基于界面自组装工艺制备的聚合物基纳米复合材料(PBNCs)因具有强度高、韧性大、制造成本低、制备流程简单、适用性广等优点而得到广泛研究。简要介绍了界面自组装工艺的原理及PBNCs的种类,综述了PBNCs在传感器、电容器和光电探测器等领域的应用进展,并展望了PBNCs的发展前景。
Polymer-based nanocomposites (PBNCs) prepared by interfacial self-assembly process have been widely studied for their advantages such as high strength,high toughness,low manufacturing cost,simple preparation process and wide applicability.The principle of interface self-assembly process and the types of PBNCs were briefly introduced.The application progress of PBNCs in sensor,capacitor and photodetector was reviewed.The development prospect of PBNCs was also anticipated.
[1] Ha C S.Polymer based hybrid nanocomposites:a progress toward enhancing interfacial interaction and tailoring advanced applications[J].The Chemical Record,2018,18(7/8):759-775.
[2] Hu L,Ma R,Ozawa T C,et al.Oriented monolayer film of Gd2O3∶0.05Eu crystallites:quasi-topotactic transformation of the hydroxide film and drastic enhancement of photoluminescence properties[J].Angewandte Chemie International Edition,2009,48(21):3846-3849.
[3] Hernández-Guerrero O,Campillo-Illanes B F,Domínguez-Patiño M L,et al.Comparative studies of the mechanical and thermal properties of clay/copolymer nanocomposites synthesized by two in-situ methods and solution blending method[J].Journal of Polymer Research,2020,27:1-7.
[4] Zhou M,Gao M,Kong Q,et al.High-performance starch/clay bionanocomposite for textile warp sizing[J].Polymer Composites,2018,39:441-447.
[5] Branda F,Grappa R,Costantini A,et al.Sol-gel approach for fabricating silica/epoxy nanocomposites[J].Polymers,2023,15(14):2987.
[6] Li Z,Zhang Y,Fan X,et al.Inducing superior discharged energy density of the nanocomposite films with CsPbBr3 in-situ dispersed in ferroelectric polymer[J].Composites Part A:Applied Science and Manufacturing,2023,173:107664.
[7] Abd El-Salam H M,Mohamed R A,Shokry A.Facile polyacrylamide graft based on poly (2-chloroaniline) silver nano-composites as antimicrobial[J].International Journal of Polymeric Materials and Polymeric Biomaterials,2019,68(5):278-286.
[8] Ariga K,Nishikawa M,Mori T,et al.Self-assembly as a key player for materials nanoarchitectonics[J].Science and Technology of Advanced Materials,2019,20(1):51-95.
[9] Zhang S,Chen J,Liu J,et al.Engineering biomolecular self-assembly at solid-liquid interfaces[J].Advanced Materials,2021,33(23):1905784.
[10] Yuan Z,Guo Z,Meng F.Thin film prepared by gas-liquid interfacial self-assembly method and its applications in semiconductor gas sensors[J].Advanced Materials Technologies,2023,8(21):2300494.
[11] Semenova A A,Baranchikov A E,Ivanov V K,et al.Interfacial self-assembly of nanostructured silver octahedra for surface-enhanced Raman spectroscopy[J].Functional Materials Letters,2018,11(5):1850028.
[12] Zhang Z,Liu C,Zhang H,et al.Ultrafast interfacial self-assembly toward supramolecular metal-organic films for water desalination[J].Advanced Science,2022,9(24):2201624.
[13] Zheng F,Zhang Y,Dong L,et al.The impact of surface che-mistry on the interfacial evaporation-driven self-assembly of thermoplasmonic gold nanoparticles[J].Nanoscale,2021,13(48):20521-20530.
[14] Yun S,Park Y K,Kim S K,et al.Linker-molecule-free gold nanorod layer-by-layer films for surface-enhanced Raman scattering[J].Analytical Chemistry,2007,79(22):8584-8589.
[15] Reincke F H,Hickey S G,Kegel W K,et al.Spontaneous assembly of a monolayer of charged gold nanocrystals at the water/oil interface[J].Angewandte Chemie-International Edition,2004,43(4):458-462.
[16] Sun Q J,Lai Q T,Tang Z,et al.Advanced functional compo-site materials toward e-skin for health monitoring and artificial intelligence[J].Advanced Materials Technologies,2023,8(5):2201088.
[17] Pieranski P.Two-dimensional interfacial colloidal crystals[J].Physical Review Letters,1980,45(7):569.
[18] Binks B P,Clint J H.Solid wettability from surface energy components:relevance to pickering emulsions[J].Langmuir,2002,18(4):1270-1273.
[19] Lin Y,Skaff H,Emrick T,et al.Nanoparticle assembly and transport at liquid-liquid interfaces[J].Science,2003,299(5604):226-229.
[20] Guo S,Fu D,Utupova A,et al.Applications of polymer-based nanoparticles in vaccine field[J].Nanotechnology Reviews,2019,8(1):143-155.
[21] Rasoolpoor M,Ansari R,Hassanzadeh-Aghdam M K.A numerical investigation on low velocity impact response of polymer-based nanocomposite plates containing multiscale reinforcements[J].Journal of the Brazilian Society of Mechanical Sciences and Engineering,2021,43:1-12.
[22] Madhumitha G,Fowsiya J,Mohana Roopan S,et al.Recent advances in starch-clay nanocomposites[J].International Journal of Polymer Analysis and Characterization,2018,23(4):331-345.
[23] Domingues J M,Miranda C S,Homem N C,et al.Nanoparticle synthesis and their integration into polymer-based fibers for biomedical applications[J].Biomedicines,2023,11(7):1862.
[24] Park M,Kang S,Nam C,et al.Magnetic field-induced self-assembly of conjugated block copolymers and nanoparticles at the air-water interface[J].ACS Applied Materials & Interfaces,2022,14(6):8266-8273.
[25] Tian J,Liu G,Guan C,et al.Amphiphilic gold nanoparticles formed at a liquid-liquid interface and fabrication of hybrid nanocapsules based on interfacial UV photodimerization[J].Polymer Chemistry,2013,4(6):1913-1920.
[26] Li Z,Pearce A K,Du J,et al.Uniform antibacterial cylindrical nanoparticles for enhancing the strength of nanocomposite hydrogels[J].Journal of Polymer Science,2023,61(1):44-55.
[27] Varshney S,Mishra N,Gupta M K.Progress in nanocellulose and its polymer based composites:a review on processing,characterization,and applications[J].Polymer Composites,2021,42(8):3660-3686.
[28] Zhang Z,Li Y,Song L,et al.Swelling resistance and water-induced shape memory performances of sisal cellulose nanofibers/polyethylene glycol/citric acid nanocellulose papers[J].Journal of Nanomaterials,2019,2019:4304532.
[29] Iqbal T,Irfan M,Ramay S M,et al.Investigations on ZnO/polymer nanocomposite thin film for polymer based devices[J].Materials Research Express,2019,6(7):75322.
[30] Xie J,Liu H,Zhao X,et al.Achieving higher dielectric and energy storage performances of methyl methacrylate-co-glycidyl methacrylate films through the nanocomposite strategy[J].ACS Applied Polymer Materials,2023,5(10):8396-8405.
[31] Wang X,Cao W,Su Z,et al.Fabrication of high thermal conductivity nanodiamond/aramid nanofiber composite films with superior multifunctional properties[J].ACS Applied Materials & Interfaces,2023,15(22):27130-27143.
[32] Lee Y L,Tsai H J,Chen L H.Extension of poly (diphenylamine) monolayer at the air/liquid interface promoted by incorporation of gold nanoparticles[J].Journal of Materials Chemistry,2009,19(32):5778-5784.
[33] Cheyne R B,Moffitt M G.Hierarchical nanoparticle/block copolymer surface features via synergistic self-assembly at the air-water interface[J].Langmuir,2005,21(23):10297-10300.
[34] Alberti G,Zanoni C,Losi V,et al.Current trends in polymer based sensors[J].Chemosensors,2021,9(5):108.
[35] Karumuthil S C,Singh K,Valiyaneerilakkal U,et al.Fabrication of poly (vinylidene fluoride-trifluoroethylene)-zinc oxide based piezoelectric pressure sensor[J].Sensors and Actuators A:Physical,2020,303:111677.
[36] Lu Y,Biswas M C,Guo Z,et al.Recent developments in bio-monitoring via advanced polymer nanocomposite-based wearable strain sensors[J].Biosensors and Bioelectronics,2019,123:167-177.
[37] Salman G.Graphene patterned polyaniline-based NH3 gas sensor[J].Polymer Bulletin,2023,80(8):9343-9351.
[38] Guan R,Zou F,Li D,et al.Understanding the sensitivity of thin-film graphene/polymer nanocomposite strain sensors to ultrasonic waves:analytical and experimental analysis[J].Composites Science and Technology,2021,216:109079.
[39] Yin C,Duan G,Cai W.Polyaniline nanofibers and their self-assembly into a film to be used as ammonia sensor[J].RSC Advances,2016,6(105):103185-103191.
[40] Inagaki C S,Oliveira M M,Bergamini M F,et al.Facile synthesis and dopamine sensing application of three component nanocomposite thin films based on polythiophene,gold nano-particles and carbon nanotubes[J].Journal of Electroanalytical Chemistry,2019,840:208-217.
[41] Dan Z,Jiang J,Qian J,et al.A ferroconcrete-like all-organic nanocomposite exhibiting improved mechanical property,high breakdown strength,and high energy efficiency[J].Macromolecular Materials and Engineering,2019,304(12):1900433.
[42] Wang P,Pan Z,Wang W,et al.Ultrahigh energy storage performance of a polymer-based nanocomposite via interface engineering[J].Journal of Materials Chemistry A,2021,9(6):3530-3539.
[43] Yang S,Kymissis I,Leland E S,et al.Influence of electromigration on the maximum operating field of (Ba,Sr) TiO3/parylene-C composite capacitors[J].Journal of Vacuum Science & Technology B,2013,31:60603.
[44] Miao W,Chen H,Pan Z,et al.Enhancement thermal stability of polyetherimide-based nanocomposites for applications in energy storage[J].Composites Science and Technology,2021,201:108501.
[45] Nguyen T M H,Bark C W.In-situ piezoelectric effect for augmenting performance of self-powered ZnO-based photodetector[J].Coatings,2023,13(5):921.
[46] Upadhyay D C,Upadhyay R K,Singh A P,et al.High-performance inverted structure broadband photodetector based on ZnO nanorods/PCDTBT∶PCBM∶PbS QDs[J].IEEE Transactions on Electron Devices,2020,67(11):4970-4976.
[47] Elsayed A M,Alkallas F H,Trabelsi A B G,et al.Highly uniform spherical MoO2-MoO3/polypyrrole core-shell nanocomposite as an optoelectronic photodetector in UV,Vis,and IR domains[J].Micromachines,2023,14(9):1694.
[48] Chen H,Hu L,Fang X,et al.General fabrication of monolayer SnO2 nanonets for high-performance ultraviolet photodetectors[J].Advanced Functional Materials,2012,22(6):1229-1235.
[49] Chen M,Hu L,Xu J,et al.ZnO hollow-sphere nanofilm-based high-performance and low-cost photodetector[J].Small,2011,7(17):2449-2453.
基金资助
河南省自然科学基金(232300420084)
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