Development of PLA/Lignin Bio-Composites Compatibilized by Ethylene Glycol Diglycidyl Ether and Poly (ethylene glycol) Diglycidyl Ether

被引:7
作者
Shakoor Shar, Abdul [1 ]
Wang, Ningning [1 ]
Chen, Tianyu [1 ]
Zhao, Xiaoying [1 ]
Weng, Yunxuan [1 ,2 ]
机构
[1] Beijing Technol & Business Univ, Coll Chem & Mat Engn, Beijing 100048, Peoples R China
[2] Beijing Key Lab Qual Evaluat Technol Hyg & Safety, Beijing 100048, Peoples R China
关键词
poly (lactic acid); lignin; ethylene glycol diglycidyl ether; barrier performance; BARRIER PROPERTIES; POLY(LACTIC ACID); PLA; BLENDS; LIGNIN;
D O I
10.3390/polym15204049
中图分类号
O63 [高分子化学(高聚物)];
学科分类号
070305 ; 080501 ; 081704 ;
摘要
Poly (lactic acid) (PLA) is a promising green substitute for conventional petroleum-based plastics in a variety of applications. However, the wide application of PLA is still limited by its disadvantages, such as slow crystallization rate, inadequate gas barrier, thermal degradation, etc. In this study, lignin (1, 3, 5 PHR) was incorporated into PLA to improve the thermal, mechanical, and barrier properties of PLA. Two low-viscosity epoxy resins, ethylene glycol diglycidyl ether (EGDE) and poly (ethylene glycol) diglycidyl ether (PEGDE), were used as compatibilizers to enhance the performance of the composites. The addition of lignin improved the onset degradation temperature of PLA by up to 15 degrees C, increased PLA crystallinity, improved PLA tensile strength by approximately 15%, and improved PLA oxygen barrier by up to 58.3%. The addition of EGDE and PEGDE both decreased the glass transition, crystallization, and melting temperatures of the PLA/lignin composites, suggesting their compatabilizing and plasticizing effects, which contributed to improved oxygen barrier properties of the PLA/lignin composites. The developed PLA/lignin composites with improved thermal, mechanical, and gas barrier properties can potentially be used for green packaging applications.
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页数:11
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共 48 条
  • [1] Influence of citric acid on thermoplastic wheat flour/poly(lactic acid) blends. II. Barrier properties and water vapor sorption isotherms
    Abdillahi, H.
    Chabrat, E.
    Rouilly, A.
    Rigal, L.
    [J]. INDUSTRIAL CROPS AND PRODUCTS, 2013, 50 : 104 - 111
  • [2] Ajibade F.O., 2021, MICROBE MEDIATED REM, P321
  • [3] [Anonymous], 2010, ASTM D1413
  • [4] [Anonymous], 2008, ISO 15106
  • [5] Combined Effect of Poly(hydroxybutyrate) and Plasticizers on Polylactic acid Properties for Film Intended for Food Packaging
    Arrieta, Marina P.
    Samper, Maria D.
    Lopez, Juan
    Jimenez, Alfonso
    [J]. JOURNAL OF POLYMERS AND THE ENVIRONMENT, 2014, 22 (04) : 460 - 470
  • [6] A review on biopolymer production via lignin valorization
    Banu, J. Rajesh
    Kavitha, S.
    Kannah, R. Yukesh
    Devi, T. Poornima
    Gunasekaran, M.
    Kim, Sang-Hyoun
    Kumar, Gopalakrishnan
    [J]. BIORESOURCE TECHNOLOGY, 2019, 290
  • [7] Bhatia A, 2007, KOREA-AUST RHEOL J, V19, P125
  • [8] Synergy between fillers in organomontmorillonite/graphene-PLA nanocomposites
    Bouakaz, Boubkeur Seddik
    Pillin, Isabelle
    Habi, Abderrahmane
    Grohens, Yves
    [J]. APPLIED CLAY SCIENCE, 2015, 116 : 69 - 77
  • [9] Effects of Graphene Nanoplatelets and Reduced Graphene Oxide on Poly(lactic acid) and Plasticized Poly(lactic acid): A Comparative Study
    Chieng, Buong Woei
    Ibrahim, Nor Azowa
    Yunus, Wan Md Zin Wan
    Hussein, Mohd Zobir
    Then, Yoon Yee
    Loo, Yuet Ying
    [J]. POLYMERS, 2014, 6 (08) : 2232 - 2246
  • [10] Biodegradable Blends with Potential Use in Packaging: A Comparison of PLA/Chitosan and PLA/Cellulose Acetate Films
    Claro, P. I. C.
    Neto, A. R. S.
    Bibbo, A. C. C.
    Mattoso, L. H. C.
    Bastos, M. S. R.
    Marconcini, J. M.
    [J]. JOURNAL OF POLYMERS AND THE ENVIRONMENT, 2016, 24 (04) : 363 - 371