PD–DEM hybrid modeling of leading edge erosion in wind turbine blades under controlled impact scenarios

IF 2.8 3区 工程技术 Q1 MATHEMATICS, INTERDISCIPLINARY APPLICATIONS
Khuram Walayat, Sina Haeri, Imran Iqbal, Yonghao Zhang
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引用次数: 0

Abstract

This paper addresses the critical issue of leading edge erosion (LEE) on modern wind turbine blades (WTBs) caused by solid particle impacts. LEE can harm the structural integrity and aerodynamic performance of WTBs, leading to reduced efficiency and increased maintenance costs. This study employs a novel particle-based approach called hybrid peridynamics–discrete element method (PD–DEM) to model the impact of solid particles on WTB leading edges and target material failure accurately. It effectively captures the through-thickness force absorption and the propagation of stresses within the leading edge coating system composed of composite laminates. The amount of mass removed and the mean displacement of the target material points can be reliably calculated using the current method. Through a series of tests, the research demonstrates the method’s ability to predict impact force changes with varying particle size, velocity, impact angles and positions. Moreover, this study offers a significant improvement in erosion prediction capability and the development of design specifications. This work contributes to the advancement of WTB design and maintenance practices to mitigate LEE effectively.

Abstract Image

受控冲击情况下风力涡轮机叶片前缘侵蚀的 PD-DEM 混合建模
本文探讨了现代风力涡轮机叶片(WTB)因固体颗粒撞击而产生的前缘侵蚀(LEE)这一关键问题。前缘侵蚀会损害风电叶片的结构完整性和气动性能,导致效率降低和维护成本增加。本研究采用了一种名为 "周动力学-离散元混合法(PD-DEM)"的基于颗粒的新方法,来模拟固体颗粒对风电叶片前缘的影响,并准确地确定材料失效的目标。它有效地捕捉了由复合材料层压板组成的前缘涂层系统内的通厚度力吸收和应力传播。目前的方法可以可靠地计算出目标材料点的质量去除量和平均位移。通过一系列测试,研究证明该方法能够预测不同颗粒大小、速度、撞击角度和位置时的撞击力变化。此外,这项研究还大大提高了侵蚀预测能力和设计规范的制定。这项工作有助于提高风电场设计和维护实践的水平,从而有效缓解李氏效应。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Computational Particle Mechanics
Computational Particle Mechanics Mathematics-Computational Mathematics
CiteScore
5.70
自引率
9.10%
发文量
75
期刊介绍: GENERAL OBJECTIVES: Computational Particle Mechanics (CPM) is a quarterly journal with the goal of publishing full-length original articles addressing the modeling and simulation of systems involving particles and particle methods. The goal is to enhance communication among researchers in the applied sciences who use "particles'''' in one form or another in their research. SPECIFIC OBJECTIVES: Particle-based materials and numerical methods have become wide-spread in the natural and applied sciences, engineering, biology. The term "particle methods/mechanics'''' has now come to imply several different things to researchers in the 21st century, including: (a) Particles as a physical unit in granular media, particulate flows, plasmas, swarms, etc., (b) Particles representing material phases in continua at the meso-, micro-and nano-scale and (c) Particles as a discretization unit in continua and discontinua in numerical methods such as Discrete Element Methods (DEM), Particle Finite Element Methods (PFEM), Molecular Dynamics (MD), and Smoothed Particle Hydrodynamics (SPH), to name a few.
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