Explainable Machine Learning for Exploratory Residual Screening of Electricity-Consumption Disclosures in a Sample of Chinese Listed Firms

Firm-level deviations in reported electricity consumption can help prioritize corporate energy disclosures for verification. This study presents an explainable machine-learning workflow that predicts log-transformed annual electricity consumption from harmonized resource-use variables, firm-size controls, a previously available disclosure lag, stock-code-prefix and year indicators, and missingness indicators, then screens group-held-out cross-fitted residuals. The final sample comprised 354 firm years from 180 Chinese listed firms. LightGBM achieved pooled out-of-fold log-scale R2 = 0.6206, RMSE = 2.1094, and MAE = 1.3809. At |z| > 2.0, 23 observations were screened (12 positive, 11 negative); eight crossed the Gaussian-reference BH-FDR q < 0.05 screening boundary, and four crossed the Bonferroni boundary. All eight Tier 1 cases ranked 1–8 under distribution-free absolute-residual ranking, although empirical BH and Bonferroni adjustment yielded no discoveries. A heteroscedasticity-adjusted ranking remained strongly associated with the primary ranking (Spearman ρ = 0.9117; Top-20 overlap = 14/20). The outputs are verification priorities rather than confirmatory anomaly labels and do not imply inefficiency, misreporting, or causality.

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Publication Details

Journal
Applied Sciences
Published
2026-09-16
DOI
https://doi.org/10.3390/app16189207
Primary Topic
Corporate Social Responsibility Reporting
Type
article
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article

Explainable Machine Learning for Exploratory Residual Screening of Electricity-Consumption Disclosures in a Sample of Chinese Listed Firms

Xinrui Wang, Jiawei Zhao, Tao Yin, Jihong Sun et al.
Applied Sciences
Corporate Social Responsibility Reporting
article

Explainable Machine Learning for Exploratory Residual Screening of Electricity-Consumption Disclosures in a Sample of Chinese Listed Firms

Xinrui Wang, Jiawei Zhao, Tao Yin, Jihong Sun, Feng Di, Ye Qian, Jiangquan Chen, Haokai Zhang, Peng Tian, Xiao Hu
article en

Abstract

Firm-level deviations in reported electricity consumption can help prioritize corporate energy disclosures for verification. This study presents an explainable machine-learning workflow that predicts log-transformed annual electricity consumption from harmonized resource-use variables, firm-size controls, a previously available disclosure lag, stock-code-prefix and year indicators, and missingness indicators, then screens group-held-out cross-fitted residuals. The final sample comprised 354 firm years from 180 Chinese listed firms. LightGBM achieved pooled out-of-fold log-scale R2 = 0.6206, RMSE = 2.1094, and MAE = 1.3809. At |z| > 2.0, 23 observations were screened (12 positive, 11 negative); eight crossed the Gaussian-reference BH-FDR q < 0.05 screening boundary, and four crossed the Bonferroni boundary. All eight Tier 1 cases ranked 1–8 under distribution-free absolute-residual ranking, although empirical BH and Bonferroni adjustment yielded no discoveries. A heteroscedasticity-adjusted ranking remained strongly associated with the primary ranking (Spearman ρ = 0.9117; Top-20 overlap = 14/20). The outputs are verification priorities rather than confirmatory anomaly labels and do not imply inefficiency, misreporting, or causality.

Applied SciencesVol. 16(18)
Kunming University (CN), Yunnan University (CN), Yunnan Agricultural University (CN), China Agricultural University (CN)
Affordable and clean energy
Openalex Percentile: Top 7%
Corporate Social Responsibility Reporting
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