Biobased Phase Change Material with Reduced Thermal Conductivity: From Preparation to Analysis of Thermal Insulation Performance

被引:3
作者
Liu, Yanping [1 ]
Wu, Yuewen [1 ]
Zhao, Shuo [1 ]
Wang, Xu [1 ]
Zheng, Jianliang [1 ]
Zeng, Wenli [1 ]
Yuan, Maoqing [1 ]
Zhao, Na [1 ]
Li, Qian [1 ]
Wang, Zhen [2 ]
Tian, Nan [3 ]
机构
[1] Zhengzhou Univ, Sch Mech & Safety Engn, Natl Ctr Int Joint Res Micronano Molding Technol, Zhengzhou 450001, Peoples R China
[2] Zhengzhou Univ, Minist Educ, Natl Engn Res Ctr Adv Polymer Proc Technol, Key Lab Mat Proc & Mold, Zhengzhou 450002, Peoples R China
[3] Northwestern Polytech Univ, Sch Chem & Chem Engn, Xian 710129, Peoples R China
基金
美国国家科学基金会;
关键词
phase change material; latent heat; biobased; coaxial electrospinning; thermal conductivity; CHALLENGES; POLYMERS;
D O I
10.1021/acsapm.3c00372
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Coaxial fiber membranes (CFMs) with poly(ethylene oxide) (PEO) encapsulated by biobased poly(L-lactic acid) (PLLA) were prepared by coaxial electrospinning technology, whose thermal management capacity was investigated. The coaxial structure and thermal reliability were studied by transmission electron microscopy, cycle-heating experiment, differential scanning calorimetry, thermog-ravimetric analysis, and wide-angle X-ray diffraction. Both heat conduction experiment and insulation experiment confirmed that the coaxial fibers have excellent thermal management capability. CFMs with PEO content of 49 wt % exhibit remarkable thermal stability and energy storage, while the thermal insulation efficiency could be improved by more than 21% comparing with a pure PLLA membrane. A Fourier equation corrected by the melting enthalpy of PEO can well describe the heating curves of CFMs, suggesting the primary and secondary effects from latent heat of PEO melting and reduced thermal conductivity of PLLA glass transition. The excellent thermal management capability and thermal stability underlies the wider application of CFMs.
引用
收藏
页码:3728 / 3736
页数:9
相关论文
共 41 条
[1]   Graft Semi-Interpenetrating Polymer Network Phase Change Materials for Thermal Energy Storage [J].
Alizadeh, Nima ;
Broughton, Royall M. ;
Auad, Maria L. .
ACS APPLIED POLYMER MATERIALS, 2021, 3 (04) :1785-1794
[2]   Environmental and economic assessment of a greenhouse waste heat exchange [J].
Andrews, R. ;
Pearce, J. M. .
JOURNAL OF CLEANER PRODUCTION, 2011, 19 (13) :1446-1454
[3]   Curbing global warming with phase change materials for energy storage [J].
Anisur, M. R. ;
Mahfuz, M. H. ;
Kibria, M. A. ;
Saidur, R. ;
Metselaar, I. H. S. C. ;
Mahlia, T. M. I. .
RENEWABLE & SUSTAINABLE ENERGY REVIEWS, 2013, 18 :23-30
[4]  
[Anonymous], 1992, POLYM J, V28, P831
[5]   Tuning surface functionality of standard biochars and the resulting uplift capacity of loading/energy storage for organic phase change materials [J].
Atinafu, Dimberu G. ;
Chang, Seong Jin ;
Kim, Ki-Hyun ;
Kim, Sumin .
CHEMICAL ENGINEERING JOURNAL, 2020, 394
[6]   Opportunities and challenges for a sustainable energy future [J].
Chu, Steven ;
Majumdar, Arun .
NATURE, 2012, 488 (7411) :294-303
[7]   Renewable and sustainable energy saving strategies for greenhouse systems: A comprehensive review [J].
Cuce, Erdem ;
Harjunowibowo, Dewanto ;
Cuce, Pinar Mert .
RENEWABLE & SUSTAINABLE ENERGY REVIEWS, 2016, 64 :34-59
[8]   Fundamentals, materials and strategies for personal thermal management by next-generation textiles [J].
Farooq, Abdul Samad ;
Zhang, Peng .
COMPOSITES PART A-APPLIED SCIENCE AND MANUFACTURING, 2021, 142
[9]   Structure-morphology correlation in electrospun fibers of semicrystalline polymers by simultaneous synchrotron SAXS-WAXD [J].
Gazzano, M. ;
Gualandi, C. ;
Zucchelli, A. ;
Sui, T. ;
Korsunsky, A. M. ;
Reinhard, C. ;
Focarete, M. L. .
POLYMER, 2015, 63 :154-163
[10]  
Lee SH, 2001, J POLYM SCI POL CHEM, V39, P973, DOI 10.1002/1099-0518(20010401)39:7<973::AID-POLA1073>3.0.CO