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外文期刊论文（*代表通讯作者）
[35] Liu, L., Zhang, X.*, Tian, X. and Li, X., 2023. Numerical investigation on dynamic performance of vertical hydraulic transport in deepsea mining. Applied Ocean Research, 130, pp.103443.
[34] Wang, H., Zhang, X., Zhang, X.*, Li, X., Tian, X., Shen, Y. and Song, W., 2023. Experimental investigations on hydrodynamic interactions between the cylinder and nets of a typical offshore aquacultural structure in steady current. Marine Structures, 88, pp.103367.
[33] Chen, Y., Zhang, X.*, Shen, K. and Ren, X., 2023. Extension of the discrete-module-finite-element method into the interconnected large floating flexible structures. Ocean Engineering, 269, pp.113549.
[32] Chen, Y., Zhang, X.*, Liu, L., Tian, X., Li, X. and Cheng, Z., 2023. A discrete-module-finite-element hydroelasticity method in analyzing dynamic response of floating flexible structures. Journal of Fluids and Structures, 117, pp.103825.
[31] Zhang, X., Lu, D., Dong, H., Zhao, X.*, Brennan, F. and Liang, Y., 2022. Vibration suppression of multi-component floating structures via passive TMDs and Bayesian ascent. Ocean Engineering, 259, p.112088.
[30] Zhang, X., Zhang, H.*, Zhou, X. and Sun, Z., 2022. Recent advances in wave energy converters based on nonlinear stiffness mechanisms. Applied Mathematics and Mechanics, 43(7), pp.1081-1108.
[29] Chen, Y., Zhang, Y., Tian, X., Guo, X., Li, X. and Zhang, X.*, 2022. A numerical framework for hydroelastic analysis of a flexible floating structure under unsteady external excitations: Motion and internal force/moment. Ocean Engineering, 253, p.111288.
[28] Wang, P., Tian, X., Liang, X., Guo, X., Li, X. and Zhang, X.*, 2021. Development of the control system for a wave driven glider. Ocean Engineering, 229, p.108813.
[27] Zhang, X., Lu, D., Liang, Y.* and Brennan, F., 2021. Feasibility of very large floating structure as offshore wind foundation: effects of hinge numbers on wave loads and induced responses.
Journal of Waterway, Port, Coastal, and Ocean Engineering, 147(3), p.04021002.
[26] Zhang, X.*, Tian, X., Guo, X., Li, X. and Xiao, L., 2020. Bottom step enlarging horizontal momentum flux of dam break flow. Ocean Engineering, 214, p.107729.
[25] Song, Y., Guo, X., Wang, H., Tian, X., Wei, H. and Zhang, X.*, 2020. Performance analysis of an adaptive bistable point absorber wave energy converter under white noise wave excitation. IEEE Transactions on Sustainable Energy, 12(2), pp.1090-1099.
[24] Zhang, X.*, Zheng, S., Lu, D. and Tian, X., 2019. Numerical investigation of the dynamic response and power capture performance of a VLFS with a wave energy conversion unit. Engineering Structures, 195, pp.62-83.
[23] Lu, D., Tian, X., Lu, W. and Zhang, X.*, 2019. Combined effects of raft length ratio and structural flexibility on power capture performance of an interconnected-two-raft wave energy converter. Ocean Engineering, 177, pp.12-28.
[22] Zhang, X.*, Draper, S., Wolgamot, H., Zhao, W. and Cheng, L., 2019. Eliciting features of 2D greenwater overtopping of a fixed box using modified dam break models. Applied Ocean Research, 84, pp.74-91.
[21] Zhang, X., Tian, X., Xiao, L., Li, X. and Lu, W.*, 2019. Mechanism and sensitivity for broadband energy harvesting of an adaptive bistable point absorber wave energy converter. Energy, 188, p.115984.
[20] Zhang, X.*, Tian, X., Xiao, L., Li, X. and Chen, L., 2018. Application of an adaptive bistable power capture mechanism to a point absorber wave energy converter. Applied Energy, 228, pp.450-467.
[19] Zhang, X., Lu, D., Gao, Y. and Chen, L., 2018. A time domain discrete-module-beam-bending-based hydroelasticity method for the transient response of very large floating structures under unsteady external loads. Ocean Engineering, 164, pp.332-349.
[18] Zhang, X. and Lu, D.*, 2018. An extension of a discrete-module-beam-bending-based hydroelasticity method for a flexible structure with complex geometric features. Ocean Engineering, 163, pp.22-28.
[17] Sun, Y., Lu, D., Xu, J. and Zhang, X.*, 2018. A study of hydroelastic behavior of hinged VLFS. International Journal of Naval Architecture and Ocean Engineering, 10(2), pp.170-179.
[16] Zhang, X.*, Lu, D., Guo, F., Gao, Y. and Sun, Y., 2018. The maximum wave energy conversion by two interconnected floaters: Effects of structural flexibility. Applied Ocean Research, 71, pp.34-47.
[15] Sun, Y. and Zhang, X.*, 2017. A second order analytical solution of focused wave group interacting with a vertical wall. International Journal of Naval Architecture and Ocean Engineering, 9(2), pp.160-176.
[14] Zhang, X.T., Yang, J.M. and Xiao, L.F., 2016. An oscillating wave energy converter with nonlinear snap-through Power-Take-Off systems in regular waves. China Ocean Engineering, 30(4), pp.565-580.
[13] Zhang, X., Yang, J.*, Zhao, W. and Xiao, L., 2016. Effects of Wave Excitation Force Prediction Deviations on the Discrete Control Performance of an Oscillating Wave Energy Converter. Ships and Offshore Structures, 11(4).
[12] Zhang, X.* and Yang, J., 2015. Power capture performance of an oscillating-body WEC with nonlinear snap through PTO systems in irregular waves. Applied Ocean Research, 52, pp.261-273.
[11] Chen, W., Wu, Z., Liu, J., Jin, Z., Zhang, X. and Gao, F., 2021. Efficiency analysis of a 3-DOF wave energy converter (SJTU-WEC) based on modeling, simulation and experiment. Energy, 220, p.119718.
[10] Zhao, Y., Gao, S., Zhang, X., Guo, X., Li, X. and Tian, X., 2021. Direct numerical simulations on the flow past a thin square plate. Physics of Fluids, 33(3), p.034128.
[9] Wang, P., Wang, D., Zhang, X., Li, X., Peng, T., Lu, H. and Tian, X., 2020. Numerical and experimental study on the maneuverability of an active propeller control based wave glider. Applied Ocean Research, 104, p.102369.
[8] Wang, D., Wang, P., Zhang, X., Guo, X., Shu, Y. and Tian, X., 2020. An obstacle avoidance strategy for the wave glider based on the improved artificial potential field and collision prediction model. Ocean Engineering, 206, p.107356.
[7] Wang, P., Zhang, X., Wang, D., Guo, X., Lu, W. and Tian, X., 2020. A restricted circle based position keeping strategy for the wave glider. Applied Ocean Research, 97, p.102081.
[6] Bi, A., Zhao, F., Zhang, X. and Ge, T., 2020. Combined Depth Control Strategy for Low-Speed and Long-Range Autonomous Underwater Vehicles. Journal of Marine Science and Engineering, 8(3), p.181.
[5] Wu, X., Zhang, X., Tian, X., Li, X. and Lu, W., 2020. A review on fluid dynamics of flapping foils. Ocean Engineering, 195, p.106712.
[4] Wang, P., Wang, D., Zhang, X., Guo, X., Li, X. and Tian, X., 2019. Path following control of the wave glider in waves and currents. Ocean Engineering, 193, p.106578.
[3] Lu, W., Li, J., Li, X., Tian, X., Wu, X. and Zhang, X., 2019. Experimental investigation on the statistics of rogue waves under a random wave background. Ocean Engineering, 186, p.106075.
[2] Lu, D., Fu, S., Zhang, X., Guo, F. and Gao, Y., 2019. A method to estimate the hydroelastic behaviour of VLFS based on multi-rigid-body dynamics and beam bending. Ships and Offshore Structures, 14(4), pp.354-362.
[1] Li, L., Zhang, X., Yuan, Z. and Gao, Y., 2019. Multi-stable mechanism of an oscillating-body wave energy converter. IEEE Transactions on Sustainable Energy, 11(1), pp.500-508.
中文期刊论文（*代表通讯作者）
[3] 俞嘉臻, 张显涛*, 李欣, 2022. 聚焦波作用下平面网衣结构的水动力特性研究. 海洋工程, 40(05), pp.98-110.
[2] 陈永强, 张宇，张显涛*, 2022. 基于离散模块梁单元水弹性理论的复杂连接处建模方法. 中国舰船研究, 17(1), pp.117-125.
[1] 张显涛, 杨建民，肖龙飞, 2015. 球体波能转换装置捕获能量的理论研究. 船舶力学，4.
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