エネルギー効率と低炭素建築のための防火性高分子断熱フォーム
Fire‐Safe Polymeric Insulation Foams for Energy‐Efficient and Low‐Carbon Buildings (原題)
Qinhe Guo, Jiayi Pan, 贾德辉, Min Chen, Danni Pan, Yao Yuan, Ying Pan, Yan Zhang, Lulu Xu, Kate Nguyen, Wei Wang
🤖 gxceed AI 要約
日本語
建築用高分子断熱フォーム（RPUF、PF、EPS、XPS）の防火性と断熱性能のトレードオフを整理したレビュー。反応性難燃剤、ナノフィラー、界面コーティングなどの先端戦略を、凝縮相炭化・気相抑制・遮熱・煙抑制の観点から体系的に論じる。さらにEnergyPlusシミュレーションで、フォームの熱物性を建物冷房エネルギー需要と運用CO2排出に結びつけ、材料からシステムまでの設計ロードマップを示す。
English
A review of fire-safe polymeric insulation foams (RPUF, PF, EPS, XPS) that balance flame retardancy with thermal insulation. It systematically examines reactive flame retardants, nanofillers, and interfacial coatings via condensed-phase carbonization, gas-phase inhibition, and smoke suppression. Using EnergyPlus simulations across climates, it links foam thermophysical properties to building cooling demand and operational CO2, offering a materials-to-systems roadmap for low-carbon buildings.
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
建築物の省エネは日本のGX推進（省エネ法・ZEH・カーボンニュートラル建築）に直結する。断熱材の防火規制と省エネ性能の両立は、建材メーカーや建設業の実務課題であり、日本市場でも関心が高い。
In the global GX context
Building energy efficiency is central to global decarbonization pathways and disclosure of operational emissions (Scope 1/2 for real estate). This review connects material innovation to building energy demand and CO2, relevant to green building standards and transition finance for construction.
👥 読者別の含意
🔬研究者:断熱材の防火・断熱トレードオフとEnergyPlus連携の材料設計指針を得られる。
🏢実務担当者:建材・建設の省エネ設計や防火規制対応に資する材料選定の知見。
🏛政策担当者:建築省エネ規制と防火安全基準の整合を検討する際の材料科学的根拠。
📄 Abstract（原文）
Polymeric insulation foams, including rigid polyurethane foams (RPUF), phenolic foams (PF), expanded polystyrene (EPS), and extruded polystyrene (XPS), are indispensable passive thermal‐regulating materials. By significantly lowering building energy consumption, they alleviate operational loads on energy grids, supporting global carbon neutrality and environmental sustainability. Their low density, low thermal conductivity, and scalable processability make them widely utilized in energy‐efficient buildings. However, their porous organic structures often lead to rapid ignition, intense heat release, and hazardous smoke, creating a conflict between fire‐safety and energy‐saving performance. Conventional flame‐retardant modifications can disturb foam morphology, increase thermal conductivity, and weaken mechanical reliability, compromising their intended energy benefits. This review provides a critical overview of recent advances in fire‐safe polymeric composite foams, focusing on the interplay among polymer chemistry, cellular architecture, combustion behavior, and thermal insulation. Advanced strategies, such as reactive flame retardants, nanofiller additives, and interfacial coatings, are systematically discussed regarding their roles in condensed‐phase carbonization, gas‐phase inhibition, barrier protection, catalytic regulation, and smoke suppression. Particular attention is paid to multiscale performance trade‐offs among reliable flame retardancy, thermal resistance, mechanical robustness, and long‐term durability. Moving beyond material‐level assessments, this review connects foam thermophysical properties with building cooling energy demand and operational CO 2 emissions through EnergyPlus simulations across diverse climatic regions. Ultimately, this materials‐to‐systems perspective outlines an engineering roadmap for designing next‐generation polymeric insulation foams that reconcile effective fire‐safety, thermal management, and practical carbon reduction for a sustainable future.
🔗 Provenance — このレコードを発見したソース
- openalex https://doi.org/10.1002/eem2.70509first seen 2026-09-12 05:02:59
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