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  • Lignosulfonate functionalized g-C3N4/carbonized wood sponge for highly efficient heavy metal ion scavenging

    Author(s)
    Gu, Yue
    Ye, Mengxiang
    Wang, Yongchuang
    Li, Huaimeng
    Zhang, Haimin
    Wang, Guozhong
    Zhang, Yunxia
    Zhao, Huijun
    Griffith University Author(s)
    Zhao, Huijun
    Year published
    2020
    Metadata
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    Abstract
    Wood-based adsorbents have important engineering significance in removing toxic heavy metals from wastewater due to their natural abundance, sustainability and biodegradability together with superior sorption performance. Herein, a novel adsorbent, lignosulfonate functionalized g-C3N4/carbonized wood sponge (denoted as LS-C3N4/CWS), has been successfully fabricated through pyrolysis of urea impregnated wood sponge under an argon atmosphere, followed by subsequent modification with lignosulfonate (LS). As expected, the resulting LS-C3N4/CWS shows excellent decontamination capability toward Pb2+, Cd2+ and Cu2+ with high uptake ...
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    Wood-based adsorbents have important engineering significance in removing toxic heavy metals from wastewater due to their natural abundance, sustainability and biodegradability together with superior sorption performance. Herein, a novel adsorbent, lignosulfonate functionalized g-C3N4/carbonized wood sponge (denoted as LS-C3N4/CWS), has been successfully fabricated through pyrolysis of urea impregnated wood sponge under an argon atmosphere, followed by subsequent modification with lignosulfonate (LS). As expected, the resulting LS-C3N4/CWS shows excellent decontamination capability toward Pb2+, Cd2+ and Cu2+ with high uptake capacities of 659.6, 329.1 and 173.5 mg g−1, respectively, outperforming most of the previously reported wood-based adsorbents and other nanomaterials. Moreover, the spent LS-C3N4/CWS can be readily recovered and maintains high removal efficiency after ten adsorption–regeneration cycles, revealing its excellent recyclability. Significantly, LS-C3N4/CWS can be directly utilized as an ultrafiltration membrane to continuously treat large volumes of simulated wastewater (9550 mL g−1 for Pb2+, 1500 mL g−1 for Cd2+ and 8700 mL g−1 for Cu2+) to below the permitted level in drinking water. The superior decontamination performance coupled with facile separation, cost-effectiveness and no secondary pollution underscores the huge potential of LS-C3N4/CWS in effectively removing heavy metals from polluted waters.
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    Journal Title
    Journal of Materials Chemistry A
    Volume
    8
    Issue
    25
    DOI
    https://doi.org/10.1039/d0ta00382d
    Subject
    Macromolecular and materials chemistry
    Materials engineering
    Other engineering
    Science & Technology
    Physical Sciences
    Chemistry, Physical
    Energy & Fuels
    Publication URI
    http://hdl.handle.net/10072/396868
    Collection
    • Journal articles

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