炭素取引価格の予測精度向上:時間周波数分解とハイブリッド注意機構を組み合わせた新モデル
To Enhance the Prediction Accuracy of Carbon Trading Price: A Novel Model Combining Time–Frequency Decomposition and Hybrid Attention Mechanism (原題)
(著者不明)
🤖 gxceed AI 要約
日本語
本論文は、時間周波数分解とハイブリッド注意機構を組み合わせた三段階の炭素取引価格予測モデルを提案する。広東省と湖北省の実データで検証し、単一ステップ予測でMAEを1.1〜12.9%、MSEを10.5〜13.1%改善した。正確な価格予測により、政府は早期の割当調整、企業は排出枠購入やグリーン投資の最適化が可能となる。
English
This paper proposes a three-stage carbon trading price prediction model combining time–frequency decomposition with a hybrid attention mechanism. Tested on Guangdong and Hubei data, it reduces single-step MAE by 1.1–12.9% and MSE by 10.5–13.1% versus the best baseline. Accurate price forecasts help governments adjust quotas early and firms optimize allowance purchases or green investments.
Unofficial AI-generated summary based on the public title and abstract. Not an official translation.
📝 gxceed 編集解説 — Why this matters
日本のGX文脈において
日本ではGXリーグや炭素クレジット市場、東証カーボン・クレジット市場が整備途上にあり、炭素価格の予測精度向上は企業の内部炭素価格設定や投資判断、政策当局の市場安定化策に示唆を与える。中国ETSの実証知見は日本市場設計の参考になる。
In the global GX context
As carbon markets expand under Article 6 and national ETS schemes, accurate price forecasting supports transition finance and internal carbon pricing. The AI-driven methodology is transferable to EU ETS and emerging Asian markets, informing both disclosure-linked risk modeling and quota policy design.
👥 読者別の含意
🔬研究者:炭素価格予測における時系列分解と注意機構の組み合わせが予測精度をどう改善するかを示す実証例。
🏢実務担当者:炭素価格トレンド予測を内部炭素価格設定や排出枠購入・グリーン投資のタイミング判断に活用できる。
🏛政策担当者:価格予測精度の向上は割当調整や市場安定化策のタイミング設計に資する。
📄 Abstract(原文)
Nowadays, carbon trading policy is regarded as an effective method to control carbon emissions. Accurate prediction of carbon trading price can benefit both governments and enterprises. To enhance the accuracy of prediction, this paper proposes a novel three‐stage carbon trading price prediction model combining time–frequency decomposition and hybrid attention mechanism. In the decomposition stage, the historical price is decomposed into trend and seasonal components using multiwindow moving average and into high‐ and low‐frequency components using fast Fourier transform. In the integration stage, a linear model predicts each component, and a hybrid attention mechanism is designed to calculate their dynamic weights to combine components to obtain distinct time‐domain and frequency‐domain prediction results. The fusion stage uses a linear network to integrate these intermediate results to accomplish the final carbon trading price prediction. Empirical data from Guangdong and Hubei are deployed to verify the proposed model. Comparative experiments demonstrate the proposed model reduces MAE by 1.1%–12.9% and MSE by 10.5%–13.1% for single‐step forecasting compared to the best‐performing baseline on each dataset, while maintaining competitive performance across most multistep predictions. Under accurate carbon trading price predictions, the governments can adjust quotas early to stabilize markets. Enterprises can also optimize allowance purchases or green investments based on price trends, enhancing emission reduction.
🔗 Provenance — このレコードを発見したソース
- semanticscholar https://doi.org/10.1155/int/6531515first seen 2026-09-12 05:20:21 · last seen 2026-09-21 04:56:46
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