Self-Healing Polymers and Composites

被引:1115
作者
Blaiszik, B. J. [1 ,2 ]
Kramer, S. L. B. [1 ,2 ]
Olugebefola, S. C. [1 ]
Moore, J. S. [1 ,3 ]
Sottos, N. R. [1 ,2 ]
White, S. R. [1 ,4 ]
机构
[1] Univ Illinois, Beckman Inst Adv Sci & Technol, Urbana, IL 61801 USA
[2] Univ Illinois, Dept Mat Sci & Engn, Urbana, IL 61801 USA
[3] Univ Illinois, Dept Chem, Urbana, IL 61801 USA
[4] Univ Illinois, Dept Aerosp Engn, Urbana, IL 61801 USA
来源
ANNUAL REVIEW OF MATERIALS RESEARCH, VOL 40 | 2010年 / 40卷
关键词
bioinspired; remendable; autonomic; capsule; vascular; intrinsic; FIBER-REINFORCED POLYMER; OPENING METATHESIS POLYMERIZATION; TOUGHENED EPOXY COMPOSITE; MICROENCAPSULATED EPOXY; DELAMINATION DAMAGE; VASCULAR NETWORKS; FATIGUE CRACKS; IMPACT DAMAGE; MICROCAPSULES; REPAIR;
D O I
10.1146/annurev-matsci-070909-104532
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Self-healing polymers and fiber-reinforced polymer composites possess the ability to heal in response to damage wherever and whenever it occurs in the material. This phenomenal material behavior is inspired by biological systems in which self-healing is commonplace. To date, self-healing has been demonstrated by three conceptual approaches: capsule-based healing systems, vascular healing systems, and intrinsic healing polymers. Self-healing can be autonomic-automatic without human intervention-or may require some external energy or pressure. All classes of polymers, from thermosets to thermoplastics to elastomers, have potential for self-healing. The majority of research to date has focused on the recovery of mechanical integrity following quasi-static fracture. This article also reviews self-healing during fatigue and in response to impact damage, puncture, and corrosion. The concepts embodied by current self-healing polymers offer a new route toward safer, longer-lasting, fault-tolerant products and components across a broad cross section of industries including coating's, electronics, transportation, and energy.
引用
收藏
页码:179 / 211
页数:33
相关论文
共 131 条
  • [1] High-Order Multiple Emulsions Formed in Poly(dimethylsiloxane) Microfluidics
    Abate, A. R.
    Weitz, D. A.
    [J]. SMALL, 2009, 5 (18) : 2030 - 2032
  • [2] Self-healing anticorrosion coatings based on pH-sensitive polyelectrolyte/inhibitor sandwichlike nanostructures
    Andreeva, Daria V.
    Fix, Dmitri
    Moehwald, Helmuth
    Shchukin, Dmitry G.
    [J]. ADVANCED MATERIALS, 2008, 20 (14) : 2789 - +
  • [3] Buffering polyelectrolyte multilayers for active corrosion protection
    Andreeva, Daria V.
    Fix, Dmitri
    Moehwald, Helmuth
    Shchukin, Dmitry G.
    [J]. JOURNAL OF MATERIALS CHEMISTRY, 2008, 18 (15) : 1738 - 1740
  • [4] Design of microvascular flow networks using multi-objective genetic algorithms
    Aragon, Alejandro M.
    Wayer, Jessica K.
    Geubelle, Philippe H.
    Goldberg, David E.
    White, Scott R.
    [J]. COMPUTER METHODS IN APPLIED MECHANICS AND ENGINEERING, 2008, 197 (49-50) : 4399 - 4410
  • [5] Preparation of chromate-free, self-healing polymer films containing sodium silicate on zinc pretreated in a cerium(III) nitrate solution for preventing zinc corrosion at scratches in 0.5 M NaCl
    Aramaki, K
    [J]. CORROSION SCIENCE, 2002, 44 (06) : 1375 - 1389
  • [6] Baboian R, 2005, ASTM INT MAN SER, P1, DOI 10.1520/MNL20_2ND-EB
  • [7] Modelling self-healing materials
    BaLazs, Anna C.
    [J]. MATERIALS TODAY, 2007, 10 (09) : 18 - 23
  • [8] Nanoparticle polymer composites: Where two small worlds meet
    Balazs, Anna C.
    Emrick, Todd
    Russell, Thomas P.
    [J]. SCIENCE, 2006, 314 (5802) : 1107 - 1110
  • [9] Self-healing flexible laminates for resealing of puncture damage
    Beiermann, B. A.
    Keller, M. W.
    Sottos, N. R.
    [J]. SMART MATERIALS AND STRUCTURES, 2009, 18 (08)
  • [10] Benita Simon., 2006, MICROENCAPSULATION M