Extended Winkler Model for design of offshore wind turbine large diameter monopiles

We propose a new model for the design of large diameter monopiles in this paper. These foundations are increasingly used for offshore wind turbines in water depths of up to 35 m. Our model extends the Winkler Model by incorporating rigid rotation effects relevant to large diameter piles, using conventional p-y and t-z curves to account for additional soil reactions. The current model primarily focuses on lateral loading ; however, it is designed to accommodate axial loading as well, allowing for flexibility in future analyses should axial effects be incorporated. We demonstrate that our model adequately accounts for soil reaction due to rigid rotation by comparing its results with those of the PISA model. Furthermore, we validate our numerical results against available experimental data, showing that the proposed model can accurately predict pile behavior under lateral loading. • Higher order soil reaction due to rigid rotation are calculated based on p − y and t − z curves. • Winkler Model is extended to account for higher order soil reactions. • Distributed moment ( M − θ ) and base shear curves are calculated from t − z curve. • Base moment curve is computed from p − y curve. • Numerical results are compared to PISA model results and validated against experimental data.

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Publication Details

Journal
Ocean Engineering
Published
2024-10-31
DOI
https://doi.org/10.1016/j.oceaneng.2024.119619
Citations
7
Primary Topic
Railway Engineering and Dynamics
Type
article
Field-Weighted Citation Impact
1.49
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article

Extended Winkler Model for design of offshore wind turbine large diameter monopiles

Parvinder S. Jhita, Navid Mozaffari, Ataollah Mesgarnejad, Geoff McDonald
7 citations
Ocean Engineering
Railway Engineering and Dynamics
1.49
article

Extended Winkler Model for design of offshore wind turbine large diameter monopiles

Parvinder S. Jhita, Navid Mozaffari, Ataollah Mesgarnejad, Geoff McDonald
article en
7 citations

Abstract

We propose a new model for the design of large diameter monopiles in this paper. These foundations are increasingly used for offshore wind turbines in water depths of up to 35 m. Our model extends the Winkler Model by incorporating rigid rotation effects relevant to large diameter piles, using conventional p-y and t-z curves to account for additional soil reactions. The current model primarily focuses on lateral loading ; however, it is designed to accommodate axial loading as well, allowing for flexibility in future analyses should axial effects be incorporated. We demonstrate that our model adequately accounts for soil reaction due to rigid rotation by comparing its results with those of the PISA model. Furthermore, we validate our numerical results against available experimental data, showing that the proposed model can accurately predict pile behavior under lateral loading. • Higher order soil reaction due to rigid rotation are calculated based on p − y and t − z curves. • Winkler Model is extended to account for higher order soil reactions. • Distributed moment ( M − θ ) and base shear curves are calculated from t − z curve. • Base moment curve is computed from p − y curve. • Numerical results are compared to PISA model results and validated against experimental data.

Ocean EngineeringVol. 313
Bentley University (US), CLIC Sargent (GB), Bentley Systems (United States) (US), Bentley Systems (United Kingdom) (GB)
Affordable and clean energy
Openalex Percentile: Top 20%
Railway Engineering and Dynamics
1.49
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