Topic Editors

Dr. Yanfei Deng
Institute of Intelligent Ocean Engineering, Harbin Institute of Technology, Shenzhen, China
Prof. Dr. Mingming Zhang
School of Mechanical Engineering and Automation, Harbin Institute of Technology, Shenzhen Campus, Shenzhen 518055, China
Department of Civil Engineering, The University of Hong Kong, Hong Kong, China

Advancements in Cost-Effective and Reliable Floating Offshore Wind Technologies: From Innovative Design to System Integration

Abstract submission deadline
30 September 2026
Manuscript submission deadline
30 November 2026
Viewed by
598

Topic Information

Dear Colleagues,

Floating offshore wind energy holds transformative potential for renewable energy systems, yet challenges in cost reduction, structural reliability, and deep-sea adaptability remain critical. This Topic seeks groundbreaking research and innovative approaches to advance floating offshore wind technologies, focusing on low-cost solutions and high-reliability engineering for commercial scalability. We invite contributions that bridge theoretical breakthroughs, computational modeling, experimental validation, and field deployment to accelerate the transition to sustainable offshore energy systems.

In this Topic, original research articles and reviews are welcome. Research areas may include (but not limited to) the following:

Revolutionary Floating Structure Design

  • Ultra-lightweight hybrid materials (e.g., FRP-concrete composites);
  • Topology optimization through digital twins;
  • Adaptive floating platforms for multi-sea-state resilience;
  • Hybrid energy systems (wind-wave-current integration).

Novel Mooring Solutions

  • AI-driven dynamic mooring configuration optimization;
  • Shared mooring infrastructure for multi-platform cost savings;
  • Novel deep-sea mooring materials or accessories;
  • Failure prevention and self-recovery mechanisms under extreme loads.

Multidimensional Vibration Mitigation

  • Semi-active control using magnetorheological dampers;
  • Fluid-coupled tuned mass dampers;
  • Structural-fluid interaction vibration suppression algorithms;
  • Digital twin-based fatigue life prediction models.

Aerodynamic-Structural Synergy

  • Dynamic wake steering for load reduction;
  • Bio-inspired blade designs;
  • Real-time LiDAR-enabled feedforward control;
  • Aeroelasticity-constrained blade lightweighting;
  • Typhoon-resistant aerodynamic shutdown systems.

Digital Transformation

  • Machine learning-driven multi-objective design optimization;
  • Digital twin lifecycle management platforms;
  • Edge computing for real-time structural health monitoring;
  • Autonomous robotic O&M systems;
  • Blockchain-enabled supply chain cost optimization.

We look forward to receiving your contributions.

Dr. Yanfei Deng
Prof. Dr. Mingming Zhang
Dr. Xiaowei Deng
Topic Editors

Keywords

  • floating offshore wind
  • cost-effective design
  • structural reliability
  • novel mooring
  • vibration control
  • digital twin
  • multi-disciplinary optimization

Participating Journals

Journal Name Impact Factor CiteScore Launched Year First Decision (median) APC
Applied Sciences
applsci
2.5 5.5 2011 19.8 Days CHF 2400 Submit
Energies
energies
3.2 7.3 2008 16.2 Days CHF 2600 Submit
Journal of Composites Science
jcs
3.7 5.8 2017 16.2 Days CHF 1800 Submit
Journal of Marine Science and Engineering
jmse
2.8 5.0 2013 15.6 Days CHF 2600 Submit
Machines
machines
2.5 4.7 2013 16.9 Days CHF 2400 Submit
Wind
wind
1.7 2.9 2021 28.3 Days CHF 1200 Submit
Fluids
fluids
1.8 4.0 2016 21.7 Days CHF 1800 Submit

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Published Papers (1 paper)

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24 pages, 8109 KB  
Article
A Bidirectional Tuned Mass Damper for Flutter Suppression in Ultra-Large Offshore Wind Turbine Flexible Blades
by Weiliang Liao, Mingming Zhang, Jianjun Yang, Youhua Fan, Tianlun Du and Yanfei Deng
J. Mar. Sci. Eng. 2025, 13(9), 1776; https://doi.org/10.3390/jmse13091776 - 14 Sep 2025
Viewed by 363
Abstract
As onshore space resources become exhausted, the migration of wind turbines to offshore areas is an inevitable trend. The blades of offshore wind turbines are typically over 100 m long, and this increased nonlinearity in the blades escalates the risk of flutter. Addressing [...] Read more.
As onshore space resources become exhausted, the migration of wind turbines to offshore areas is an inevitable trend. The blades of offshore wind turbines are typically over 100 m long, and this increased nonlinearity in the blades escalates the risk of flutter. Addressing the flutter phenomenon in these ultra-long flexible blades, this research establishes a full-scale model (FSM) considering geometric and material nonlinearities to accurately characterize the nonlinear dynamic response. Compared to the equivalent beam model, the proposed FSM better lays a foundation for flutter suppression research. On this basis, a bidirectional TMD was innovatively applied to the wind turbine blade and compared against a unidirectional TMD. The results demonstrate that bidirectional TMD can enhance the flutter control rate of 15 MW blades to over 90%, significantly improving flutter characteristics. Compared to the original blade, the steady-state amplitude is reduced by up to 45.73%, markedly suppressing flutter levels. These findings provide theoretical and data support for subsequent studies on aeroelastic instability and flutter suppression in ultra-long flexible blades, offering significant engineering application value and potential for broader implementation. Full article
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