艾丛芳（Email：aicongfang@dlut.edu.cn），大连市高端人才，副教授，博士生导师。

 

国际海洋与极地工程学会（ISOPE）会员、国际水利与环境工程学会（IAHR）会员。主要从事滨海城市洪涝灾害模拟与风险防控、智能水动力建模与应用、风电系统多物理场耦合动力学与优化、复杂自由表面流动模拟与应用等方面的研究。主持国家自然科学基金项目3项，主持或承担国家重点研发计划专题、高技术船舶科研项目等纵向科研项目3项，主持横向科研项目20余项；以第一作者或通讯作者发表SCI期刊论文30余篇。相关科研成果获中国水运建设行业协会科学技术一等奖、中国造船工程学会科技进步特等奖、辽宁省自然科学二等奖、海洋工程科学技术二等奖各1项。2019年获第三届“全国水利工程专业学位研究生优秀指导教师”荣誉称号。在人才培养方面，指导硕士研究生两次获“大连理工大学优秀硕士学位论文”；指导本科生获大连理工大学建设工程学院“攀登杯”创新创业竞赛一等奖、第五届全国大学生水利创新设计大赛二等奖。

课题组已毕业的博士、硕士研究生就业去向广泛，主要包括长江水利委员会长江科学院、交通运输部天津水运工程科学研究院、中国广核集团有限公司、中国电力工程顾问集团西北电力设计院有限公司、中国电建集团华东勘测设计研究院有限公司、辽宁海事局等科研院所、大型央企及政府部门。

 

课题组经费充足，招收博士研究生（学术和工程博士）和硕士研究生（学术和专业型）。

欢迎水利工程及相关专业学生报考！（联系方式：aicongfang@dlut.edu.cn）

 

Ø  主持科研项目

[1]国家自然科学基金面上项目，台风驱动下滨海城市复合洪水协同致灾机理研究，2027-2030年.

[2]国家自然科学基金面上项目，极端波浪与风场联合作用下浮式风机系统动力响应的研究，2022-2025年.

[3]国家自然科学基金青年基金项目，波、流与直立式结构物相互作用的三维模拟研究，2014-2016年.

[4]工信部高技术船舶专项，船舶CAE软件波浪模块及海洋导管架平台波浪载荷分析模块研发，2024-2026年.

[5]辽宁省教育厅重点实验室基础研究项目，溃坝波演进过程中的非静压效应研究，2015-2018年.

[6]基本科研业务费重大科技项目后补助项目，基于三维非静压模型的数值波浪水池研究，2018-2019年.

[7]企事业委托科研项目，铜仁市中心城区排水防涝数值模拟研究，2026年7月-12月.

[8]企事业委托科研项目，复杂岸线海岸带潮流水动力数值模拟研究，2026年1月-12月.

[9]企事业委托科研项目，赤水河整治建筑物防洪影响评价报告编制，2024年7月-12月.

[10]企事业委托科研项目，中电建万宁漂浮式海上风电试验项目海浪谱和极值波高分析专题技术服务，2023-2024年.

[11]企事业委托科研项目，红沿河核电冷源取水海域溢油/毛虾/大型藻类等漂移路径数值模拟，2021-2022年.

[12]企事业委托科研项目，盘锦港疏浚工程倾倒活动数值模拟研究项目，2021-2022年.

[13]企事业委托科研项目，陆地RFI源迭代聚类检测算法模型研究，2021-2022年.

[14]企事业委托科研项目，海洋平台海底冲刷数值模拟及可视化软件平台，2020-2021年.

[15]企事业委托科研项目，长兴岛西部石化区排水管线工程-马家咀排污口整治工程数模、物模实验，2014-2025年.

[16]企事业委托科研项目，凌水河下游河道水面线计算分析，2017年5月-12月.

 

Ø  代表性论文

[1] Congfang Ai, Yuxiang Ma*, Junzheng Li, Jiajie Song, Jiaxiang Sun. Physics-informed neural networks for hydrodynamic inversion and discharge estimation in river flows over complex bed topography. Journal of Hydrology, 2026, 680:136463.

[2] Weiye Ding, Yingjie Jiang, Hongyue Sun, Congfang Ai*, Jiahui Qiu, Naibo Sun, Zhihua Xie. Coupled aerodynamic–structural optimization of floating wind farms with heterogeneous turbine configurations under wake interactions and turbine yaw misalignment. Ocean Engineering, 2026, 364:127153.

[3] Zhangjian Wang, Lin Qi, Mingxiao Liang, Junzheng Li, Zihan Liu, Yuxiang Ma, Congfang Ai*. Experimental investigation on the motion responses of a moored outfitting ship with and without pontoons under extreme conditions. Ocean Engineering, 2026, 343:123434.

[4] Yan Xing, Congfang Ai*, Hailong Cui, Zhangling Xiao. Three-Dimensional Numerical Simulation of Flow Around a Spur Dike in a Meandering Channel Bend. Fluids, 2025, 10(8).

[5] Junzheng Li, Yuxiang Ma*, Congfang Ai, Yue Liu, Shuxia Bu, Botao Xie, Qi Zhang. Wave spectral characteristics of Northern South China Sea during tropical cyclones insights from two different tracks: Nesat and Sarika. Ocean Engineering, 2025, 341:122817.

[6] Yuxiang Ma, Yuqi Ding, Congfang Ai*, Yue Liu, Shuxia Bu. Prediction of wave parameters under extreme sea conditions using a 3D U-Net deep learning model. Ocean Engineering, 2025, 340:122269.

[7] Congfang Ai, Yuxiang Ma*, Jinsuo Zhang, Yifeng Gao, Yue Liu, Shuxia Bu. A numerical study on motion responses of OC-4 DeepCwind floating wind turbine equipped with two different mooring configurations in combined wind and wave environments. Ocean Engineering, 2025, 334:121661.

[8] Yuxiang Ma, Junzheng Li, Congfang Ai*, Wentao Zheng, Lei Sun, Botao Xie. Investigation of wave spectral climate at key location of the Northern South China sea using a novel modeling framework. Ocean Engineering, 2025, 327:121012.

[9] Congfang Ai, Yuxiang Ma*, Zhihan Li, Guohai Dong. Physics-Informed Neural Networks for Steady-State Weir Flows Using the Serre-Green-Naghdi Equations. Journal of Hydraulic Engineering, 2025, 151(1):04024056.

[10] Ke Zhao, Feng Wu*, Congfang Ai, Changyi Chen, Xuanlong Wu, Peng Zhong, Jun Yan. Modeling and analysis of control rod drop in a floating nuclear power plant under ocean conditions. Ocean Engineering, 2025, 338:121992.

[11] Feng Wu, Li Zhu, Yuelin Zhao, Congfang Ai*, Xiao Wang, Feng Cai, Dazhi Wang, Liujia Suo, Jun Yan. Wave spectrum fitting with multiple parameters based on optimization algorithms and its application. Ocean Engineering, 2024, 312:119073.

[12] Congfang Ai, Yuxiang Ma*, Chengwei Han, Guohai Dong, Jianbo Han. Capacity assessment of the recurrent disposal of dredged materials in a marine disposal area. Ocean & Coastal Management, 2024, 249:107005.

[13] Weiye Ding, Guowei Lin, Hongyue Sun*, Xizeng Zhao, Congfang Ai, Bijin Liu. Effects of a multi-segment mooring system using buoy and clump weights on motions of the OC-4 DeepCwind wind turbine system under wind and waves. Ocean Engineering, 2024, 296:117018.

[14] Congfang Ai, Yuxiang Ma*, Lei Sun, Guohai Dong. Numerical simulation of ship waves in the presence of a uniform current. Coastal Engineering, 2023, 179:104250.

[15] Weiye Ding, Hongyue Sun*, Xizeng Zhao, Congfang Ai. Numerical study of the interaction between an internal solitary wave and a submerged extended cylinder using OpenFOAM. Ocean Engineering, 2023, 274:113985.

[16] Zhiqiang Liu, Yanjun Mao, Jun Ding, Chao Tian, Siyu Wang, Congfang Ai, Xiaozhou Ma*, Guohai Dong. Analysis of Water Resonance in the Inner Domain of a Large Fixed Floating Tourist Platform Based on a 3D Non-Hydrostatic Model. Journal of Marine Science and Engineering, 2023, 11(3):649.

[17] Congfang Ai, Yuxiang Ma*, Changfu Yuan, Zhihua Xie, Guohai Dong, Thorsten Stoesser. Vortex shedding and evolution induced by the interactions between a solitary wave and a submerged horizontal plate. Journal of Hydraulic Research, 2022, 60(2):311–325.

[18] Congfang Ai, Yuxiang Ma*, Changfu Yuan, Zhihua Xie, Guohai Dong, Thorsten Stoesser. An efficient 3D non-hydrostatic model for predicting nonlinear wave interactions with fixed floating structures. Ocean Engineering, 2022, 248:110810.

[19] Congfang Ai, Yuxiang Ma*, Weiye Ding, Zhihua Xie, Guohai Dong. Three-dimensional non-hydrostatic model for dam-break flows. Physics of Fluids, 2022, 34(2):022105.

[20] Weiye Ding, Hongyue Sun*, Xizeng Zhao, Congfang Ai. Numerical investigation of an internal solitary wave interaction with tandem horizontal cylinders. Ocean Engineering, 2022, 246:110658.

[21] Congfang Ai, Yuxiang Ma*, Weiye Ding, Zhihua Xie, Guohai Dong. An efficient three-dimensional non-hydrostatic model for undular bores in open channels. Physics of Fluids, 2021, 33(12):127111.

[22] Zheng-rui Shi, Congfang Ai*, Sheng Jin. 3-D numerical simulation of curved open channel confluence flow with partially non-submerged rigid vegetation. Journal of Hydrodynamics, 2021, 33(5):992–1006.

[23] Congfang Ai, Yuxiang Ma*, Changfu Yuan, Guohai Dong. Non-hydrostatic model for internal wave generations and propagations using immersed boundary method. Ocean Engineering, 2021, 225:108801.

[24] Congfang Ai, Yuxiang Ma*, Changfu Yuan, Zhihua Xie, Guohai Dong. A three-dimensional non-hydrostatic model for tsunami waves generated by submarine landslides. Applied Mathematical Modelling, 2021, 96:1–19.

[25] Weiye Ding, Congfang Ai*, Sheng Jin, Jinbo Lin. Numerical investigation of an internal solitary wave interaction with horizontal cylinders. Ocean Engineering, 2020, 208:107430.

[26] Jinbo Lin, Congfang Ai*, Sheng Jin, Weiye Ding. Optimization of the Discharge and Energy Dissipation for a Real Hydro-Junction Project Based upon SPH Simulations. Water Resources Management, 2020, 34(9):2717–2730.

[27] Weiye Ding, Congfang Ai*, Sheng Jin, Jinbo Lin. 3D Numerical Investigation of Forces and Flow Field around the Semi-Submersible Platform in An Internal Solitary Wave. Water, 2020, 12(1):208.

[28] Jinbo Lin, Sheng Jin, Congfang Ai*, Weiye Ding. Experimental and Numerical Investigation of River Closure Project. Water, 2020, 12(1):241.

[29] Congfang Ai, Yuxiang Ma*, Changfu Yuan, Guohai Dong. Development and assessment of semi-implicit nonhydrostatic models for surface water waves. Ocean Modelling, 2019, 144:101489.

[30] Congfang Ai, Yuxiang Ma*, Changfu Yuan, Guohai Dong. A 3D non-hydrostatic model for wave interactions with structures using immersed boundary method. Computers & Fluids, 2019, 186:24–37.

[31] Yuxiang Ma, Changfu Yuan, Congfang Ai*, Guohai Dong. Comparison between a non-hydrostatic model and OpenFOAM for 2D wave-structure interactions. Ocean Engineering, 2019, 183:419–425.

[32] Congfang Ai, Yuxiang Ma*, Changfu Yuan, Guohai Dong. Semi-implicit non-hydrostatic model for 2D nonlinear wave interaction with a floating/suspended structure. European Journal of Mechanics - B/Fluids, 2018, 72:545–560.

[33] Nan Zhang, Sheng Jin, Congfang Ai, Weiye Ding. An integrated water-conveyance system based on Web GIS. Journal of Hydroinformatics, 2018, 20(3):668–686.

[34] Congfang Ai*, Weiye Ding, Sheng Jin. A hybrid-grid 3D model for regular waves interacting with cylinders. Journal of Hydraulic Research, 2017, 55(1):129–134.

[35] Congfang Ai*, Weiye Ding. A 3D unstructured non-hydrostatic ocean model for internal waves. Ocean Dynamics, 2016, 66(10):1253–1270.

[36] Congfang Ai*, Weiye Ding, Sheng Jin. A general boundary-fitted 3D non-hydrostatic model for nonlinear focusing wave groups. Ocean Engineering, 2014, 89:134–145.

[37] Congfang Ai*, Sheng Jin, Yan Xing. Influence of Suspended Load on 3D Numerical Simulation of Flow and Bed Evolution in a Meandering Channel Bend. Journal of Hydraulic Engineering, 2013, 139(4):450–455.

[38] Congfang Ai*, Sheng Jin. A multi-layer non-hydrostatic model for wave breaking and run-up. Coastal Engineering, 2012, 62:1–8.

[39] Congfang Ai*, Sheng Jin, Biao Lv. A new fully non-hydrostatic 3D free surface flow model for water wave motions. International Journal for Numerical Methods in Fluids, 2011, 66:1354–1370.

[40] Congfang Ai*, Sheng Jin. Non-hydrostatic finite volume model for non-linear waves interacting with structures. Computers & Fluids, 2010, 39:2090–2100.

 

• [1] 2003.09 -- 2008.09

  大连理工大学       水力学及河流动力学       博士

• [2] 1999.09 -- 2003.06

  大连理工大学       港口航道与海岸工程       学士

• [3] 1996.09 -- 1999.06

  鞍钢高级中学

• [1] 2020.01 -- 2021.01

  伦敦大学学院（UCL）      访问学者

• [2] 2013.12 -- 至今

  大连理工大学建设工程学部      副教授

• [3] 2008.09 -- 2013.12

  大连理工大学土木水利学院      讲师

• [1]

  滨海城市洪涝灾害模拟与风险防控

  面向风暴潮、天文潮、强降雨、河流洪水等多重致灾因素共同作用下的滨海城市洪涝问题，开展多源水动力过程及其耦合作用机制研究。重点发展城市地表—河网—排水管网—近岸海域一体化洪涝模拟方法，揭示复合洪涝的形成、演变与空间传播规律，并结合风险评估与防灾减灾需求，为滨海城市洪涝预报预警、防洪排涝设施优化及韧性城市建设提供理论与技术支撑。

• [2]

  风电系统多物理场耦合动力学与优化

  面向深远海浮式风电系统在复杂风、浪、流环境下的安全运行与高效利用问题，研究气动、水动力、结构动力、系泊及控制等多物理场之间的耦合作用机制。重点分析复杂环境荷载下风机—塔架—浮式平台—系泊系统的动力响应，以及风电场尾流、偏航控制和机组间相互作用，并开展平台、系泊、风机布置与控制策略的协同优化，为深远海风电系统的安全设计、高效运行与工程优化提供理论依据。

• [3]

  智能水动力建模与应用

  面向传统水动力模型计算成本高、参数反演困难以及复杂场景快速预测能力不足等问题，开展人工智能与水动力学深度融合研究。重点研究物理信息神经网络、深度学习、数据驱动与物理模型融合等方法，实现水位、流速、流量、地形及相关水动力参数的快速预测与反演，构建兼具物理约束、计算效率和泛化能力的智能水动力模型，为洪水预报、河流与海岸水动力分析及工程快速决策提供新型技术手段。

• [4]

  复杂自由表面流动模拟与应用

  面向河流、洪水、潮汐、波浪及波流相互作用等复杂自由表面流动过程，研究高精度、高效率水动力数值模拟方法及其演变机理。重点开展河道非恒定流、洪水传播与淹没、复杂地形水流以及波浪传播、破碎和越浪等问题研究，并将相关方法应用于河道洪水预报与演进模拟、流域及城市洪水分析、海岸与港口水动力计算及涉水工程安全评估。