Full tea waste-based photothermal aerogel with vertical water transport channels for steady solar desalination

Interfacial solar desalination technology holds immense promise in combatting global freshwater scarcity. However, salt accumulation on solar evaporators poses a significant hurdle in sustaining desalination performance. Therefore, the development of salt-resistance solar evaporators remains a formi...

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Veröffentlicht in:Industrial crops and products 2024-06, Vol.212, p.118363, Article 118363
Hauptverfasser: Zhou, Jinghui, Xing, Renpan, Wu, Yuming, Shen, Meilin, Wang, Weiming, Li, Ming, Xiong, Jun, Min, Xue
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container_end_page
container_issue
container_start_page 118363
container_title Industrial crops and products
container_volume 212
creator Zhou, Jinghui
Xing, Renpan
Wu, Yuming
Shen, Meilin
Wang, Weiming
Li, Ming
Xiong, Jun
Min, Xue
description Interfacial solar desalination technology holds immense promise in combatting global freshwater scarcity. However, salt accumulation on solar evaporators poses a significant hurdle in sustaining desalination performance. Therefore, the development of salt-resistance solar evaporators remains a formidable challenge. Herein, we have exploited a full tea waste-based photothermal aerogel (TWPA) to achieve steady desalination performance. This TWPA is fabricated with carbonized tea waste (TWC) and tea waste fiber (TWF) with a simple crosslinking method and liquid nitrogen freeze-drying. The TWPA efficiently absorbs 97% of sunlight, which results in an exceptional evaporation rate of 1.63 kg m–2 h–1 under 1-solar intensity. Moreover, the vertical water transport channels and large pore structure within TWPA expedite solution transport and salt ion backflow diffusion, ensuring stable desalination of 10 wt% brine at a rate of 1.37 kg m–2 h–1. Long-term indoor and outdoor experiments demonstrate that TWPA is durable. Notably, a 1 m2 TWPA can generate about 6.34 kg freshwater per day from 10 wt% brine. This simple waste-to-treasure approach not only demonstrates a sustainable solution but also promises to drive the development of waste-based solar evaporators, addressing freshwater scarcity while mitigating environmental pollution. [Display omitted] •A simple strategy is proposed to turn tea waste into photothermal aerogel (TWPA).•TWPA achieves an excellent evaporation rate of 1.63 kg m–2 h–1.•1 m² TWPA can extract approximately 6.34 kg of freshwater daily from 10 wt% brine.
doi_str_mv 10.1016/j.indcrop.2024.118363
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However, salt accumulation on solar evaporators poses a significant hurdle in sustaining desalination performance. Therefore, the development of salt-resistance solar evaporators remains a formidable challenge. Herein, we have exploited a full tea waste-based photothermal aerogel (TWPA) to achieve steady desalination performance. This TWPA is fabricated with carbonized tea waste (TWC) and tea waste fiber (TWF) with a simple crosslinking method and liquid nitrogen freeze-drying. The TWPA efficiently absorbs 97% of sunlight, which results in an exceptional evaporation rate of 1.63 kg m–2 h–1 under 1-solar intensity. Moreover, the vertical water transport channels and large pore structure within TWPA expedite solution transport and salt ion backflow diffusion, ensuring stable desalination of 10 wt% brine at a rate of 1.37 kg m–2 h–1. Long-term indoor and outdoor experiments demonstrate that TWPA is durable. 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subjects aerogels
Crosslinking
desalination
evaporation rate
freeze drying
freshwater
Interfacial solar desalination
liquid nitrogen
Photothermal aerogel
pollution
Salt-resistance
solar radiation
tea
Tea waste
wastes
title Full tea waste-based photothermal aerogel with vertical water transport channels for steady solar desalination
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