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article · Journal Of Big Data

Comment feedback optimization algorithm (CFOA)-optimized spatio-temporal graph networks for biomass forecasting and predictive maintenance support in renewable energy systems

In plain language

Accurate biomass forecasting is vital for renewable energy systems, yet complex and high-dimensional data often limits conventional predictive techniques. This research introduces a framework that integrates Spatio-Temporal Graph Convolutional Networks with metaheuristic optimization using the Comment Feedback Optimization Algorithm. The design captures spatio-temporal dependencies while refining feature selection and model hyperparameters. While the baseline graph convolutional network achieved an R-squared score of 0.8317, using binary optimization for feature selection reduced data redundancy and lifted the score to 0.912. Full hyperparameter optimization yielded the highest accuracy, achieving an R-squared score of 0.981 and significantly lowering error rates. The resulting architecture delivers a scalable, interpretable, and computationally efficient tool to assist biomass forecasting and operational decision-support systems.

Key takeaways

  • A framework combining Spatio-Temporal Graph Convolutional Networks with the Comment Feedback Optimization Algorithm was created to forecast biomass energy.
  • Feature selection using a binary optimization algorithm reduced data redundancy and improved performance over the baseline network.
  • Hyperparameter optimization achieved the highest forecasting accuracy, reaching an R-squared value of 0.981.
  • The resulting model offers a computationally efficient and scalable method for system-level predictive maintenance and operational decision-making.

Why it matters

Biomass forms a crucial part of sustainable power generation, but effective management and maintenance depend on reliable forecasting across complex variables. By merging graph-based deep learning with evolutionary optimization, this method substantially sharpens prediction accuracy. Improved forecasting helps renewable facility operators anticipate maintenance requirements, improve resource planning, and enhance overall system reliability without demanding prohibitive computational resources.

Commercialisation angle

The model is directly applicable to renewable energy plant operators and energy management software developers seeking operational decision-support and predictive maintenance tools. Based on the abstract, the technology is an applied and tested computational framework validated on numerical datasets. Commercial deployment would likely require packaging the algorithm into industrial software pipelines or integrating it with existing supervisory control and data acquisition systems.

AI-generated from the published abstract. Always read the original work before citing.

Abstract

With the increasing demand for sustainable energy solutions, accurate biomass forecasting has become essential for optimizing renewable energy utilization and supporting system-level predictive maintenance and operational decision-making. However, the complexity and high dimensionality of biomass energy data pose significant challenges for conventional forecasting approaches. To address these challenges, this study proposes a framework integrating Spatio-Temporal Graph Convolutional Networks (STGCN) with metaheuristic optimization techniques. The proposed approach improves forecasting performance by capturing spatio-temporal dependencies while optimizing feature selection and model hyperparameters. Initially, the baseline STGCN model achieved an MSE of 0.0025, RMSE of 0.0500, and $$R^2$$ of 0.8317. Feature selection using the Binary Comment Feedback Optimization Algorithm (bCFOA) reduced redundancy and improved the forecasting results to an MSE of 0.0018, RMSE of 0.04243, and $$R^2$$ of 0.912. Further improvement through CFOA-based hyperparameter optimization produced the best performance, achieving an MSE of $$0.000554 \pm 0.000012$$ , RMSE of $$0.02354 \pm 0.00028$$ , MAE of $$0.00410 \pm 0.00009$$ , and $$R^2$$ of $$0.981 \pm 0.002$$ . The results demonstrate that combining graph-based spatio-temporal learning with evolutionary optimization significantly improves forecasting accuracy and model generalization. Moreover, the proposed CFOA-STGCN framework provides a scalable, interpretable, and computationally efficient solution suitable for biomass energy forecasting and operational decision-support systems.

Research topics

  • Energy Load and Power Forecasting
  • Forest Biomass Utilization and Management
  • Integrated Energy Systems Optimization

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DOI: 10.1186/s40537-026-01532-3

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