A Preliminary Study on the Modeling and Analysis of Nonlinear Effects of Ocean Waves and Power-Take-Off Control on Wave Energy Conversion System Dynamics

S. Yim, N. Adami, B. Bosma, T. Brekken, M. Chen, L. G. Zadeh, D. Glennon, Y-S. Lian, P. Lomónaco, A. Mohtat, T. Ozkan-Haller, J. Thomson
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引用次数: 4

Abstract

This article describes the model development and preliminary progress of an on-going research study on the effects of nonlinearities in ocean wave input and power-take-off (PTO) control on wave energy conversion system dynamics and efficiency. The model system employed and progress on recent developments are: (1) nonlinear wave modeling in the ocean, generation and propagation in a wave basin, and (2) nonlinear PTO control algorithm. An overview of the holistic analytical, numerical and experimental research approach/work plan is presented. To provide a simple means for analysis, comparison and performance evaluation, the WEC-Sim numerical platform is used for model implementation and system dynamic simulation. Analytical and numerical predictions of the nonlinear wave fields in a wave basin using the nonlinear Fourier analysis (NLFA) technique and corresponding nonlinear wavemaker theory and a plan for future validation using a comprehensive series of experimental test data as well as ocean wave measurements are described. Efficiency of the nonlinear PTO control and a future evaluation work plan by comparing numerical simulations with results of WEC model test data under corresponding wave conditions of the experimental studies without the presence of the WEC system are also presented.
海浪非线性效应建模与分析及动力输出控制对波浪能转换系统动力学的初步研究
本文介绍了波浪输入和动力输出(PTO)控制非线性对波浪能量转换系统动力学和效率影响的模型开发和初步研究进展。所采用的模型系统及其最新进展是:(1)海洋中的非线性波浪建模,波盆中的产生和传播;(2)非线性PTO控制算法。概述了整体分析,数值和实验研究方法/工作计划。为了提供一种简单的分析、比较和性能评估手段,采用woc - sim数值平台进行模型实现和系统动态仿真。本文描述了利用非线性傅立叶分析(NLFA)技术和相应的非线性造波理论对波盆中非线性波场的分析和数值预测,以及利用一系列全面的实验测试数据和海浪测量进行未来验证的计划。通过数值模拟结果与WEC模型试验数据的对比,给出了非线性PTO控制的有效性,并提出了今后在无WEC系统的相应波浪条件下的实验研究评估工作计划。
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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