Electric Power ›› 2024, Vol. 57 ›› Issue (6): 153-164, 234.DOI: 10.11930/j.issn.1004-9649.202309061
• Power System • Previous Articles Next Articles
Chuanqi WANG(), Liwen WU(
), Zhibin DENG, Weifeng DENG, Bin YANG
Received:
2023-09-15
Accepted:
2023-12-14
Online:
2024-06-23
Published:
2024-06-28
Supported by:
Chuanqi WANG, Liwen WU, Zhibin DENG, Weifeng DENG, Bin YANG. Review of Icing Prediction Model and Algorithm for Overhead Transmission Lines Considering Time Cumulative Effects[J]. Electric Power, 2024, 57(6): 153-164, 234.
序号 | 模型的工具 | 模型的特点 | ||
1 | 基于高斯分布模型 | 数据挖掘,Matlab拟合分布曲线优化数据 | ||
2 | 基于支持向量机模型 | 以高维到低维的特征映射形成全新的正交特征 | ||
3 | 支持向量机覆冰预测模型 | 优化的BP神经网络模型,考虑 气象因素的时间效应 | ||
4 | 非解析型的覆冰预测模型 | 基于支持向量机,多项式回归模型、时间序列模型和机器学习模型 | ||
5 | 线路覆冰预测ACO-PSO混合群算法模型 | 加权支持向量机回归,粒子群与蚁群混合的群智能优化算法 | ||
6 | 基于气象因素 累积效应模型 | SVM回归方法,以历史气象数据和覆冰厚度监测值组成训练集 | ||
7 | 基于数据挖掘和训练模型 | SVM为训练回归模型,气象历史数据分类集合、信息挖掘 | ||
8 | 数据驱动算法和 LS-SVM预测模型 | k均值邻近算法、聚类分析、小样本拟合 | ||
9 | 智能组合模型 | 采用快速独立分量分析、集成经验模态分解、支持向量机、遗传算法和Tabu搜索 | ||
10 | 遗传算法覆冰预测模型 | 优化BP的遗传算法-BP神经网络 | ||
11 | 时间数据序列与 卡尔曼滤波算法模型 | 遗传算法、卡尔曼预测迭代方程、线性随机微分方程 | ||
12 | 回归函数和预测模型 | 主成分分析法、遗传算法,最优化条件和增量在线学习算法 | ||
13 | 遗传算法与模糊逻辑融合预测模型 | 组合模糊规则库、遗传算法 | ||
14 | 基于特征选择和混沌灰狼优化极值学习机预测模型 | 集成经验模态分解、随机森林和混沌灰狼优化极值学习机算法 |
Table 1 Comparison of prediction models for icing thickness growth
序号 | 模型的工具 | 模型的特点 | ||
1 | 基于高斯分布模型 | 数据挖掘,Matlab拟合分布曲线优化数据 | ||
2 | 基于支持向量机模型 | 以高维到低维的特征映射形成全新的正交特征 | ||
3 | 支持向量机覆冰预测模型 | 优化的BP神经网络模型,考虑 气象因素的时间效应 | ||
4 | 非解析型的覆冰预测模型 | 基于支持向量机,多项式回归模型、时间序列模型和机器学习模型 | ||
5 | 线路覆冰预测ACO-PSO混合群算法模型 | 加权支持向量机回归,粒子群与蚁群混合的群智能优化算法 | ||
6 | 基于气象因素 累积效应模型 | SVM回归方法,以历史气象数据和覆冰厚度监测值组成训练集 | ||
7 | 基于数据挖掘和训练模型 | SVM为训练回归模型,气象历史数据分类集合、信息挖掘 | ||
8 | 数据驱动算法和 LS-SVM预测模型 | k均值邻近算法、聚类分析、小样本拟合 | ||
9 | 智能组合模型 | 采用快速独立分量分析、集成经验模态分解、支持向量机、遗传算法和Tabu搜索 | ||
10 | 遗传算法覆冰预测模型 | 优化BP的遗传算法-BP神经网络 | ||
11 | 时间数据序列与 卡尔曼滤波算法模型 | 遗传算法、卡尔曼预测迭代方程、线性随机微分方程 | ||
12 | 回归函数和预测模型 | 主成分分析法、遗传算法,最优化条件和增量在线学习算法 | ||
13 | 遗传算法与模糊逻辑融合预测模型 | 组合模糊规则库、遗传算法 | ||
14 | 基于特征选择和混沌灰狼优化极值学习机预测模型 | 集成经验模态分解、随机森林和混沌灰狼优化极值学习机算法 |
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