NAME

庞洪昌

Paper Publications

Nanoengineering core/shell structured brucite@polyphosphate@amine hybrid system for enhanced flame retardant properties
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  • Indexed by:

    期刊论文

  • First Author:

    Wang, Xuesong

  • Correspondence Author:

    Ning, GL (reprint author), Dalian Univ Technol, Fac Chem Environm & Biol Sci & Technol, Dalian 116024, Peoples R China.

  • Co-author:

    Pang, Hongchang,Chen, Wendan,Lin, Yuan,Ning, Guiling

  • Date of Publication:

    2013-12-01

  • Journal:

    POLYMER DEGRADATION AND STABILITY

  • Included Journals:

    SCIE、EI、Scopus

  • Document Type:

    J

  • Volume:

    98

  • Issue:

    12

  • Page Number:

    2609-2616

  • ISSN No.:

    0141-3910

  • Key Words:

    Brucite; Core/shell structure; Flame retardant; Ethylene-vinyl acetate copolymer; Mechanism

  • Abstract:

    A novel organic-inorganic hybrid flame retardant consisting of a brucite core and a dodecylamine polyphosphate shell was synthesized by a facile nanoengineering route. The flammability characterization and synergistic flame retardant mechanism of the core/shell flame retardant (CFR) in ethylene-vinyl acetate (EVA) blends had been compared with EVA/physical mixture (PM, with the given proportion of brucite and dodecylamine polyphosphate as well as CFR) and EVA/brucite blends. With the same loading amount (40 wt%) of fillers in EVA, the peak heat release rate and smoke production rate of EVA/CFR blends were significantly reduced to 49% and 48% of that of EVA/PM blends, respectively. Meanwhile, the limiting oxygen index (LOI) was increased up to 32 (14.3% higher than that of EVA/PM blends) and the UL-94 test could achieve the V-0 rating. These remarkable properties were obtained just by nanoengineeing the core/shell structured brucite@polyphosphate@amine hybrid system, facilitating the formation of intact and compact residue with fence structure in process of polymer composite burning. (C) 2013 Elsevier Ltd. All rights reserved.

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