Fluorescent‐Enhanced Radiative Cooling of Colored Cellulose Pulp for Thermal Management and Aesthetic Applications
中文简介
该条为网络收录文献,暂未整理中文简介;可参考下方英文摘要原文。
英文摘要(原文)
Abstract Cellulose serves as a vital building block in various applications, particularly in paper and paperboard industries, where pulp derived from cellulose‐rich sources plays an essential role. However, the traditional pulp is often considered low‐value due to its limited potential for innovation. For instance, conventional pulp retains a brownish color from residual lignin, which restricts its effectiveness in applications that require cooling properties. While bleaching processes can produce white pulp with enhanced solar reflectance, it does not meet the growing demand for colored cellulose products. This study presents a scalable solution that leverages fluorescence to create colored cellulose pulp, enabling the preservation of vibrant colors while mitigating thermal stress. By harnessing photoluminescence with Stokes shift, this approach reduces solar heating effects, achieving cooling powers of 50–130 W m −2 and temperature drops of 7–11 °C under sunlight. Furthermore, as the fluorescence‐treated process is fully compatible with large‐scale manufacturing, this enhanced thermal management capability significantly expands the potential applications of cellulose‐based materials across various industries.
题录(GB/T 7714)
Cheng Q, Xu W, Niu Z, 等. Fluorescent‐Enhanced Radiative Cooling of Colored Cellulose Pulp for Thermal Management and Aesthetic Applications[J]. Advanced Optical Materials, 2025, 13(11). DOI: 10.1002/adom.202402827.
相关文献
Photoluminescent Dual-Layer Electrospinning Films for Colored Passive Radiative Cooling
ACS Applied Polymer Materials · 2026 · 发光色
Colloidal deposition of colored daytime radiative cooling films using nanoparticle-based inks
Materials Today Physics · 2021 · 发光色
用于低于环境温度的彩色辐射冷却的创新型光子工程荧光三层聚合物涂层
Advanced Science · 2025 · 发光色
Colored radiative cooling enhanced by spectral-conversion fluorophore and light extraction
Nonimaging Optics: Efficient Design for Illumination and Concentration · 2024 · 发光色