Interval Prediction Method for Wind Power Based on Informer-KAN

When employing the Informer model for wind power prediction, inherent noise in wind power datasets and the model's final layer's reliance on simplistic linear output have been observed to compromise the model's capacity for capturing nonlinear relationships, consequently resulting in suboptimal prediction accuracy. To address these limitations, a novel Informer-KAN wind power prediction model is proposed. The fully connected layers of the original Informer model are systematically replaced with Kolmogorov-Arnold Networks (KAN) layers constructed using cubic B-spline functions, which are designed to significantly enhance the model's capability for capturing complex nonlinear interactions and subsequently improve wind power prediction precision. Moreover, kernel density estimation is applied to the Informer-KAN model's predictions to generate probabilistic forecasts, enabling the derivation of power prediction intervals at varying confidence levels.

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Publication Details

Published
2024-12-27
DOI
https://doi.org/10.1109/isneet64164.2024.10955980
Citations
1
Primary Topic
Smart Grid and Power Systems
Type
article
Field-Weighted Citation Impact
0.21

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Interval Prediction Method for Wind Power Based on Informer-KAN

Qi Li, Xiaoying Ren, Lu Gao, Fei Zhang
1 citations
Smart Grid and Power Systems
0.21
article

Interval Prediction Method for Wind Power Based on Informer-KAN

Qi Li, Xiaoying Ren, Lu Gao, Fei Zhang
article en
1 citations

Abstract

When employing the Informer model for wind power prediction, inherent noise in wind power datasets and the model's final layer's reliance on simplistic linear output have been observed to compromise the model's capacity for capturing nonlinear relationships, consequently resulting in suboptimal prediction accuracy. To address these limitations, a novel Informer-KAN wind power prediction model is proposed. The fully connected layers of the original Informer model are systematically replaced with Kolmogorov-Arnold Networks (KAN) layers constructed using cubic B-spline functions, which are designed to significantly enhance the model's capability for capturing complex nonlinear interactions and subsequently improve wind power prediction precision. Moreover, kernel density estimation is applied to the Informer-KAN model's predictions to generate probabilistic forecasts, enabling the derivation of power prediction intervals at varying confidence levels.

Inner Mongolia University of Science and Technology (CN)
Government of Inner Mongolia Autonomous Region
Affordable and clean energy
Openalex Percentile: Top 43%
Smart Grid and Power Systems
0.21
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