces and Interfaces, 2025
[19] Cuixia Wang, Shi Qiao, Chao Zhang*, Yangyang Xia, Yongshen Wu. Novel negative Poisson's ratio structure for pipelines’ local trenchless rehabilitation: Experimental and simulation study. Engineering Structures, 2025, 326,119531.
[20] Chao Zhang, Yi Li, Yongshen Wu, Cuixia Wang*, Jian Liang, Zihan Xu, Peng Zhao, Jing Wang. Key Role of Cross-Linking Homogeneity in Polyurethane Mechanical Properties: Insights from Molecular Dynamics, The Journal of Physical Chemistry B, 2024, 128, 12612-12627
[21] Jie Wen, Chao Zhang*, Yangyang Xia, Cuixia Wang*, Xinxin Sang, Hongyuan Fang, Niannian Wang. UV/thermal dual-cured MWCNTs composites for pipeline rehabilitation: Mechanical properties and damage analysis. Construction and Building Materials, 2024, 450, 138602
[22] 张超, 孙迎娣, 夏洋洋, 王翠霞*, 张晓光, 朱钢, 赵鹏, 方宏远. 埋地管道修复技术碳足迹评价与减排策略研究. 环境工程学报, 2024(accepted)
[23] Cuixia Wang, Zihan Xu, Yangyang Xia, Chao Zhang*, Hongyuan Fang*, Kangyan Sun. Water transport mechanism and performance evaluation in polyurethane materials: A state-of-the-art review. Polymer Testing, 2024, 108554
[24] Chao Zhang, Kangyan Sun, Yongshen Wu, Cuixia Wang*, Hongyuan Fang, Zihan Xu. Molecular dynamics simulation of water permeation mechanism in polymer grouting material. Materials Today Communications, 2024, 40, 109933.
[25] Chao Zhang, Shiming Liu, Yangyang Xia, Cuixia Wang*, Shi Qiao, Hongyuan Fang. Experimental and numerical investigations of an auxetic support structure used for local repair of buried pipelines. Construction and Building Materials, 2024, 438, 137127.
[26] Chao Zhang, Wenbo Zhai, Yangyang Xia*, Cuixia Wang*, Peng Zhao, Bin Li, Yanhui Pan, Hongyuan Fang, Okumura Ummin, Wei He, Nan Deng, Ruitao Zhao, Pengjia Zhu, Xutao Chen. Analysis of the stability of a novel assembled working shaft support structure during pipe jacking construction: experiments and numerical simulations. Engineering Failure Analysis, 2024, 162, 108418.
[27] Cuixia Wang, Zengni Qin, Xinghui Gong, Chao Zhang*, Wang Pan, Yangyang Xia, Peng Zhao, Lei Wang, Jian Liang, Zhenyuan Hang, Weiliang Gao. Static-dynamic damage mechanism and self-heating effect of a clean elastic polyurethane grouting material for trenchless rehabilitation under high stresses, International Journal of Fatigue, 2024, 183,
[28] Chao Zhang, Zheng Li, Yongshen Wu, Cuixia Wang*, Hongyuan Fang, Chongchong He, Chaojie Duan. Micromechanical properties of polymer-bentonite interface: A molecular dynamics study. Construction and Building Materials, 2024(acctepted)
[29] 张超,潘旺,方宏远,王翠霞*,王复明. 高聚物注浆材料压缩疲劳损伤演化与寿命预测. 中国公路学报, 2023, 36(10)
[30] Wang Pan, Cuixia Wang*, Chao Zhang*, Yongshen Wu, Fuming Wang, Hongyuan Fang. Compression fatigue and self-heating effect of foamed polyurethane grouting materials for roadbed trenchless rehabilitation. Journal of Materials Research and Technology, 2023, 27, 4521-4532.
[31] Yongshen Wu, Chao Zhang*, Cuixia Wang*, Timon Rabczuk, Pengjia Zhu, Peng Zhao, Lei Wang, Xiaoying Zhuang, Juan Zhang, Hongyuan Fang. The micro response mechanisms of foamed polymer rehabilitation material under compression: from a closed cell view. Polymer Testing, 2023, 124, 108082.
[32] Cuixia Wang, Chao Zhang, Jinwu Jiang, Harold S. Park, Timon Rabczuk. Mechanical Strain Effects on Black Phosphorus Nanoresonators. Nanoscale, 8(2), 901-905 (2016).
[33] Ning Wei, Zhen Li, Zhi-Hui Li, Chao Zhang, Cuixia Wang, Junhua Zhao, Kun Cai. A heat and force locating sensor in nanoscale precision: A knitted graphene sheet. Nanoscale, 2021.
[34] Cuixia Wang, Chao Zhang, Jinwu Jiang, Timon Rabczuk. The Effects of Vacancy and Oxidation on Black Phosphorus Nanoresonators. Nanotechnology, 2017, 28 (13): 135202.
[35] Cuixia Wang, Chao Zhang, Jinwu Jiang, Timon Rabczuk. A Coarse-Grained Simulation for the Folding of Molybdenum Disulphide. Journal of Physics D: Applied Physics,2015, 49(2), 025302.
[36] Cuixia Wang, Chao Zhang, Jinwu Jiang, Ning Wei, Harold S. Park, Timon Rabczuk. Self-Assembly of Water Molecules Using Graphene Nanoresonators. RSC Advances, 2016, 6(112), 110466-110470.
[1] 王翠霞, 王亚菲, 靳心瑶, 王明军, 张超, 孙斌, 张金萍, 张广毅. 一种具有联动转动结构的地下防堵塞装置[P]. 202122927514.X
[2] 王翠霞, 靳心瑶, 王亚菲, 王明军, 张超, 孙斌, 张广毅, 张金萍. 一种用于地下灌溉管道的联动转动结构[P]. 202122927513.5
[3] 王翠霞,张超,袁灵修,武永深,万京,魏宁,杜明瑞,赵鹏,王磊,石明生.一种基于分子动力学的交联聚氨酯建模方法[P].202210842801.7
[4] 张超,詹铭杰,王翠霞,方宏远,夏洋洋,孙康艳,赵鹏,孙斌,张广毅,张金萍.非水反应高聚物注浆材料抗渗性能测试装置[P].202220269208.3
[5] 张超,武永深,王翠霞,万京,魏宁,赵鹏,王磊,赵珍珍,常小周,张鸿刚.一种发泡高聚物闭合泡孔分子模型的构建方法[P] 202210927170.9
[6] 张超,潘旺,方宏远,张娟,夏洋洋,秦曾妮,王翠霞,赵鹏. 一种高聚物注浆材料疲劳温升特性的测试方法[P]. 中国:202210420711.9,2022.04.21
[7] 张超,王明军,鲁圆圆,王翠霞,杨志聪,靳晴晴,王逸卓,米洋洋,孙斌,张金萍. 一种闸门超声波除冰装置[P]. 中国:202111371881.4,2021.11.18
[8] 张超,付一鸣,张福斌,陈红衛,张逍然,秦晓晗,方宏远,王翠霞,孙斌,张广毅,张金萍. 一种免切割弧片状CIPP光固化模具[P]. 中国:202122696974.6,2021.11.05
[9] 张超,王亚菲,靳心瑶,王明军,王翠霞,孙斌,张金萍,张广毅. 一种用于地下灌溉的塑料管道[P].中国:202122927515.4,2021.11.22
[10] 鲁圆圆,张超,杨志聪,王明军,王翠霞,孙斌,张广毅,一种超声波智能一体化水库闸门除冰装置CN216405327U,2022.04.29
[11] 张超;张逍然;付一鸣;张福斌;陈红衛;秦晓晗;方宏远;王翠霞;孙斌;张广毅;张金萍,光固化实验箱CN307137418S,2022.03.01
[1]河南省教育厅科技成果奖优秀科技论文奖一等奖;
[2]华维杯第二届全国大学生农业水利工程及相关专业创新设计大赛一等奖;
[3]国家级大学生创新创业项目立项;
[4]MathorCup高校数学建模挑战赛二等奖;
[5]亚太地区大学生数学建模竞赛(APMCM)二等奖;
[6]Interdisciplinary Contest In Modeling Honorable Mention。