Simulation of a novel wind-wave hybrid power generation system with hydraulic transmission

被引:25
|
作者
Wang, Bohan [1 ]
Deng, Ziwei [1 ]
Zhang, Baocheng [1 ]
机构
[1] Ocean Univ China, Dept Mech Engn, Coll Engn, Qingdao 266100, Peoples R China
关键词
Offshore wind energy; Wave energy; Hydraulic transmission; Complementary power generation; TURBINE; OPERATION; DESIGN;
D O I
10.1016/j.energy.2021.121833
中图分类号
O414.1 [热力学];
学科分类号
摘要
The mutual compensation of offshore wind energy and wave energy provides a cost-effective solution to offshore power supply. Herein, a novel wind-wave hybrid power generation system with hydraulic transmission is proposed, which consists of a wave energy harvesting part, a wind energy harvesting part, an energy coupling part, and a control part. This system removes the conventional electric regulation components and significantly reduces the negative interaction between the two energy harvesting parts. First, the working principles of the hybrid system, individual wind power generation system, and individual wave power generation system are introduced, and relevant numerical models are established. Next, simulation models of the three systems are established via AMESim and MATLAB/Simulink. Finally, the output power, generator speed, system pressures, and internal flow rates of the hybrid system are compared with those of two individual power generation systems to evaluate the complementary energy performance. Relative to the individual wave power generation system and individual wind power generation system, the hybrid system exhibits enhanced stability of the output power (by 69.42% and 21.03%, respectively) and enhanced stability of the generator speed (by 63.78% and 39.32%, respectively). Furthermore, the hybrid system exhibits a high energy coupling efficiency between 80.34% and 99.12%. (c) 2021 Elsevier Ltd. All rights reserved.
引用
收藏
页数:14
相关论文
共 50 条
  • [21] Power extraction in regular and random waves from an OWC in hybrid wind-wave energy systems
    Michele, S.
    Renzi, E.
    Perez-Collazo, C.
    Greaves, D.
    Iglesias, G.
    OCEAN ENGINEERING, 2019, 191
  • [22] Assessment of a Hybrid Wind-Wave Energy Converter System in Nearshore Deployment
    Binh, Phan Cong
    Dang, Tri Dung
    Ahn, Kyoung Kwan
    JOURNAL OF MARINE SCIENCE AND ENGINEERING, 2024, 12 (07)
  • [23] The power balancing benefits of wave energy converters in offshore wind-wave farms with energy storage
    Kluger, Jocelyn M.
    Haji, Maha N.
    Slocum, Alexander H.
    APPLIED ENERGY, 2023, 331
  • [24] Overview of the Recent Developments in Hybrid Floating Wind-Wave Platforms
    Hallak, T. S.
    Soares, C. Guedes
    JOURNAL OF MARINE SCIENCE AND APPLICATION, 2025, 24 (01) : 98 - 119
  • [25] Numerical Simulation of a Wind Turbine with a Hydraulic Transmission System
    Jiang, Zhiyu
    Yang, Limin
    Gao, Zhen
    Moan, Torgeir
    EERA DEEPWIND' 2014, 11TH DEEP SEA OFFSHORE WIND R&D CONFERENCE, 2014, 53 : 44 - 55
  • [26] Development of a Novel Brushless Power Split Transmission System for Wind Power Generation Application
    Niu, Shuangxia
    Liu, Yulong
    Ho, S. L.
    Fu, W. N.
    IEEE TRANSACTIONS ON MAGNETICS, 2014, 50 (11)
  • [27] Design and Development of Wave Energy - Wind Energy Hybrid Power Generation System
    Yang, Shaohui
    He, Guangyu
    Zhang, Haoran
    ENERGY ENGINEERING AND ENVIRONMENT ENGINEERING, 2014, 535 : 17 - +
  • [28] Modeling, simulation and control of a wind turbine with a hydraulic transmission system
    Skaare, Bjorn
    Hornsten, Bo
    Nielsen, Finn Gunnar
    WIND ENERGY, 2013, 16 (08) : 1259 - 1276
  • [29] Hydrodynamic performance and energy redistribution characteristics of wind-wave hybrid system based on different WEC microarrays
    Yu, Mingqi
    Cao, Feifei
    Wei, Zhiwen
    Han, Meng
    Shi, Hongda
    Chen, Pengfei
    Tian, Huiyuan
    OCEAN ENGINEERING, 2024, 306
  • [30] Hydrodynamic analysis of a novel multi-buoy wind-wave energy system
    Li, Yanni
    Yan, Shiqiang
    Shi, Hongda
    Ma, Qingwei
    Li, Demin
    Cao, Feifei
    RENEWABLE ENERGY, 2023, 219