[1]李晓博,顾盛明,兰 昊,等.剪切风况下风电机组叶片多点静力载荷超调控制[J].机械与电子,2026,44(09):112-119.
 LI Xiaobo,GU Shengming,LAN Hao,et al.Multi-point Static Load Overshoot Control For Wind Turbine Blades under Shear Wind Conditions[J].Machinery & Electronics,2026,44(09):112-119.
点击复制

剪切风况下风电机组叶片多点静力载荷超调控制()
分享到:

《机械与电子》[ISSN:1001-2257/CN:52-1052/TH]

卷:
44
期数:
2026年09期
页码:
112-119
栏目:
电力控制
出版日期:
2026-09-25

文章信息/Info

Title:
Multi-point Static Load Overshoot Control For Wind Turbine Blades under Shear Wind Conditions
文章编号:
1001-2257(2026)09-0112-08
作者:
李晓博; 顾盛明; 兰 昊; 于博文
西安热工研究院有限公司,陕西 西安 710054
Author(s):
LI Xiaobo; GU Shengming; LAN Hao; YU Bowen
(Xi’an Thermal Power Research Institute Co.,Ltd.,Xi’an 710054,China)
关键词:
风电机组叶片; 剪切风况; 多点静力加载; 载荷超调; 积分分离PID; 前馈补偿
Keywords:
wind turbine blades; shear wind conditions; multi-point static loading; load overshoot; integral-separation PID; feedforward compensation
分类号:
TM315
文献标志码:
A
摘要:
针对剪切风况下叶片多点静力加载中力耦合易引发结构共振和执行器饱和的问题,提出一种静力载荷超调控制方法。该方法利用离线标定的耦合系数矩阵求逆构建解耦矩阵,将多输入多输出系统转化为独立通道,切断施力牵连;设计积分分离与遇限削弱协同的抗饱和控制器,在大偏差时切除积分、饱和时依深度抑制积分累积,消除高频调节;引入递推最小二乘在线惯量辨识和基于目标变化率的前馈补偿,实时跟踪时变惯量并自适应调节增益、对目标突变进行超前补偿,从源头避免共振。实验表明:所提方法在80%极限设计载荷工况下,载荷跟踪均方根误差仅为1.1%,最大超调量降至2.1%,调节时间缩短至1.5 s;饱和能量比可降至2.7%;在线惯量辨识收敛时间小于3 s,稳态波动低于1.2%。该方法有效抑制了耦合共振与执行器饱和,实现了高精度、强鲁棒的多点静力载荷控制。
Abstract:
To address the problem of structural resonance and actuator saturation caused by force coupling in multi-point static loading of blades under shear wind conditions,this paper proposes an overshoot control method for static loads.This method constructs a decoupling matrix by inverting an offline-calibrated coupling coefficient matrix,thereby transforming the multi-input-multi-output system into independent channels and eliminating inter channel force interactions.An anti-windup controller integrating integral separation and saturation-depth-dependent integral suppression is designed,which removes integral action under large deviations and curbs integral accumulation according to saturation depth under saturated conditions,thus suppressing high-frequency oscillations.Furthermore,recursive-least-squares based online inertia identification and a feedforward compensation based on the target change rate are introduced to track time-varying inertia in real time with adaptive gain adjustment,and to provide leading compensation for abrupt reference changes,thereby avoiding resonance at its source.Experimental results demonstrate that under 80% of the ultimate design load,the proposed method achieves a root-mean-square tracking error of only 1.1%,a maximum overshoot reduced to 2.1%,and a settling time shortened to 1.5 seconds.The saturation energy ratio can also be reduced to 2.7%.The online inertia identification converges within 3 seconds,with steady-state fluctuation below 1.2%.This proposed method effectively sup-presses coupled resonance and actuator saturation,enabling high-precision and robust multi-point static load control.

参考文献/References:

[1] 蔡斌军,刘志雄,姚振声,等.基于ADRC和分数阶PID的永磁直驱风力发电系统控制[J].微特电机,2024,52(12):53-58.

[2] 田德,李贝,吴晓璇,等.风轮不平衡载荷下超大型风电机组叶片颤振极限研究[J].太阳能学报,2024,45(2):198-205.
[3] 刘军,全哲辰.风电机组一次调频对载荷的影响分析及综合惯量控制优化方法研究[J].电力系统保护与控制,2025,53(2):38-49.
[4] Lei Jian,Cui Qin,Qin Guoliang.Performance improvement of multi-blade centrifugal fan based on impeller outlet flow control[J].Physics of Fluids,2024,36(9):095181.
[5] 崔文豪,冯建军,朱国俊,等.基于叶片载荷分布的离心风机多目标优化设计[J].工程热物理学报,2024,45(7):1949-1959.
[6] 马新稳,彭响华,孙敬伟,等.基于对叶素动量理论修正的弯掠叶片气弹耦合方法研究[J].机械工程学报,2025,61(14):273-284.
[7] 王明哲,王建华,万德成.一种改进诱导因子计算方法的叶素动量理论体积力模型[J].船舶力学,2024,28(1):1-9.
[8] 张硕,张爱华,董世杰,等.基于Smith模糊多级积分分离PID的加热盘温度控制[J].西北工业大学学报,2024,42(5):939-947.
[9] 战洪仁,刘德彬,王立鹏,等.基于弹簧质量阻尼模型的单环闭式脉动热管传热特性[J].化学工程,2026,54(2):45-50.
[10] 李雪艳,赖煜山,刘恩,等.基于Volterra级数和递推最小二乘法的结构振动响应非线性特征和损伤识别[J].计算力学学报,2025,42(3):404-411.
[11] 金雨,张霄,丁锋.多变量系统高效耦合递推最小二乘辨识算法及计算量分析[J].控制理论与应用,2025,42(2):364-372.

备注/Memo

备注/Memo:
收稿日期:2026-07-02
基金项目:西安热工研究院自主科技项目(TP-24-TZK36,TP-26-TYK28)
作者简介:李晓博 (1989-),男,陕西延安人,硕士,高级工程师,研究方向为风电机组技术监督、状态监测及故障诊断;顾盛明 (1994-),男,宁夏青铜峡人,硕士,工程师,研究方向为风力机;兰 昊 (1991-),男,陕西咸阳人,硕士,工程师,研究方向为风力发电机组的综合性分析;于博文 (1992-),男,甘肃华亭人,硕士,工程师,研究方向为新能源发电。
更新日期/Last Update: 2026-10-13