To improve the tribological properties of bismaleimide (BMI) resin, silicon dioxide nanoparticles with imino and terminal functional amino groups were prepared through a sol–gel process to form a novel SiO2-NH2 hybrid. The as-prepared hybrid was then applied as a modifying agent for the BMI matrix to obtain SiO2-NH2/BMI composites. Compared to those of pure BMI resin, the volume wear rate and friction coefficient of the SiO2-NH2/BMI composites decreased significantly, while the wear mechanism changed from fatigue (BMI) to adhesive (SiO2-NH2/BMI) wear. This improvement in the tribological properties of the SiO2-NH2/BMI composites was attributed to the appropriate SiO2-NH2 added content, which endowed the BMI with excellent mechanical and thermal-resistant properties. Thus, the SiO2-NH2/BMI composites could resist the external load and excessive heat during the friction process.
SamieyBChengCHWuJ. Organic-inorganic hybrid polymers as adsorbents for removal of heavy metal ions from solutions: a review. Mater (Basel)2014; 7(2): 673–726.
2.
WuYJiaSQingY, et al.A versatile and efficient method to fabricate durable superhydrophobic surfaces on wood, lignocellulosic fiber, glass, and metal substrates. J Mater Chem A2016; 4(37): 14111–14121.
3.
HuJGaoQXuL, et al.Significant improvement in thermal and UV resistances of UHMWPE fabric through in situ formation of polysiloxane-TiO2 hybrid layers. ACS Appl Mater Inter2016; 8(35): 23311–23320.
4.
MaleckaJKrzak-RośJ. Preparation of SiO2 coating by sol-gel method, to improve high-temperature corrosion resistance of a γ-TiAl phase based alloy. Adv Mater Sci2013; 12(4): 5–12.
5.
YinYHuangRXuY, et al.Preparation and characterization of highly dispersed silica nanoparticles via nonsurfactant template for fabric coating. J Tex I2017; 108(10): 1662–1668.
6.
HaasKH. Hybrid inorganic-organic polymers based on organically modified Si-alkoxides. Adv Eng Mater2000; 2(9): 571–582.
7.
YanHXLiPBNingRC, et al.Tribological properties of bismaleimide composites with surface-modified SiO2 nanoparticles. J Appl Polym Sci2008; 110(3): 1375–1381.
8.
SedatOLarsWLars-ErikE. The adsorption of hyperbranched polymers on silicon oxide surfaces. J Colloid Interf Sci2006; 301(1): 32–39.
9.
GangWNozomuSYusukeK, et al.Grafting of hyperbranched cyclotriphosphazene polymer onto silica nanoparticles and carbon black surfaces. J Polym Sci A2008; 46: 4218–4226.
10.
FedelMCalloneEFabbianM, et al.Influence of Ce3+ doping on molecular organization of Si-based organic/inorganic sol-gel layers for corrosion protection. Appl Surf Sci2017; 414: 82–91.
11.
Vallet-RegíMIzquierdo-BarbaIGilFJ. Localized corrosion of 316L stainless steel with SiO2-CaO films obtained by means of sol-gel treatment. J Biomed Mater Res A2003; 67(2): 674–678.
12.
KuoYLChangKH. Atmospheric pressure plasma enhanced chemical vapor deposition of SiOx films for improved corrosion resistant properties of AZ31 magnesium alloys. Surf Coat Technol2015; 283: 194–200.
13.
AmerMSDurgamLEl-AshryMM. Raman mapping of local phases and local stress fields in silicon–silicon carbide composites. Mater Chem Phys2006; 98(2–3): 410–414.
14.
QiaoLXieFXieM, et al.Characterization and photoelectrochemical performance of Zn-doped TiO2 films by sol-gel method. Trans Nonferrous Met Soc China2016; 26(8): 2109–2116.
15.
FigueiraRBSilvaCJRPereiraEV. Organic-inorganic hybrid sol-gel coatings for metal corrosion protection: a review of recent progress. J Coat Technol Res2015; 12(1): 1–35.
16.
TkaczykMKrzak-RośJKaletaJ. Evaluation of mechanical and physicochemical properties of protection coatings obtained by the sol-gel method. Mater Sci2012; 48(3): 323–331.
17.
JolantaGAnnaSBartoszB, et al.Functionalizable sol-gel silica coatings for corrosion mitigation. Materials2018; 11(2): 197.
18.
ZhangCLHeYXuZH, et al.Fabrication of Fe3O4@SiO2 nanocomposites to enhance anticorrosion performance of epoxy coatings. Polym Adv Technol2015; 27(6): 740–747.
19.
YangXQingWFengC, et al.Sol-gel process and high-temperature property of SiO2/ZrO2-SiO2 composites. Ceram Int2017; 43(1): 854–859.
20.
TakeichiTSaitoYAgagT, et al.High-performance polymer alloys of polybenzoxazine and bismaleimide. Polymer2008; 49(5): 1173–1179.
21.
SunBLiangGZGuAJ, et al.High performance miscible polyetherimide/bismaleimide resins with simultaneously improved integrated properties based on a novel hyperbranched polysiloxane having a high degree of branching. Ind Eng Chem Res2013; 52(14): 5054–5065.
22.
GuanQGuALiangGZ, et al.Curing kinetics and mechanism of novel high performance hyperbranched polysiloxane/bismaleimide/cyanate ester resins for resin transfer molding. J Appl Polym Sci2011; 122(1): 304–312.
23.
MathiasPJWuWGorettaKC, et al.Solid particle erosion of a graphite-fiber-reinforced bismaleimide polymer composite. Wear1989; 135(1): 161–169.
24.
VanajaARaoRMVGK. Synthesis and characterization of epoxy-novolac/bismaleimide networks. Eur Polym J2002; 38(1): 187–193.
25.
YanHXNingRCLiangGZ, et al.The effect of silane coupling agent on the sliding wear behavior of nanometer ZrO2/bismaleimide composites. J Mater Sci2007; 42(3): 958–965.
26.
WangZRanQCZhuRQ, et al.Curing behaviors and thermal properties of benzoxazine and N,N′-(2,2,4-trimethylhexane-1,6-diyl)dimaleimide blend. J Appl Polym Sci2013; 129(3): 1124–1130.
27.
ChengQFFangZPYiXS, et al.“Ex situ” concept for toughening the RTMable BMI matrix composites, part I: improving the interlaminar fracture toughness. J Appl Polym Sci2008; 109(3): 1625–1634.
28.
YanHXLiSJiaY, et al.Hyperbranched polysiloxane grafted graphene for improved tribological performance of bismaleimide composites. RSC Adv2015; 5(17): 12578–12582.
29.
JiaYYanHXLiS, et al.Tribology property of benzoxazine-bismaleimide composites with hyperbranched polysilane-grafted multi-walled carbon nanotubes. Nano2016; 11(5): 1–10.
30.
ZhangQWeiHLiuY, et al.Triple-shape memory effects of bismaleimide based thermosetting polymer networks prepared via heterogeneous crosslinking structures. RSC Adv2016; 6(13): 10233–10241.
31.
HuJYuanPZengK, et al.Study of the curing kinetics of a benzimidazole/phthalonitrile resin system. Thermochim Acta2014; 590: 30–39.
32.
LiuLGuA JFangZP, et al.The effects of the variations of carbon nanotubes on the micro-tribological behavior of carbon nanotubes/bismaleimide nanocomposite. Compos: Part A2007; 38: 1957–1964.
33.
ShibataMHashimotoY. High performance thermosetting bismaleimide resins via thiol-maleimide “click” reaction. Eur Polym J2017; 93: 561–571.
