Energies · 2022 · 158 citations · 130 references
EngineeringMarine EngineeringOcean EngineeringOffshore EngineeringOffshore StructuresWind EngineeringMooring SystemsOffshore Wind EnergyWind Turbine TechnologyWind-induced VibrationAnchorsFloating Offshore Wind Turbine MooringsFloating Offshore Wind TurbinesFloating Wind TurbinesInertial LoadsOffshore Wind Energy SystemsOffshore Wind TurbinesWind Turbine Aerodynamics
Offshore wind energy, favored for its higher and steadier winds, has grown in popularity, but until floating structures were introduced turbines were limited to shallow or simple seabeds; now floating turbines can be placed far offshore, offering steadier winds, reduced visual impact, and flexible noise requirements, yet a thorough understanding of their dynamic physics, design principles, and analysis methods is essential to compete with fossil fuels. The present work offers.
Offshore wind energy is a sustainable renewable energy source that is acquired by harnessing the force of the wind offshore, where the absence of obstructions allows the wind to travel at higher and more steady speeds. Offshore wind has recently grown in popularity because wind energy is more powerful offshore than on land. Prior to the development of floating structures, wind turbines could not be deployed in particularly deep or complicated seabed locations since they were dependent on fixed structures. With the advent of floating structures, which are moored to the seabed using flexible anchors, chains, or steel cables, wind turbines can now be placed far offshore. The deployment of floating wind turbines in deep waters is encouraged by several benefits, including steadier winds, less visual impact, and flexible acoustic noise requirements. A thorough understanding of the physics underlying the dynamic response of the floating offshore wind turbines, as well as various design principles and analysis methods, is necessary to fully compete with traditional energy sources such as fossil fuels. The present work offers a comprehensive review of the most recent state-of-the-art developments in the offshore wind turbine technology, including aerodynamics, hydromechanics, mooring, ice, and inertial loads. The existing design concepts and numerical models used to simulate the complex wind turbine dynamics are also presented, and their capabilities and limitations are discussed in detail.
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The Force Exerted by Surface Waves on Piles
J. R. Morison, J. W. Johnson, S. A. Schaaf · Journal of Petroleum Technology · 1950 · 2.6K citations · Full text
Gaëtan Kerschen, Jean‐Claude Golinval, Alexander F. Vakakis et al. · Nonlinear Dynamics · 2005 · 887 citations · Full text
Engineering, Mechanical Engineering, Systems Engineering +17