生体模倣放射冷却材料:設計原理から建物の省エネルギーまで
Yang Wang1,2, Wei Chen1,2, Feilong Zhang1,2
1Laboratory of Bio-Inspired Smart Interface Science, Technical Institute of Physics and Chemistry, Chinese Academy of Sciences, Beijing 100190, P. R. China.
ACS nano
|January 14, 2026
まとめ
生体模倣放射冷却(RC)材料は、建物の温度調節のためのゼロエネルギーソリューションを提供し、炭素排出量を削減します。このレビューでは、設計から応用までの生体模倣RC材料の進歩を探り、より広範な採用に向けた課題に対処します。
科学分野:
- 材料科学
- 持続可能な建築
- 熱力学
背景:
- 建物は、世界のエネルギー使用量の3分の1以上を占めており、冷却需要の増加はエネルギー消費と炭素排出量を悪化させています。
- 放射冷却(RC)材料は、建物の温度調節のための持続可能でゼロエネルギーのソリューションを提供し、脱炭素化目標に沿っています。
- RC材料の実用的な応用は、異なる建材にわたる多様な機能要件によって制限されています。
研究 の 目的:
- 建物の省エネルギーのための生体模倣放射冷却(RC)材料の最近の進歩をレビューすること。
- 生体模倣RC材料の設計原理、材料選択、および応用固有の要件を探ること。
- 建物におけるRC材料の実際の導入に向けた将来の課題と展望を概説すること。
主な方法:
- 静的および動的RC材料の生体模倣構造設計と材料選択のレビュー。
- 屋根、壁、窓におけるRC材料の特定の性能要件の分析。
- 光学指標や建物固有の評価を含む性能評価方法論の概要。
- RC材料の発見と設計における機械学習応用の探求。
主要な成果:
- 生体模倣設計戦略により、特定の建材(屋根、壁、窓)に合わせて調整されたRC材料の開発が可能になります。
- 主要な性能指標と建物固有の評価は、RC材料の有効性を評価するために重要です。
- 機械学習は、新しいRC材料の発見と構造設計を加速します。
- 他の冷却方法との統合と耐久性の確保は、実用化に不可欠です。
結論:
- 生体模倣RC材料は、持続可能な建物の冷却と省エネルギーのために大きな可能性を示しています。
- 効果的な実装には、特定の建物用途に合わせて材料特性を調整することが不可欠です。
- 広範な採用には、さらなる研究開発、インテリジェントな統合、および実践的な課題への対処が必要です。
- RC技術の広範な採用には、さらなる研究開発、インテリジェントな統合、および実践的な課題への対処が必要です。
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