Augmenting Light-to-Heat Conversion Through 3D Scalable Palm Fiber for Energy Efficient Photothermal Solar Steam Generation

Tackling water scarcity is a pressing challenge, propelling recent advancements in solar steam generation (SSG). Recently, 3D photoabsorbers have outperformed their 2D counterparts in recovering light and minimizing heat losses, enabling a surge in exploring 3D materials and designs. Herein, 3D stru...

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Published in:SOLAR RRL
Main Authors: Lim, Kok-Loong; Liow, Jo-Ey; Ong, Wee-Jun; Khiew, Poi Sim; Jani, Nur Aimi; Chiu, Wee Siong; Tan, Swee-Tiam; Haw, Choon-Yian
Format: Article; Early Access
Language:English
Published: WILEY-V C H VERLAG GMBH 2024
Subjects:
Online Access:https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001150520400001
author Lim
Kok-Loong; Liow
Jo-Ey; Ong
Wee-Jun; Khiew
Poi Sim; Jani
Nur Aimi; Chiu
Wee Siong; Tan
Swee-Tiam; Haw
Choon-Yian
spellingShingle Lim
Kok-Loong; Liow
Jo-Ey; Ong
Wee-Jun; Khiew
Poi Sim; Jani
Nur Aimi; Chiu
Wee Siong; Tan
Swee-Tiam; Haw
Choon-Yian
Augmenting Light-to-Heat Conversion Through 3D Scalable Palm Fiber for Energy Efficient Photothermal Solar Steam Generation
Energy & Fuels; Materials Science
author_facet Lim
Kok-Loong; Liow
Jo-Ey; Ong
Wee-Jun; Khiew
Poi Sim; Jani
Nur Aimi; Chiu
Wee Siong; Tan
Swee-Tiam; Haw
Choon-Yian
author_sort Lim
spelling Lim, Kok-Loong; Liow, Jo-Ey; Ong, Wee-Jun; Khiew, Poi Sim; Jani, Nur Aimi; Chiu, Wee Siong; Tan, Swee-Tiam; Haw, Choon-Yian
Augmenting Light-to-Heat Conversion Through 3D Scalable Palm Fiber for Energy Efficient Photothermal Solar Steam Generation
SOLAR RRL
English
Article; Early Access
Tackling water scarcity is a pressing challenge, propelling recent advancements in solar steam generation (SSG). Recently, 3D photoabsorbers have outperformed their 2D counterparts in recovering light and minimizing heat losses, enabling a surge in exploring 3D materials and designs. Herein, 3D structures are fabricated using polydopamine (PDA) functionalized carbonized palm fibers (PDA c-fiber) to shed light on the degree of improvement in SSG efficiency compared to their 2D counterpart. Specifically, two 3D models, a cone, and a cylindrical cup, are chosen for their inherent features, including a hollow cavity, circular base, and curved surface. These architectural elements play a crucial role in trapping light, facilitating reflections, and efficiently converting solar energy to heat through the photothermal effect. Scaling palm fibers from 2D to 3D significantly boosts SSG efficiency, from 67.9% to 103.7%, with water evaporation rate enhanced from 1.171 kg m-2 h-1 to 1.869 kg m-2 h-1. Substantially, the 3D cup demonstrates superior photothermal performance primarily attributed to its heat recovery feature of the cup wall structure and circular basal area, enabling prolonged light-to-heat conversion. These findings provide valuable insights and foundation for developing efficient solar-driven 3D upcycled photoabsorbers in the future. This work highlights the 3D design and the flexibility of carbonized fiber material as photoabsorber while unveiling the important energy recovery mechanism that constitutes highly efficient solar steam generation (SSG). SSG performance of 2D, 3D cone, and 3D cup shape photoabsorber were compared to probe the energy recovery effectiveness of their respective properties.image (c) 2024 WILEY-VCH GmbH
WILEY-V C H VERLAG GMBH
2367-198X

2024


10.1002/solr.202301015
Energy & Fuels; Materials Science

WOS:001150520400001
https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001150520400001
title Augmenting Light-to-Heat Conversion Through 3D Scalable Palm Fiber for Energy Efficient Photothermal Solar Steam Generation
title_short Augmenting Light-to-Heat Conversion Through 3D Scalable Palm Fiber for Energy Efficient Photothermal Solar Steam Generation
title_full Augmenting Light-to-Heat Conversion Through 3D Scalable Palm Fiber for Energy Efficient Photothermal Solar Steam Generation
title_fullStr Augmenting Light-to-Heat Conversion Through 3D Scalable Palm Fiber for Energy Efficient Photothermal Solar Steam Generation
title_full_unstemmed Augmenting Light-to-Heat Conversion Through 3D Scalable Palm Fiber for Energy Efficient Photothermal Solar Steam Generation
title_sort Augmenting Light-to-Heat Conversion Through 3D Scalable Palm Fiber for Energy Efficient Photothermal Solar Steam Generation
container_title SOLAR RRL
language English
format Article; Early Access
description Tackling water scarcity is a pressing challenge, propelling recent advancements in solar steam generation (SSG). Recently, 3D photoabsorbers have outperformed their 2D counterparts in recovering light and minimizing heat losses, enabling a surge in exploring 3D materials and designs. Herein, 3D structures are fabricated using polydopamine (PDA) functionalized carbonized palm fibers (PDA c-fiber) to shed light on the degree of improvement in SSG efficiency compared to their 2D counterpart. Specifically, two 3D models, a cone, and a cylindrical cup, are chosen for their inherent features, including a hollow cavity, circular base, and curved surface. These architectural elements play a crucial role in trapping light, facilitating reflections, and efficiently converting solar energy to heat through the photothermal effect. Scaling palm fibers from 2D to 3D significantly boosts SSG efficiency, from 67.9% to 103.7%, with water evaporation rate enhanced from 1.171 kg m-2 h-1 to 1.869 kg m-2 h-1. Substantially, the 3D cup demonstrates superior photothermal performance primarily attributed to its heat recovery feature of the cup wall structure and circular basal area, enabling prolonged light-to-heat conversion. These findings provide valuable insights and foundation for developing efficient solar-driven 3D upcycled photoabsorbers in the future. This work highlights the 3D design and the flexibility of carbonized fiber material as photoabsorber while unveiling the important energy recovery mechanism that constitutes highly efficient solar steam generation (SSG). SSG performance of 2D, 3D cone, and 3D cup shape photoabsorber were compared to probe the energy recovery effectiveness of their respective properties.image (c) 2024 WILEY-VCH GmbH
publisher WILEY-V C H VERLAG GMBH
issn 2367-198X

publishDate 2024
container_volume
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doi_str_mv 10.1002/solr.202301015
topic Energy & Fuels; Materials Science
topic_facet Energy & Fuels; Materials Science
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url https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001150520400001
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