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Interfacial solar-driven evaporation provides one of the most promising green and sustainable technologies to deal with the knotty water crisis by extracting vapor from a variety of water sources powered by solar energy. Advanced photothermal materials play critical roles in interfacial solar-driven evaporation by photothermal conversion and heat localization. Herein, inspired by the unique hierarchical structure and light-harvesting function of diatoms, we propose a novel photothermal material with a diatom-like hierarchical nanostructure derived from TiO 2 -PANi-decorated bilayer melamine foam (TiO 2 -PANi@MF) for solar-driven clean water generation. The diatom-like hierarchical nanostructured TiO 2 -PANi@MF can realize full-spectrum light absorption and photothermal conversion by enhancing multiple light reflection and light scattering. Thanks to the diatom-like hierarchical nanostructure, TiO 2 -PANi@MF not only impressively achieves an evaporation rate of 2.12 kg m –2 h –1 under 1 sun irradiation but also shows a high solar steam conversion efficiency up to 88.9%. Notably, the TiO 2 -PANi composite also endows TiO 2 -PANi@MF with photocatalytic degradation capability. Apart from the excellent steam generation capability, optimized TiO 2 -PANi@MF also provides the high photocatalytic efficiency of dye degradation and maintains a high evaporation rate of more than 2 kg m –2 h –1 . We believe that the proposed photothermal material with a diatom-like hierarchical nanostructure can envision promising practical applications in seawater desalination and sewage purification.
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Pan et al. (2021) studied this question.
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