Results archive for "Evidence channels dominate graded soft-set algebra in renewable-energy interval forecasting"
「再生可能エネルギー区間予測におけるグレード付きソフト集合代数を凌駕するエビデンスチャネル」の結果アーカイブ (AI 翻訳)
El-Ghareeb, Haitham A.
🤖 gxceed AI 要約
日本語
再生可能エネルギー発電量の区間予測において、14種類の不確実性表現(ファジー、直観的、ピタゴラス、ニュートロソフィック、プリソジェニックなど)を比較した研究の結果アーカイブ。37,800のセルからなるグリッドで、各表現の区間品質を同一条件下でペア比較した。主な発見は、エビデンスチャネルの選択が代数の選択よりも区間品質に大きく影響し、表現力の高さが性能順序を決めないこと。
English
This results archive compares fourteen uncertainty representations for interval forecasting of renewable energy generation, using a paired grid of 37,800 cells across 30 series from German wind, Kelmarsh SCADA, and a green-hydrogen proxy. Key findings: the choice of evidence channel affects interval quality far more than the algebraic representation, and expressive power does not order performance. The neutrosophic interval is algebraically identical to the aleatoric-epistemic quadrature interval under the canonical embedding.
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
日本の再生可能エネルギー導入拡大に伴い、発電量予測の不確実性評価は系統運用や電力市場取引において重要性が増している。本研究成果は、予測区間の品質向上に寄与する可能性があり、日本の電力会社やアグリゲーターにとって参考になる。
In the global GX context
As renewable energy penetration grows globally, accurate interval forecasting is critical for grid stability and market operations. This study provides systematic evidence on which uncertainty representations perform best, informing forecasting practice and methodology choices for utilities and system operators worldwide.
👥 読者別の含意
🔬研究者:Provides a rigorous comparison of uncertainty representations for interval forecasting, with implications for forecast methodology and evaluation.
🏢実務担当者:Offers guidance on selecting uncertainty representations for renewable energy forecasting, potentially improving operational decision-making.
📄 Abstract(原文)
Results archive for a controlled comparison of fourteen uncertainty representations for interval forecasting of renewable-energy generation. The study asks whether the graded soft-set ladder — fuzzy, intuitionistic, Pythagorean, neutrosophic, plithogenic — earns its added degrees of freedom against the interval constructions practitioners already use. This deposit contains the aggregated grid every number, table and figure in the article is emitted from: 37,800 scored entrant-cells with their interval scores, band–error faithfulness, coverage, width and CRPS; the fourteen-entrant comparison with bootstrap intervals; the pre-registered gate contrasts; the per-configuration point-forecast accuracy; the Holm-corrected pairwise model tests; and the nine figures as published. A README documents every column and every data source, and a MANIFEST.sha256 verifies inside the extracted archive. Results cover 30 series across three public data sources — system-level German wind generation for the four transmission zones and the national total, turbine-level Kelmarsh SCADA, and a 24-city green-hydrogen production-potential proxy — at three horizons, each repeated under 30 recorded seeds: 2,700 paired comparison cells, 37,800 entrant-cells in total. Every entrant is scored inside the same cell on byte-identical inputs, around one shared fused point forecast and under one identical validation calibration, so the comparison is paired by construction and the representation is the only variable under test. The hydrogen series is a deterministic scenario proxy derived from reanalysis capacity factors, not a measured quantity. Two results are worth naming. Under the canonical two-channel embedding the neutrosophic interval is algebraically identical to the aleatoric–epistemic quadrature interval, and the grid returns a discrepancy of exactly zero across all 2,700 cells, every metric and both regimes — which is what an identity must return, and what makes that gate row a check on the implementation rather than a discovery. Separately, the choice of evidence channel supplied to a band moves interval quality far further than the algebra layered over it, and expressive power does not order performance. Not included: the implementation, which is available from the corresponding author on reasonable request, and the per-trial run directories, which are large and which every reported number aggregates away from. The raw input data are not redistributed; their sources, licences and SHA-256 checksums are recorded in the README so the processed series can be reconstructed and verified.
🔗 Provenance — このレコードを発見したソース
- Zenodo https://zenodo.org/records/21775854first seen 2026-08-04 04:13:23
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