4.7 Article

Low-cost and facile fabrication of a candle soot/adsorbent cotton 3D-interfacial solar steam generation for effective water evaporation

期刊

出版社

ELSEVIER
DOI: 10.1016/j.solmat.2020.110876

关键词

Interfacial evaporation; Candle soot; Transpiration; Water purification; A simple home-made process

资金

  1. Innovation Platform for the Development and Construction of Special Project of Key Laboratory of Tibetan Medicine Research of Qinghai Province [2017-ZJ-Y11]
  2. Qinghai Provincial Science Foundation [2017-SF-A8]
  3. Yulin Municipal Science and Technology Bureau Science Foundation
  4. Fundamental Research Funds for the Central Universities-Excellent Doctorate Dissertation Cultivation Funding Project in Chang'an University

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A 3D-interfacial solar steam generation system using candle soot and adsorbent cotton was developed, achieving efficient water evaporation with a solar thermal conversion efficiency of up to 80.70%. This simple and cost-effective method provides a reference for further research on photothermal materials for clean water production.
Solar-driven water evaporation is considered an environmental-friendly method for energy-efficient clean water production. However, directly using solar energy to generate steam is impractical due to its high cost, complex systems, and low efficiency. Herein, a candle soot (CS)/adsorbent cotton (AC) 3D-interfacial solar steam generation (3D-ISSG) with simple configuration and off-grid operation was reported by depositing low cost and conveniently fabrication candle soot nanoparticles on adsorbent cotton matrix via a simple home-made process. In this system, the 3D photothermal cone was introduced to separate the contact area between bulk water and the CS/AC membrane to minimize the heat loss, accordingly achieving an efficient interface heating to further improve the water evaporation rate. The synthesized CS/AC 3D-ISSG is easy to fabricate, thus achieving a lower cost for water evaporation. The fabricated CS/AC 3D-ISSG achieved water evaporation rates of 1.27 kg m(-2) h(-1) under 1 sun with a solar thermal conversion efficiency up to 80.70%. The results of this work provide a reference for further study of photothermal materials with low cost and excellent properties and their application in clean water production.

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