High-density Fibrous Polyimide Sponges with Superior Mechanical and Thermal Properties

被引:106
作者
Jiang, Shaohua [1 ]
Cheong, Jun Young [3 ]
Nam, Jong Seok [3 ]
Kim, Il-Doo [3 ]
Agarwal, Seema [2 ]
Greiner, Andreas [2 ]
机构
[1] Nanjing Forestry Univ, Coll Mat Sci & Engn, Coinnovat Ctr Efficient Proc & Utilizat Forest Re, Nanjing 210037, Peoples R China
[2] Univ Bayreuth, Bavarian Polymer Inst, Macromol Chem, D-95440 Bayreuth, Germany
[3] Korea Adv Inst Sci & Technol, Dept Mat Sci & Engn, Daejeon 305701, South Korea
基金
美国国家科学基金会;
关键词
high-density sponge; electrospinning; compression; thermal stability; polyimide; EFFICIENT ELECTROCATALYST; POLYMER SPONGES; DOPED CARBON; NANOFIBERS; ULTRALIGHT; CONDUCTIVITY; EXPLORATION; COMPOSITES; NETWORKS; CATALYST;
D O I
10.1021/acsami.0c02004
中图分类号
TB3 [工程材料学];
学科分类号
0805 ; 080502 ;
摘要
relatively low compressive strength significantly limits the practical application of sponges made from electrospun fibers because of an ultralow density <10 mg/cm(3). To solve this problem, fibrous polyimide sponges with high density (HDPISG) were prepared using a "self-gluing" concept. The HDPISG have a density of up to 280 mg/cm(3) and porosity >80%, and showed good breathability. The compressive strength increased significantly as the sponge densities increased. The HDPISG with a density of 280 mg/cm(3) has the highest compressive strength of 5190 and 35,900 kPa under 50 and 80% compression, respectively. The small HDPISG can even hold weights more than ten thousand times of the weight of the sponge. The HDPISG also possess excellent mechanical properties after thermal treatments and no loss of compressive strength can be seen after heating at 300 degrees C for 30 h. Further study indicates that the HDPISG can maintain their main shape after carbonization.
引用
收藏
页码:19006 / 19014
页数:9
相关论文
共 43 条
  • [1] Superelastic, superabsorbent and 3D nanofiber-assembled scaffold for tissue engineering
    Chen, Weiming
    Ma, Jun
    Zhu, Lei
    Morsi, Yosry
    EI-Hamshary, Hany
    Al-Deyab, Salem S.
    Mo, Xiumei
    [J]. COLLOIDS AND SURFACES B-BIOINTERFACES, 2016, 142 : 165 - 172
  • [2] Electrospun carbon nanofiber networks from phenolic resin for capacitive deionization
    Chen, Yingzhi
    Yue, Mengbin
    Huang, Zheng-Hong
    Kang, Feiyu
    [J]. CHEMICAL ENGINEERING JOURNAL, 2014, 252 : 30 - 37
  • [3] Generalized and feasible strategy to prepare ultra-porous, low density, compressible carbon nanoparticle sponges
    Cheong, Jun Young
    Benker, Lothar
    Zhu, Jian
    Youn, Doo-Young
    Hou, Haoqing
    Agarwal, Seema
    Kim, Il-Doo
    Greiner, Andreas
    [J]. CARBON, 2019, 154 : 363 - 369
  • [4] Amphiphilic Nanofiber-Based Aerogels for Selective Liquid Absorption from Electrospun Biopolymers
    Deuber, Fabian
    Mousavi, Sara
    Federer, Lukas
    Adlhart, Christian
    [J]. ADVANCED MATERIALS INTERFACES, 2017, 4 (12):
  • [5] Investigating the draw ratio and velocity of an electrically charged liquid jet during electrospinning
    Ding, Chenhui
    Fang, Hong
    Duan, Gaigai
    Zou, Yan
    Chen, Shuiliang
    Hou, Haoqing
    [J]. RSC ADVANCES, 2019, 9 (24) : 13608 - 13613
  • [6] Isomeric polyimides
    Ding, Mengxian
    [J]. PROGRESS IN POLYMER SCIENCE, 2007, 32 (06) : 623 - 668
  • [7] Electrospun polyimide nanofibers and their applications
    Ding, Yichun
    Hou, Haoqing
    Zhao, Yong
    Zhu, Zhengtao
    Fong, Hao
    [J]. PROGRESS IN POLYMER SCIENCE, 2016, 61 : 67 - 103
  • [8] Synthesis of polyacrylonitrile and mechanical properties of its electrospun nanofibers
    Duan, Gaigai
    Liu, Shuwu
    Hou, Haoqing
    [J]. E-POLYMERS, 2018, 18 (06): : 569 - 573
  • [9] Exploration of Macroporous Polymeric Sponges As Drug Carriers
    Duan, Gaigai
    Bagheri, Amir Reza
    Jiang, Shaohua
    Golenser, Jacob
    Agarwal, Seema
    Greiner, Andreas
    [J]. BIOMACROMOLECULES, 2017, 18 (10) : 3215 - 3221
  • [10] Highly Efficient Reusable Sponge-Type Catalyst Carriers Based on Short Electrospun Fibers
    Duan, Gaigai
    Koehn-Serrano, Melissa
    Greiner, Andreas
    [J]. MACROMOLECULAR RAPID COMMUNICATIONS, 2017, 38 (03)