华旭刚,湖南大学二级教授、博士生导师,国家自然科学基金杰出青年基金和优秀青年基金获得者,国家重点研发计划项目主持人、首席专家。现为湖南大学土木工程学院院长、桥梁工程安全与韧性全国重点实验室副主任、湖南大学风工程试验研究中心主任、风工程与桥梁工程湖南省重点实验室主任。主要从事桥梁风致振动与减振控制、桥梁智能监测与评估、海上风力机结构动力学等方向研究。兼任中国土木工程学会桥梁与结构分会常务理事、风工程专委会副主任,中国地震学会防震减灾工程分会常务理事,振动工程学会结构监测与抗振控制专委会、随机振动专委会、航天器振动与控制专委会等委员,Engineering Structures编委,Engineering青年编委及专题主编(section editor),振动工程学报、长安大学学报、中外公路编委,交通运输工程学报青年编委等。
人物经历
工作经历
2013年4月至今 湖南大学,教授, 博士生导师
2006.12-2011.12 湖南大学,副教授,硕士生导师
2006.06-2007.06 香港理工大学,研究助理
现任湖南大学土木工程学院院长。
学习经历
1995.09-1999.07 长沙铁道学院土木建筑学院,本科
1999.09-2003.05 中南大学土木建筑学院,获硕士学位
2003.06-2006.10 香港理工大学土木及结构工程系,获博士学位
学术兼职
Engineering Structures编委
中国工程院院刊系列主刊Engineering, 青年编委及专题主编 (Section Editor)
振动工程学报编委(第八/九届),长安大学学报编委,中外公路编委,交通运输工程学报青年编委等
中国土木工程学会结构风工程专委会副主任委员
中国地震学会工程隔震与减震控制专委会副主任
中国地震学会防震减灾工程分会常务理事
中国地震学会基础设施工程防震减灾专业委员会委员
湖南省公路学会桥隧专委会副主任
中国土木工程学会桥梁及结构工程分会第十届常务理事
中国公路学会桥梁与结构分会理事
中国振动工程学会随机振动专委会委员
中国振动工程学会结构抗振控制与监测专委会委员
中国振动工程学会航天器振动与控制专委会委员
中国勘察设计协会抗震防灾分会全国隔震减震专家委员会
中国工程建设标准化协会抗风减灾与风能利用专业委员会
研究方向
1、桥梁风致振动与减振控制
2、桥梁智能监测与评估
3、人致振动与减振技术
4、风力机混合塔
5、海上风力机结构动力性能
主要贡献
专利奖项
2020年湖南省技术发明一等奖,排名第二:高耗能密度高临界速度永磁电涡流阻尼新技术与应用
2005年教育部自然科学奖二等奖,排名第五:柔性工程结构非线性行为与控制的研究
2006年香港理工大学最具价值顾问项目奖,主要参与人,结构健康监测和安全评价系统的设计与研究:苏通大桥和江阴大桥
2007年国家版权局软件著作权,基于ANSYS的大跨桥梁多模态和全模态颤振分析软件系统V1.0
2007年国家科技进步二等奖,排名第六, 柔性桥梁非线性设计和风致振动与控制的关键技术
2015年获得国家专利,一种基于螺旋传动方式的轴向电涡流阻尼器
2016年获教育部自然科学二等奖,排第1:大跨度桥梁气动稳定的基础理论与灾变机理
ASCE期刊Journal of Performance of Constructed Facilities最佳论文提名奖
科研项目
主要纵向课题
国家自然科学基金杰出青年基金(52025082),桥梁风致振动与减振控制,主持(在研),2021-2025
国家重点研发计划政府间国际创新合作重点专项(2016YFE0127900),海上漂浮风机的混凝土基础结构体系及设计理论,主持(已结题),2017.02-2020.06
国家自然科学基金优秀青年基金项目,桥梁风工程,主持(已结题),2015-2017
国家自然科学基金面上项目,大跨度钢箱梁悬索桥的高阶竖弯模态涡激共振幅值预测方法研究,主持(已结题),2013-2016
国家自然科学基金青年基金项目,大型输电塔扭转风振与断线冲击效应及其控制方法研究,主持(已结题),2009-2011
教育部新世纪优秀人才支持计划,主持(完成),2011-2013
交通部青年交通科技英才,主持(完成),2012-2013
国家自然科学基金重点项目,桥梁风致振动的现代理论体系研究,参加(已结题),2008-2011
国家自然科学基金重大研究计划集成项目子课题,超大跨度桥梁风致灾变机理分析与控制方法的集成研究,参加(已结题),2013-2015
交通西部课题重大专项子课题:特大型桥梁风、雨作用监测与模拟技术研究,参加(已结题),2011-2014
横向项目
[1]绵阳市一号人行桥动力参数测定和减振效果评价,绵阳市投资控股集团有限公司,2012-2013
[2]新建蒙西至华中铁路洞庭湖特大桥结构抗风及斜拉索风雨振性能研究,西南交通大学/蒙西华中铁路股份有限公司,2013-2014
[3]西堠门大桥湖南大学吊索开发减振器及实桥验证,西堠门大桥建设指挥部,2013-2015
[4]输电线路铁塔结构阻尼识别方法研究,国家电网中国电力科学研究院,2013-2014
[5]宜昌庙嘴长江大桥结构抗风性能研究,宜昌市城市建设投资开发有限公司,2012-2015
[6]湖南张家界人行桥风参数观测、抗风设计与行人振动控制研究,张家界大峡谷旅游开发有限公司,2013-2015
[7]巴拿马运河第四大桥结构抗风性能研究,中交公路规划设计院有限公司,2018-2020
[8]景德镇市红旗峰景区玻璃人行桥抗风设计及致振动控制,中铁大桥勘测设计院集团有限公司,2018-2020
[9]超大跨径波形钢腹板连续梁桥抗风抗震与减振研究,深圳市市政设计研究院有限公司,2019-2021
[10]湖南省官庄至新化高速公路马路口特大桥结构抗风性能研究,湖南省交通规划勘察设计院有限公司,2018-2020
[11]厦门健康步道景观提升工程大跨空间异型人行桥人致振动舒适性及减振措施研究,厦门市市政建设开发有限公司,2018-2020
[12]广州南沙红莲大桥主桥抗风性能研究,铁四院,2018-2020
[13]大跨度非对称上承式钢管混凝土桁架拱桥关键技术-结构抗风性能研究,铁四院,2018-2020
[14]新建宁波至舟山铁路铁路跨海大桥科研专题(桃夭门大桥抗风),中铁大桥勘测设计院集团有限公司,2019-2021
[15]朵花特桥梁抗风性能试验研究及人致振动舒适性和抗震研究,贵州贵深投资发展有限公司,2017-2020
[16]朵花特大桥桥址处风环境实测数据分析与研究,贵州贵深投资发展有限公司,2019-2022
[17]明珠湾大桥施工期抗风评价及措施研究(含补充合同),中铁建大桥工程局集团南方工程有限公司 广州明珠湾大桥工程一分部,2019-2020
[18]广汕铁路深汕西高速主桥抗风性能研究及桥塔气弹模型实验,铁四院,2018-2020.
[19]混合结构风机塔筒数值分析与风洞试验及研究,西北院,2020-2021
[20]广州塔南广场配建珠江两岸人行景观桥项目抗风专题研究, 广州市建设投资发展有限公司,2020-2121
[21]安徽黄山湖田山景区项目一期工程桥梁风洞试验与人致振动研究, 黄山中惠旅湖田山旅游开发有限公司, 2020-2021
[22]双拱形塔钢混叠合梁斜拉桥抗风与抗震性能研究,深圳市市政设计研究院有限公司,2020-2022
[23]李家沱长江复线桥抗风性能研究和风车桥耦合振动安全性分析研究,林同棪国际工程咨询(中国)有限公司,2020-2022
[24]跨径超2000米双层多车道悬索桥结构安全关键技术研究-超长吊索风致振动及控制措施研究,中交设计院,2020-2022
[25]环东海域新城文体公建群景观慢行桥工程人致振动研究,厦门市特房海湾投资有限公司,2020-2021
[26]深圳机荷高速立体改扩建工程排架拱桥风洞试验研究,一公院,2021-2023
[27]花江峡谷大桥抗风性能与人致振动舒适性研究,贵州省院,2021-2023
[28]楚景高速公路礼社江特大桥风洞模型试验研究,中铁二院,2021-2023
[29]通苏嘉甬铁路杭州湾跨海大桥抗风试验研究,中铁大桥院,2021-2023
[30]港珠澳大桥补充异常振动(涡振)监测与测试,港珠澳大桥管理局,2021-2022
[31]狮子洋通道主桥主缆风致振动研究,中交公路规划勘察设计院有限公司,2021-2022.
[32]江阴第三通道协作体系抗风性能研究,中铁大桥院,2021-2022
学术论文
[1] Wang CQ, Hua XG*, Feng ZQ* and Chen ZQ (2021), Experimental investigation on vortex-induced vibrations of a triple-box girder with web modification, Journal of Wind Engineering & Industrial Aerodynamics, 218: 104783
[2] Yang LB, Hua XG, Wang CQ*, He Dong-sheng, Chen ZQ (2021), Aerodynamic interference effects between a triple-box girder and trains on aerodynamic forces and vortex-induced vibrations, Journal of Central South University, in press.
[3] Li Weilin, Patruno L, Niu HW, de Miranda S, Hua XG, Aerodynamic admittance of a 6:1 rectangular cylinder: a computational study on the role of turbulence intensity and integral length scale, Journal of Wind Engineering and Industrial Aerodynamics, Vol. 218, 104738
[4] Wang WX, Yang ZL, Hua XG*, Chen ZQ, Wang XY, and Song GB (2021), Evaluation of a pendulum pounding tuned mass damper for seismic control of structures, Engineering Structures, 228: 111554
[5] Wang CQ, Hua XG*, Tang Y, Huang ZW, and Chen ZQ (2021), Post-critical behavior of galloping for main cables of suspension bridges in construction phases, Journal of Fluids and Structures, 101: 103205
[6] Chen B, Basu B, Hua XG*, Feng ZQ, Zhang Zili*, Nielsen SRK and Chen ZQ (2021), Online DWT algorithm for identification of aerodynamic damping in wind turbines, Mechanical Systems and Signal Processing, 152: 107437, https://doi.org/10.1016/j.ymssp.2020.107437
[7] Chen B, Hua XG*, Zhang ZL*, Nielsen SRK, Chen ZQ (2021), Active flutter control of wind turbines using boule-pitched blades, Renewable Energy, https://doi.org/10.1016/j.renene.2020.10.122, Vol 163, 2081-2097.
[8] Chen C, Doffour M et al. (2021), Identification of aerodynamic damping matrix for operating wind turbines, Mechanical Systems and Signal Processing, 154: 107568, https://doi.org/10.1016/j.ymssp.2020.107568
[9] Xu K, Hua XG*, Lacarbonara W, Huang ZW, Chen ZQ (2021), Exploration of nonlinear effect of pendulum tuned mass dampers on vibration control, Journal of Engineering Mechanics, ASCE, paper No. EMENG-5904, 10.1061/(ASCE)EM.1943-7889.0001961
[10] Chen B, Zhang ZL*, Hua XG, Closed-form optimal design of a tuned liquid column damper (TLCD) for flexible structures, International Journal of Mechanical Sciences, Vol. 198, 106364
[11] Hua XG, Tai YJ, Huang ZW*, and Chen ZQ (2021), Optimal design and performance evaluation of a novel hysteretic friction tuned inerter damper for vibration isolation systems, Structural Control and Health Monitoring. https://doi.org/10.1002/stc.2775
[12] Chen C, Doffour M, Hua XG* (2021), Numerically efficient fatigue life prediction of offshore wind turbines using aerodynamic decoupling, Renewable Energy, in press
[13] Wang CQ, Hua XG*, Huang ZW and Wen Q (2021), Aerodynamic characteristics of coupled twin circular cylinders with near wake interference in cross flow, Applied Science, 2021, 11(9), 4189
[14] Liu ZQ, Wang YZ* and Hua XG (2021), Proposal of a novel analytical wake model and array optimization of oscillating wave surge converter using differential evolution algorithm, Ocean Engineering, Paper No. 108380
[15] Liu ZQ, Wang YZ* and Hua XG, Zhu HP and Zhu ZW (2021), Optimization of wind turbine TMD under real wind distribution countering wake effects using GPU acceleration and machine learning technologies, Journal of Wind Engineering and Industrial Aerodynamics, Vol. 208, 104436
[16] Liu ZQ*, Cao YW, Wang YZ, Cao JX, Hua XG, Cao SY (2021), Characteristics of compact debris induced by a tornado studied using large eddy simulations, Journal of Wind Engineering & Industrial Aerodynamics, Vol. 201, 104530
[17] Liu ZQ, Peng J, Hua XG and Zhu ZW (2021), Wind farm optimization considering non-uniformly distributed turbulence intensity, Sustainable Energy Technologies and Assessments, Vol. 43: 100970.
[18] Li Weilin, Patruno L, Niu HW, de Miranda S, Hua XG, (2021) Identification of complex admittance functions using 2D-URANS models: inflow generation and validation on rectangular cylinders, Journal of Wind Engineering & Industrial Aerodynamics, Vol. 208, 104435
[19] Hua XG*, Wang CQ, Li SL, Chen ZQ (2020), Experimental investigation of wind-induced vibrations of main cables for suspension bridges in construction period, Journal of Fluids and Structures, 2020, 93, Article No. 102846, 17 pages
[20] Hua XG*, Xu K, Wang YW, Wen Q, Chen ZQ (2020), Wind-induced responses and dynamic characteristics of a super-tall building under a typhoon event, Smart Structures and Systems, 25(1): 81-96
[21] Zhang HY, Chen ZQ, Hua XG*, Huang ZW and Niu HW (2020), Design and dynamic characterization of a large-scale eddy current damper with enhanced performance for vibration control, Mechanical Systems and Signal Processing, Article No. 106879, Vol, 145, 1-24 pages.
[22] Hua XG*, Meng QS, Chen B, Zhang ZL (2020), Structural damping sensitivity affecting the flutter performance of a 10MW offshore wind turbine, Advances in Structural Engineering, 23(14): 3037-3047
[23] Liu ZQ, Wang YZ* and Hua XG (2020), Numerical studies and proposal of design equations on cylindrical oscillating wave surge converters under regular waves using SPH, 2020, Energy Conversion and Management, 203, Article No. 112242, 22 pages
[24] Liu ZQ, Wang YZ* and Hua XG (2020), Prediction and optimization of oscillating wave surge converter using machine learning techniques, Energy Conversion and Management, 210, Article No. 112677, 18 pages
[25]Liu ZQ, Gao SY, Liu HP, Hua XG, Ishihara T (2020), Effect of Reynolds number in the range from 1.6´10^3 to 1.6´10^6 on the flow fields in tornado-like vortices by LES: a symmetrical study, Journal of Wind Engineering and Industrial Aerodynamics, 196: 104028, DOI: 10.1016/j.jweia.2019.104028
[26] Huang ZW, Hua XG*, Chen ZQ, and Niu HW (2019), Optimal design of TVMD with linear and nonlinear viscous damping for SDOF systems subjected to harmonic excitations, Structural Control and Health Monitoring, 26(10): e2413
[27] Hua XG*, Chen ZQ, Lei X, Wen Q, Niu HW, Wen Q (2019), Monitoring and Control of wind-induced vibrations of hanger ropes of a suspension bridge, Smart Structures and Systems, 31(6): 683-693
[28] Huang ZW, Hua XG*, Chen ZQ, Niu HW (2019), Performance evaluation of inerter-based damping devices for structural vibration control of stay cables, Smart Structures and Systems, 31(6): 615-626
[29] Huang ZW, Li YZ, Hua XG*, Chen ZQ (2019), Automatic identification of bridge vortex-induced vibration using random decrement method, Applied Science, 9(10): 2049 https://doi.org/10.3390/app9102049
[30] Cao Z, Hua XG*, Wen Q, Chen ZQ (2019), Identification of structural and TMD parameters from the combined structure-TMD system by a state-space technique, Advances in Structural Engineering, 22(9): 2048-2060
[31] Wang WX, Hua XG*, Wang XY, Chen ZQ (2019), Modeling, simulation and validation of a pendulum pounding tuned mass damper (PPTMD) for vibration control, Structural Control and Health Monitoring, 26(4): e2326.
[32] Tang Y, Hua XG*, Chen ZQ and Zhou Y (2019), Experimental investigation of flutter characteristics of shallow П section at post-critical regime, Journal of Fluids and Structures, 88: 257-274
[33] Wang WX, Hua XG*, Wang XY and Chen ZQ (2019), Mechanical behavior of magnetorhelogical dampers after long-term operation in a cable vibration control system, Structural Control and Health Monitoring, https://doi.org/10.1002/stc.2280
[34] Liu ZQ, Zhou QS, Tu YG, Wang W, Hua XG (2019), Proposal of a novel semi-submersible floating wind turbine platform composed of inclined columns and multi-segmented mooring lines, Energies, 12(9)
[35] Hui Y, Kang HJ, Law SS, Hua XG* (2019), Effect of cut-off order of nonlinear stiffness on the dynamics of a sectional suspension bridge model, Engineering Structures, 185: 377-391.
[36] Liu ZQ, Wang YZ, Wang Y, Hua XG(2019), Numerical modeling and optimization of a winged box-type floating breakwater by smoothed particle hydrodynamics, Ocean Engineering, 88: 104246
[37] Wang WX, Hua XG*, Wang XY, Chen ZQ, Song GB(2018), Numerical modeling and experimental study on a novel pounding tuned mass damper, Journal of Vibration and Control, 24(17): 4023-4036
[38] Wang WX, Wang XY, Hua XG*, Chen ZQ, Song GB (2018), Vibration control of vortex-induced vibrations of a bridge deck by single-sided pounding tuned mass dampers, Engineering Structures, 173: 61-75.
[39] Chen B, Zhang ZL, Hua XG*, Nielsen SRK and Basu B. (2018), Enhancement of flutter stability in wind turbines with a new type of passive damper of torsional rotation of blades, Journal of Wind Engineering & Industrial Aerodynamics, 173(3): 171-179.
[40] Wen Q, Hua XG*, Chen ZQ, Niu HW (2018), Experimental study of wake-induced instability of coupled parallel hanger ropes for suspension bridges, Engineering Structures, 167(15): 175-187.
[41] Huang ZW, Hua XG*, Chen ZQ, Niu HW (2018), Modeling, testing and validation of a eddy current damper for vibration control, Journal of Aerospace Engineering, ASCE, 31(5):04018057
[42] Wen Q, Hua XG*, Chen ZQ, Niu HW (2018), AMD-based random decrement technique for modal identification of structures with close modes, Journal of Aerospace Engineering, 31(5):04018063
[43] Yan G, Li TT, Feng RQ, Chen G, Hua XG, Duan QH (2018), Detection of Nodal Snap-through Instability in Reticulated Shell Structures Using Tilt Sensing of Members, Journal of Applied Nonlinear Dynamics, 7(1): 25-44.
[44] Zhou S, Hua XG*, Chen ZQ, Chen Wn (2017), Experimental investigation of correction factor for VIV amplitude of flexible bridges from an aeroelastic model and its 1:1 section model, Engineering Structures, Vol 141: 263-271. DOI: 10.1016/j.engstruct.2017.03.023,
[45]. Wang WX, Hua XG*, Wang XY, Chen ZQ, Song GB (2017), Optimum design of a novel pounding tuned mass damper under harmonic excitation, Smart Materials and Structures, 2017, 26(5):055024
[46]. Wang WX, Hua XG, Wang XY (2017), Advanced impact force model for pounding between viscoelastic materials and steel, Journal of Engineering Mechanics, 2017, 143(12):04017139
[47] Hua XG*, Wen Q, Ni YQ and Chen ZQ, Assessment of stochastically updated finite element models using reliability indicator, Mechanical Systems and Signal Processing, 2017, 82(1): 217-229
[48] Wen Q, Hua XG*, Chen ZQ et al. (2017), Modal parameter identification of a long-span footbridge by forced vibration experiments, Advances in Structural Engineering, 20(6): 661-673
[49]. Wen YK, Chen ZQ, Hua XG, (2017), Design and evaluation of tuned viscous mass dampers for the seismic control of MDOF structures, Journal of Structural Engineering, ASCE, 143(4):04016207
[50]. Chen B*, Zhang LL, Hua XG, Basu B., Nielsen SRK (2017),Online identification of aerodynamic damping in wind turbines using time-frequency analysis, Mechanical Systems and Signal Processing, 2017, 91:198-214.
[51]. Guirong Yan, Chen Fang, Ruoqiang Feng, Xugang Hua and Yi Zhao (2017), “Detection of member vverall buckling in civil space grid structures based on deviation in strain along the member,” Engineering Structures, 2017, 131, 599-613.
[52] Wen Q, Hua XG*, Chen ZQ et al.(2016), Control of human-induced vibrations of a curved cable-stayed bridge: design, implementation and field validation, ASCE Journal of Bridge Engineering, 2016, 21(7): 0401608
[53] Hua, XG*, Chen ZQ, Chen Wen (2015), Investigation on the effect of vibration frequency on vortex-induced vibrations by section model tests, Wind and Structures,
[54] Hua XG*, Chen, Z.Q., Yang J.B., Niu H.W., and Chen B. (2014),Turbulence Integral Scale Corrections to Experimental Results of Aeroelastic Models with Large Geometric Scales: Application to Gust Loading Factor of a Transmission Line Tower, Advances in Structural Engineering,
[55] Hua XG*, Ni Y. Q., Chen Z.Q., He X. H. (2012), Monte Carlo study of effect of measurement noise in finite element model updating with regularization, Journal of Engineering Mechanics, ASCE, 138(1): 71-81
[56] Chen ZQ, Liu MG, Hua XG, and Mou TM (2012), Flutter, galloping and vortex-induced vibrations of H-section hangers, Journal of Bridge Engineering, 17(3): 500-
[57] He XH*, Hua XG, Chen ZQ, and Huang, FL. (2010), EMD-based random decrement technique for modal parameter identification of an existing railway bridge, Engineering Structures, 33(4): 1348-1356
[58] Hua XG*, Ni YQ, and Ko JM (2009), Adaptive regularization parameter optimization in output-error-based finite element model updating. Mechanical System and Signal Processing, 23(3): 563-579
[59] Hua XG*, Ni YQ, Chen ZQ, and Ko JM. (2009), Structural damage detection of cable-stayed bridges using changes in cable forces and model updating. Journal of Structural Engineering, ASCE, 135(9): 1093-1106.
[60] Hua XG*, Ni YQ, Chen ZQ, and Ko JM. (2008), An improved perturbation method for stochastic finite element model updating. International Journal for Numerical Methods in Engineering, 73(13): 1845-1864
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华旭刚,邓武鹏,陈政清,唐煜,水流作用下双圆柱墩混凝土梁桥的动力响应实测与数值模拟,工程力学,2021,38(01)
温青,华旭刚,陈政清等,一种高阶模态涡振新气弹模型的参数优化,振动与冲击,2020
陈政清,华旭刚,牛华伟,黄智文等,永磁电涡流阻尼新技术极其在土木工程中的应用,中国公路学报,2020
沈练,华旭刚,韩艳等,高精度入口边界的峡谷桥址风场模拟,中国公路学报,2020
温青,华旭刚等,端部条件及长宽比对矩形断面节段模型涡激振动的影响,振动工程学报,2020
华旭刚,杨维清,陈政清,黄智文,悬索桥并列吊索整体风振特性与气动阻尼研究,铁道科学与工程学报,2020
华旭刚,王圣琪,陈政清,大跨径悬带桥颤振特性研究,中国公路学报,2020
华旭刚,黄智文,陈政清,大跨度悬索桥的多阶模态竖向涡振与控制,中国公路学报,2019
刘岗,封周权,华旭刚,陈政清,基于子集模拟的风机叶片可靠度分析,计算力学学报,2019
华旭刚,曹利景,王钰,陈政清,钢桁梁桥大悬臂状态顶推启动瞬态动力效应分析,桥梁建设,2019
温青,华旭刚,王修勇,陈政清,利用耦合系统自由振动响应识别结构被控模态和TMD参数,振动工程学报,2019.
温青,华旭刚等,基于耦合系统环境振动试验的结构和TMD参数识别,振动与冲击,2019
华旭刚,孙瑞丰,温青,陈政清,颜永先,基于新奇检测技术的桥梁涡激共振自动识别研究,振动工程学报,2018
华旭刚,杨坤,温青,陈政清,悬索桥钢桁梁断面质量惯性矩简化计算方法,湖南大学学报,2017
华旭刚,周洋,杨坤,温青,陈政清,李瑜,基于连续跳车激振的大跨度桥梁阻尼识别研究,铁道科学与工程学报,2017
温青,华旭刚,陈政清等,基于稳态简谐激励的人行桥模态参数识别研究,中国公路学报,2017
吴其林,华旭刚,胡腾飞,基于能量方法的拉索尾流驰振风洞试验研究,振动工程学报,2017
华旭刚,温青,陈政清,杨勇等,大跨度双层曲线斜拉桥人致振动减振优化与实测验证,振动工程学报,2016
温青,华旭刚,陈政清等,大跨度双层曲线斜拉桥人致振动试验研究,振动工程学报,2016
杨靖波,华旭刚,陈政清,何文飞,牛华伟(2010),约束阻尼层在输电塔振动控制中的应用研究,振动工程学报,
华旭刚,陈政清,杨靖波等(2010),大缩尺比气弹模型风洞试验紊流积分尺度修正,建筑结构学报,(10), 55-61
华旭刚,陈政清(2007). 基于ANSYS的桥梁全模态颤振频域分析方法,中国公路学报,20(5): 41-47.
华旭刚,陈政清,祝志文(2002).桥梁风致颤振分析以及在ANSYS中的实现,重庆交通学院学报,21(4):12-15.
华旭刚,陈政清(2002). 桥梁风致颤振临界状态的全域自动搜索法,工程力学,19(2):68-72.