熱エネルギー貯蔵（TES）材料の包括的熱物性プロファイリングとマッピング
Comprehensive Thermophysical Profiling and Mapping of Thermal Energy Storage (TES) Materials (原題)
Kago R. Rabasoma, Kevin N. Nwaigwe, Edward Dintwa
🤖 gxceed AI 要約
日本語
本レビューはPRISMAに基づき約300件の査読文献を統合し、TES材料を熱特性と制約で分類する多次元選択フレームワークを提示する。顕熱材料は成熟・低コストだが貯蔵密度が低く、高密度の熱化学材料は長期貯蔵に優れるが実験室段階に留まる。PCM性能向上研究が集中する一方、新規顕熱媒体の開発が空白であることを指摘し、AIによる材料劣化モデリングの台頭も示す。
English
This PRISMA-guided review synthesizes ~300 peer-reviewed sources to build a system-agnostic, multi-dimensional framework for selecting thermal energy storage (TES) materials by thermal characteristics and limitations. Sensible materials dominate industry but lack storage density, while high-density thermochemical materials remain lab-scale. It identifies a research gap in novel sensible media and notes AI's emerging use in modeling material degradation.
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
蓄熱技術は日本の産業脱炭素・再エネ大量導入の鍵だが、本論文は材料工学的レビューであり、SSBJ・有報・投資家対応といった開示文脈との直接接点は乏しい。日本の蓄熱・蓄電技術開発や産業プロセス電化に関心を持つ読者には基礎的整理として有用。
In the global GX context
TES underpins industrial decarbonization and grid flexibility, themes relevant to global transition finance and corporate net-zero roadmaps, though this materials-focused review does not engage TCFD/ISSB disclosure frameworks directly. It offers a structured selection basis for engineers and investors assessing storage technology readiness.
👥 読者別の含意
🔬研究者:TES材料の熱物性・制約を横断的に整理した選択フレームワークと研究空白を提供する。
🏢実務担当者:蓄熱システム導入検討時の材料選定・技術成熟度評価の基礎資料として使える。
🏛政策担当者:蓄熱技術の産業応用と研究開発支援の優先領域を把握する参考になる。
📄 Abstract（原文）
Thermal energy storage (TES) plays a critical role in balancing energy generation and demand, serving as a cornerstone for the global renewable energy transition and industrial environmental sustainability. This review presents the development of visual and spatial multi-dimensional selection frameworks of TES materials. The novelty of the study lies in its system-agnostic, multi-faceted categorization of TES material performances independent of specific engineering configurations. The broad work reviewed just under 300 peer-reviewed sources, which were synthesized via a PRISMA-guided literature screening method to select and map TES materials by their thermal characteristics and limitations. Although mature and cost-effective sensible materials dominate industrial applications, they suffer from low storage density. Conversely, high-density thermochemical materials offer exceptional long-term storage potential but remain largely constrained to laboratory scales. The study highlights that while considerable research focus centres on enhancing PCM thermal performance through techniques like nano-encapsulation, composite creation, and the addition of nanoparticles, a critical research gap remains in the development of novel, optimised sensible heat storage media. Emerging trends indicate a rapid escalation in nanostructure applications and a gradual scale-up of thermochemical materials. Furthermore, artificial intelligence (AI) is increasingly being used to model material degradation. Ultimately, this mapping provides a structured framework for material selection, fostering multi-sector collaboration to accelerate affordable TES innovations.
🔗 Provenance — このレコードを発見したソース
- openalex https://doi.org/10.3390/eng7100500first seen 2026-10-16 04:41:22
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