Electrical And Thermomechanical Properties Of Epoxy Filled Hybrid Covalent Treated MWCNTs/GNPs Nanocomposites

The investigations on electrical, mechanical and thermal properties of epoxy filled hybrid treated Multi-Walled Carbon Nanotubes (MWCNTs) and Graphene Nanoplatelets (GNPs) were reported in this research. DGEBA epoxy and hybrid MWCNTs/GNPs were respectively used as a matrix and nanofiller in developi...

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Main Author:	Abd Aziz, Norfarhana
Format:	Thesis
Language:	English English
Published:	2018
Subjects:	T Technology (General)
Online Access:	http://eprints.utem.edu.my/id/eprint/23977/1/Electrical%20And%20Thermomechanical%20Properties%20Of%20Epoxy%20Filled%20Hybrid%20Covalent%20Treated%20MWCNTs-GNPs%20Nanocomposites.pdf http://eprints.utem.edu.my/id/eprint/23977/2/Electrical%20And%20Thermomechanical%20Properties%20Of%20Epoxy%20Filled%20Hybrid%20Covalent%20Treated%20MWCNTs-GNPs%20Nanocomposites.pdf
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institution	Universiti Teknikal Malaysia Melaka
collection	UTeM Repository
language	English English
topic	T Technology (General) T Technology (General)
spellingShingle	T Technology (General) T Technology (General) Abd Aziz, Norfarhana Electrical And Thermomechanical Properties Of Epoxy Filled Hybrid Covalent Treated MWCNTs/GNPs Nanocomposites
description	The investigations on electrical, mechanical and thermal properties of epoxy filled hybrid treated Multi-Walled Carbon Nanotubes (MWCNTs) and Graphene Nanoplatelets (GNPs) were reported in this research. DGEBA epoxy and hybrid MWCNTs/GNPs were respectively used as a matrix and nanofiller in developing improvement into the epoxy polymer. The properties and performances of epoxy hybrid treated MWCNTs/GNPs nanocomposites were investigated and evaluated in this works. The MWCNTs which have an inert surface characteristic are tend to agglomerate and need to be modified in lowering their viscosity of epoxy due to good dispersion of MWCNTs fillers within the matrices. Amino Propyl Triethoxy Silane (APTS) chemical was used as a medium for covalent functionalization utilizing a simplified treatment approaches. Surface treatment evaluation was done by performing a Fourier Transform Infrared Spectroscopy (FTIR) and Raman spectroscopy to further confirm the success of the covalent functionalization performed to the MWCNTs surfaces. Then, the GNPs at various filler loadings were added into the MWCNTs and become hybrid MWCNTs/GNPs. The nanocomposites samples with 0.00 wt.%, 0.25 wt.%, 0.50 wt.%, 0.75 wt% and 1.00 wt.% of GNPs loadings were tested by using various electrical, mechanical and thermal testing which are surface resistivity, permittivity, tensile test, flexural test, and DSC analysis. For electrical testing, surface resistivity shows the highest resistivity for epoxy/MWCNTs without GNPs filler while permittivity shows increment for highest GNPs filler loading. In term of mechanical testing, tensile and flexural testing result shows the improvement for epoxy hybrid MWCNTs/GNPs with 30.04% and 38.33% increament compared to the epoxy/MWCNTs without GNPs filler. The experimental results shows that the electrical, mechanical and thermal properties were significantly investigated by the covalent treatment onto the MWCNTs surfaces and addition of GNPs filler. Scanning electron microscopy (SEM) observations on the fractured surfaces shows that the properties improvement in the nanocomposites and filler dispersion as well as the matrix-filler interaction is directly interrelated with the success of covalent functionalization of MWCNTs and GNPs filler addition.
format	Thesis
qualification_name	Master of Philosophy (M.Phil.)
qualification_level	Master's degree
author	Abd Aziz, Norfarhana
author_facet	Abd Aziz, Norfarhana
author_sort	Abd Aziz, Norfarhana
title	Electrical And Thermomechanical Properties Of Epoxy Filled Hybrid Covalent Treated MWCNTs/GNPs Nanocomposites
title_short	Electrical And Thermomechanical Properties Of Epoxy Filled Hybrid Covalent Treated MWCNTs/GNPs Nanocomposites
title_full	Electrical And Thermomechanical Properties Of Epoxy Filled Hybrid Covalent Treated MWCNTs/GNPs Nanocomposites
title_fullStr	Electrical And Thermomechanical Properties Of Epoxy Filled Hybrid Covalent Treated MWCNTs/GNPs Nanocomposites
title_full_unstemmed	Electrical And Thermomechanical Properties Of Epoxy Filled Hybrid Covalent Treated MWCNTs/GNPs Nanocomposites
title_sort	electrical and thermomechanical properties of epoxy filled hybrid covalent treated mwcnts/gnps nanocomposites
granting_institution	Universiti Teknikal Malaysia Melaka
granting_department	Faculty Of Manufacturing Engineering
publishDate	2018
url	http://eprints.utem.edu.my/id/eprint/23977/1/Electrical%20And%20Thermomechanical%20Properties%20Of%20Epoxy%20Filled%20Hybrid%20Covalent%20Treated%20MWCNTs-GNPs%20Nanocomposites.pdf http://eprints.utem.edu.my/id/eprint/23977/2/Electrical%20And%20Thermomechanical%20Properties%20Of%20Epoxy%20Filled%20Hybrid%20Covalent%20Treated%20MWCNTs-GNPs%20Nanocomposites.pdf
_version_	1747834064705945600
spelling	my-utem-ep.239772022-02-16T15:53:33Z Electrical And Thermomechanical Properties Of Epoxy Filled Hybrid Covalent Treated MWCNTs/GNPs Nanocomposites 2018 Abd Aziz, Norfarhana T Technology (General) TA Engineering (General). Civil engineering (General) The investigations on electrical, mechanical and thermal properties of epoxy filled hybrid treated Multi-Walled Carbon Nanotubes (MWCNTs) and Graphene Nanoplatelets (GNPs) were reported in this research. DGEBA epoxy and hybrid MWCNTs/GNPs were respectively used as a matrix and nanofiller in developing improvement into the epoxy polymer. The properties and performances of epoxy hybrid treated MWCNTs/GNPs nanocomposites were investigated and evaluated in this works. The MWCNTs which have an inert surface characteristic are tend to agglomerate and need to be modified in lowering their viscosity of epoxy due to good dispersion of MWCNTs fillers within the matrices. Amino Propyl Triethoxy Silane (APTS) chemical was used as a medium for covalent functionalization utilizing a simplified treatment approaches. Surface treatment evaluation was done by performing a Fourier Transform Infrared Spectroscopy (FTIR) and Raman spectroscopy to further confirm the success of the covalent functionalization performed to the MWCNTs surfaces. Then, the GNPs at various filler loadings were added into the MWCNTs and become hybrid MWCNTs/GNPs. The nanocomposites samples with 0.00 wt.%, 0.25 wt.%, 0.50 wt.%, 0.75 wt% and 1.00 wt.% of GNPs loadings were tested by using various electrical, mechanical and thermal testing which are surface resistivity, permittivity, tensile test, flexural test, and DSC analysis. For electrical testing, surface resistivity shows the highest resistivity for epoxy/MWCNTs without GNPs filler while permittivity shows increment for highest GNPs filler loading. In term of mechanical testing, tensile and flexural testing result shows the improvement for epoxy hybrid MWCNTs/GNPs with 30.04% and 38.33% increament compared to the epoxy/MWCNTs without GNPs filler. The experimental results shows that the electrical, mechanical and thermal properties were significantly investigated by the covalent treatment onto the MWCNTs surfaces and addition of GNPs filler. Scanning electron microscopy (SEM) observations on the fractured surfaces shows that the properties improvement in the nanocomposites and filler dispersion as well as the matrix-filler interaction is directly interrelated with the success of covalent functionalization of MWCNTs and GNPs filler addition. 2018 Thesis http://eprints.utem.edu.my/id/eprint/23977/ http://eprints.utem.edu.my/id/eprint/23977/1/Electrical%20And%20Thermomechanical%20Properties%20Of%20Epoxy%20Filled%20Hybrid%20Covalent%20Treated%20MWCNTs-GNPs%20Nanocomposites.pdf text en public http://eprints.utem.edu.my/id/eprint/23977/2/Electrical%20And%20Thermomechanical%20Properties%20Of%20Epoxy%20Filled%20Hybrid%20Covalent%20Treated%20MWCNTs-GNPs%20Nanocomposites.pdf text en validuser https://plh.utem.edu.my/cgi-bin/koha/opac-detail.pl?biblionumber=114790 mphil masters Universiti Teknikal Malaysia Melaka Faculty Of Manufacturing Engineering 1. Abbasi E., Sedigheh F. A., Abolfazl A., Morteza M., Hamid T. N., Younes H., Kazem N. K. and Roghiyeh P. A., (2014). Dendrimers: synthesis, applications, and properties, Nanoscale Research Letters, 9(1), pp. 247-255 2. Ahmed A. M., Ahmad R., and Mohammed N. I., (2016). Mechanical and Electrical Properties of Graphene Nanoplatelets and Carbon-Nanotubes Hybrid Epoxy Nanocomposites, American Journal of Materials Science, 6(6), pp. 157-165 3. Ahmed A. M., Ahmad Ramzani S. A., Faris A. K. K., and Maysam R., (2017). Synergetic Effects of Graphene and Nonfunctionalized Carbon Nanotubes Hybrid Reinforced Epoxy Matrix on Mechanical, Thermal and Wettability Properties of Nanocomposites, American Journal of Materials Science, 7(1), pp. 1-11 4. Alaaddin C., Mustafa E. M., Ulku S., Suheyla K. and Gulnare A., (2016). Effect of Modification with Various Epoxide Compounds on Mechanical, Thermal and Coating Properties of Epoxy Resin, International Journal of Polymer Science, Volume 2016 5. Aliaksandr, V. Z., and Darren, J. L., (2015). Processes for non-destructive transfer of graphene: widening the bottleneck for industrial scale production, Royal Society of Chemistry, 7, pp. 9963-9969 6. Al-Shurman, K. M., and Naseem, H., (2014). CVD Graphene Growth Mechanism on Nickel Thin Films, The Institute for Nanoscience and Engineering 7. Anthony, J. V. F., (2012). Adhesion and Cohesion, International Journal of Dentistry, 2012:951324 8. Basu D., Das A., Stockelhuber K. W., Wagenknecht U., and Heinrich G., (2014). Advances in layered double hydroxide (ldh)-based elastomer composites, Program Polymer Science, 39(3), pp. 594-626 9. Bokobza, L. and Zhang, J., (2012). Raman spectroscopic characterization of multiwall carbon nanotubes and of composites. Express Polymer Letter Vol 6, No.7, pp. 601-608 10. Bruce, L. B., (2013). Accelaration of Amine-Cured Epoxy Resin Systems, Hunstman Corporation 11. Cheun L. H., Wei W. L., Siang P. C., Abdul Rahman M., Azizan A., Cheong S. K., Hidayah N. M. S., and Hashim U., (2017). Review of the synthesis, transfer, characterization and growth mechanisms of single and multilayer graphene, Royal Society of Chemistry, 7, pp. 15644-1569 12. Craig B., (2014). Blisters and laminate hydrolysis, Zahniser’s Yachting Center 13. Dang V. T., Nguyen V. T., Bui H. T., Nguyen V. C., Nguyen M. H., Bui T. T., Tran D. L., Dang T. T. H., Phan N. H., and Phan N. M., (2016). A Highly Efficient and Facile Approach for Fabricating Graphite Nanoplatelets, Journal of Electronic Materials, Issue 5, pp. 2522-2528 14. Dayu L., Can C., Haihua H., Yaping W., Sheng X., Beili Y., Peigang L., Bingqing L., and Honglei S., (2014). One-step hydrothermal synthesis of anatase TiO2/reduced graphene oxide nanocomposites with enhanced photocatalytic activity, Journal of Alloys and Compounds, Volume 582, pp. 236-240 15. Dimitrios G. P., Ian A. K., and Robert J. Y., (2015). Graphene/elastomer nanocomposites, Carbon, Volume 95, pp. 460-484 16. Domun N., Hadavinia H., Zhang T., Sainsbury T., Liaghat G. H., and Vahid S., (2015). Improving the fracture toughness and the strength of epoxy using nanomaterials – a review of the current status, Royal Society of Chemistry, 7, pp. 10294-10329 17. Eatemadi A., Hadis D., Hamzeh K., Mohammad K., Nosratollah Z., Abolfazl A., Mozhgan A., Younes H. and Sang W. J., (2014). Carbon nanotubes: properties, synthesis, purification, and medical applications, Nanoscale Research Letters, 9:393 18. Eloise V. H., Carla B., Rony S. and Jean F. C., (2013). Functionalization of vertically aligned carbon nanotubes, Beilstein Journal Nanotechnology, 4, pp. 129-152 19. Exarchos D. A., Dalla P. T., Tragazikis I. K., Alafogianni P., Barkoula N. M., Paipetis A. S., Dassios K. G., Matikas T. E., (2014). Thermal and electrical behavior of nano-modified cement mortar, Smart Sensor Phenomena, Technology, Networks, and Systems Integration 2014, 906212 20. Fatemeh K., Samad M. B. and Rasoul M., (2017). Optimization of cooling devices used in laser ablation setups for carbon nanotube synthesis, Journal of Laser Applications, Vol. 29, 042004 21. Francesco B., Antonio L., Tawfique H., Zhipei S., Luigi C., and Andrea C. F., (2012). Production and processing of graphene and 2d cyrstals, Materials Today, Volume 15, pp. 564-589 22. Gao J. H., Ishida N., Scott I., and Fujita D., (2012). Controllable growth of single-layer graphene on a Pd(111) substrate, Carbon, 50, pp. 1674–1680 23. Gopal, P., and Bupesh, R. V. K., (2017). Fracture Topography Investigation Of Cross Stitched and Unstitched Jute Fiber with Coconut Shell Powder/Epoxy Laminates, International Journal of Mechanical Engineering Research, Volume 7, 1, pp. 11-19 24. Guilin S., Yonggen L., Fangfang W., Changling Y., Fanlong Z., and Qilin W., (2012). Graphene oxide: The mechanisms of oxidation and exfoliation, Journal of Material Sciences, 47, pp. 4400-4409 25. Han, Z., and Fina, A., (2012). Thermal conductivity of carbon nanotubes and their polymer nanocomposites: a review, Journal Polymer Science, pp. 914-944 26. Hua Y., Chun X. L., De Q. J., and Xiang . H., (2014). Chemical Degradation of Amine-cured DGEBA Epoxy Resin in Supercritical 1-Propanol for Recycling Carbon Fiber from Composites, Chinese Journal of Polymer Science, Volume 32, 11, pp. 1550-1563 27. Humberto T., Ruitao L., Mauricio T., and Mildred S. D., (2012). The role of defects and doping in 2D graphene sheets and 1D nanoribbons, Progress in Physics, Volume 75, 6 28. Ilona P., Petru V. N., Sandra S., Christof S., and Michael M., (2016). Properties of Polymer Composites Used in High-Voltage Applications, Polymers, 8, 173 29. Irum R., Ayesha K., Zanib A. and Bakhtiar M., (2016). Exploration of Epoxy Resins, Hardening Systems and Epoxy/Carbon Nanotube Composite Designed for High Performance Materials: A Review, Polymer-Plastics Technology and Engineering, Vol. 55, No 3, pp. 312-333 30. Ismail, A. R., and Vejayakumaran, P., (2012). Synthesis of Silica Nanoparticles by Sol-Gel: Size-Dependent Properties, Surface Modification, and Applications In SilicaPolymer Nanocomposites – A Review, Journal of Nanomaterial, Volume 2012, 132424, p. 15 31. Jiacheng W., Thuc V., and Fawad I., (2015). Epoxy/graphene nanocomposites – processing and properties: a review, Royal Society of Chemistry, 5, pp. 73510-73524 32. Journet C., Picher M. and Jourdain V., (2012). Carbon nanotube synthesis: from large-scale production to atom-by-atom growth, Nanotechnology, 23 (14), p. 142001 33. Julina, P. B. S., and Joao, M. L. R., (2013). Thermal behavior of DGEBA (Diglycidyl Ether of Bisphenol A) adhesives and its influence on the strength of joints, Applied Adhesion Science, 1:6 34. Junting F., Yufei H., Yanan L., Yiyun D. and Dianging L., (2015). Supported catalysts based on layered double hydroxides for catalytic oxidation and hydrogenation: general functionality and promising application prospects, Journal Chemical Society, pp. 5291-5319 35. Kerstin M., Elodie B., Marcos L., Maria J., Yolanda E. S., Jose M. L., Oliver M., Alvise B., Steve H., Uwe B., German P., Marius J., Martina L., Zuzana S., Sara C., and Markus S., (2017). Review on the Processing and Properties of Polymer Nanocomposites and Nanocoatings and Their Applications in the Packaging, Automotive and Solar Energy Fields, Nanomaterials, 7(4):74 36. Kesong H., Dhaval D. K., Ikjun C., and Vladimir V. T., (2014). Graphene-polymer nanocomposites for structural and functional applications, Progress in Polymer Science, Volume 39, pp. 1934-1972 37. Khurram A. A., Sobia A. R., Peiheng Z., Shafi M., and Arshad M., (2015). Correlation of electrical conductivity, dielectric properties, microwave absorption, and matrix properties of composites filled with graphene nanoplatelets and carbon nanotubes, Journal of Applied Physics, 118, 044105 38. Kim M.T., Rhee K.Y., Straus D., Park S.J., and Hui D., (2012). Effects of silane-modified carbon nanotubes on flexural and fracture behaviors of carbon nanotube-modified epoxy/basalt composites. Composites, Part B 43 (2012), pp. 2298-2302 39. Kusmono, Wildan M. W., and Mohd Ishak Z. A., (2013). Preparation and Properties of Clay-Reinforced Epoxy Nanocomposites, International Journal of Polymer Science, Volume 2013, 690675, p.7 40. Kyunghee K., Yeongseon K., Jeonghoon N., Sung H. B., Dong W. P., Sang E. S., (2015). Mechanical Properties of Silica-coated Multi-walled Carbon Nanotube/Epoxy composite, Polymer, Vol. 40, pp. 117-123 41. Lazaros T., Martin K., Frank S., Edith M., Manfred S., (2014). The interphase microstructure and electrical properties of glass fibers covalently and non-covalently bonded with multiwall carbon nanotubes. Article in carbon, 73, pp. 310-324. 42. Ling, S., and Bunshi, F., (2013). Massive production of graphene oxide from expanded graphite, Graduate School of Environmental Science 43. Linna S., Xiaoliang Z., Hongping H., Qi T., and Sridhar K., (2017). Preparation of functionalized kaolinite/epoxy resin nanocomposites with enhanced thermal properties, Applied Clay Science, Volume 148, pp. 103-108 44. Long J. Y., Wen X. W., Ke K. F., Rui F. D. and Jia C. N., (2014). The Tip-Induced Twisted Bilayer Graphene Superlattice on HOPG: Capillary Attraction Effect, Department of Physics, Beijing Normal University 45. Lu Q. Q., Liu L., Xin L., Yanju L., and Jinsong L., (2016). Dynamic responses of SMA-epoxy composites and application for piezoelectric energy harvesting, Composite Structures, Volume 153, pp. 843-850 46. Lubej, M. and Plazl, L., (2012). Theoretical descriptions of carbon nanotubes synthesis in a chemical vapor deposition reactor: a review, Chemical Biochemical Engineering, 26 (3), pp. 277-284 47. Mariappan, T., and Wilkie, C. A., (2014). Flame retardant epoxy resin for electrical and electronic applications, Fire Mater, pp. 588-598 48. Maureen A., Cary J. and John D., (2012). Constituent Materials, Boston, Mass: Houghton Mifflin 49. Mayur P., Vaibhav R., and Arvind K., (2017). An overview on Carbon Nanotubes, MOJ Bioequivalence and Bioavailability, Volume 3, Issue 5 50. Md Saiful I., Reza M., and Hossein R., (2013). The Effect of Nanoparticles Percentage on Mechanical Behavior of Silica-Epoxy Nanocomposites, Journal of Nanoscience, Volume 2013, 275037, p.10 51. Meng, X., and Bo, X. D., (2016). Review of high thermal conductivity polymer dielectrics for electrical insulation, High Voltage, Volume 1, 1, pp. 34-42 52. Michael A. F., Shanshan H., Chad A. U., (2012). Natural Fiber Reinforced Composites, Journal of Polymer Reviews, Volume 52, pp. 259-32 53. Michael F.L., Sameh H. T., Ray H. B. and John H., (2013). Carbon Nanotubes: Present and Future Commercial Applications, Vol. 339, Issue 6119, pp. 535-539 54. Mohammad Jellur R., and Tetsu M., (2016). Safer Production of Water Dispersible Carbon Nanotubes and Nanotube/Cotton Composite Materials, Nanotechnology and Nanomaterials, 10.5772/62880 55. Mona A. A., Usama F. K., Neviene O. S., and Ahmed I. H., (2015). The overall effect of reactive rubber nanoparticles and nano clay on the mechanical properties of epoxy resin, Journal of Radiation Research and Applied Sciences, Volume 8, 4, pp. 549-561 56. Mou’ad, A. T., and Sahrim, H. A., (2013). Characterization and Morphology of Modified Multi-Walled Carbon Nanotubes Filled Thermoplastic Natural Rubber (TPNR) Composite, Nanotechnology and Nanomaterials, 10.5772/50726 57. Mueller N. S., Morfa A. J., Abou-Ras D., Oddone V., and Giersig M., (2014). Growing graphene on polycrystalline copper foils by ultra-high vacuum chemical vapor deposition, Carbon, 78, pp. 347-355 58. Nagarjuna R. P., Smita M., and Nayak S. K., (2014). Synthesis and Modifications of Epoxy Resins and Their Composites: A review, Journal of Polymer-Plastics Technology and Engineering, Volume 53, 16, pp. 1723-1758 59. Naheed S., Mohammad J., Othman Y. A., Paridah M. T., and Azman H., (2015). Recent advances in epoxy resin, natural fiber-reinforced epoxy composites and their applications, Journal of Reinforced Plastics and Composites, Volume 35, 6, pp. 447-470 60. Narasimharao K., Venkata R. G., Sreedhar D., and Vasudevarao V., (2016). Synthesis of Graphene Oxide by Modified Hummers Method and Hydrothermal Synthesis of Graphene-NiO Nano Composite for Supercapacitor Application, Journal of Material Sciences & Engineering, 5:28, DOI: 10.4172/2169-0022.1000284 61. Neha, A. and Sharma, N. N., (2014). Arc discharge synthesis of carbon nanotubes: Comprehensive review, Diamond and Related Materials, Vol. 50, pp. 135-150 62. Norimatsu, W., and Kusunoki, M., (2014). Epitaxial graphene on SiC{0001}: advances and perspectives, Phys. Chem. Chem. Phys., 16, pp. 3501-3511 63. Ovid, I. A., (2013). Mechanical properties of graphene, Review Advance Material Science, Volume 34, pp. 1-11 64. Pathangi H., Vereecken P. M., Klekachev A., Groesenekan G., and Witvrouw A., (2014). Quantifying the aggregation factor in carbon nanotube dispersion by apsorption spectroscopy, The Journal of Nanoscience, vol. 2014, Article ID 328627, 13 pages 65. Peerapan D., Raymond A. P., and Paisan K., (2017). Thermo-mechanical behaviors and moisture absorption of silica nanoparticle reinforcement in epoxy resin, International Journal of Adhesion and Adhesives, Volume 78, pp. 74-82 66. Pegoretti, A., and Dorigato, A., (2012). Epoxy nanocomposite adhesives, European Conference on Composite Materials, Venice, Italy 67. Peijun X., Peiliang C., Danggang L., and Xingtian Z., (2016). Toughness modification of hyperbranched polyester on epoxy asphalt, Construction and Building Materials, Volume 122, pp. 473-47 68. Phaedon, A., and Christos, D., (2012). Graphene: synthesis and applications, Materials Today, Volume 15, pp. 86-97 69. Ponnamma D., Sadasivuni K. K., Grohens Y., Guo Q., and Thomas S., (2014). Carbon nanotube based elastomer composites – an approach towards multifunctional materials, Journal Material Chemical, 2(40), pp. 8446-8485 70. Pragyan, M., (2013). A Critical Review: The Modification, Properties, and Applications of Epoxy Resins, Journal Polymer-Plastics Technology and Engineering, Volume 52, 2, pp. 107-125 71. Prochazka P., Mach J., Bischoff D., Liskova Z., Dvorak P., Vanatka ., Simonet P., Varlet A., Hemzal D., Petrenec M., Kalina L., Bartosik M., Ensslin K., Varga P., Cechal J., and Sikola T., (2014). Ultrasmooth metallic folis for growth of high quality graphene by chemical vapor deposition, Nanotechnology, 25(18):185601 72. Pu J., Wan S., Lu Z., Zhang G., Wang L., Zhang X., and Xue Q., (2013). Controlled water adhesion and electrowetting of conducting hydrophobic graphene/carbon nanotubes composite films on engineering materials, Materials Chemistry, Volume 1, pp. 1254-1260 73. Qiaolian L., Defeng Wu., Yaxin Q., Jianxiang C., Xin Y., Kunshan D., and Nengxin W., (2015). Crystallization of Poly(ϵ-caprolactone) composites with graphite nanoplatelets: Relations between nucleation and platelet thickness, Thermochimica Acta, Volume 612, pp. 25-33 74. Radwan A., Verri V., Amico M. D., and Gentili G. G., (2015). THz Nano-Array Antenna Based On a Monolayer Reflector Graphene Surface, Department of Electronic, ISBN: 9789090086286 75. Rai M. A., Faqir M. A., Muhammad I. K., Moazzam R. K., Imran P., and Muhammad N., (2013). Application of Fourier transform infrared (FTIR) spectroscopy for the identification of wheat varieties, Journal of Food Science and Technology, 50(5), pp. 1018-1023 76. Raj B. L., Shuying W., Anthony J. K., Kamran G., Jin Z., Adrian P. M., Chun H. W., (2015). Improving the thoughness and electrical conductivity of epoxy nanocomposites by using aligned carbon nanofibers, Composites Science and Technology, Vol 117, pp. 146-158 77. Rajesh P., Kuldeep P., Saraswati R., Rana R. S. and Vivek P., (2014). Carbon Nanotubes and Their Growth Methods, Procedia Materials Science, Vol. 6, pp. 716-728 78. Ramezanzadeh B., Raeisi E., and Mahdavian M., (2015). Studying various mixtures of 3-aminopropyltriethoxysilane (APS) and tetrasthylorthosilicate (TEOS) silanes on the corrosion resistance of mild steel and adhesion properties of epoxy coating, International Journal of Adhesion and Adhesives, Volume 63, pp. 166-176 79. Rao C. N. R., Urmimala M., and Ramakrishna Matte H. S. S., (2013). Synthesis, Characterization and Selected Properties of Graphene 80. Rekha, N., and Sang, O. K., (2015). Surfactant mediated liquid phase exfoliation of graphene, Nano Convergence, 2(1):20 81. Remi A., Sylvain C., Ghislain D., Bernard B., and Jean P. P., (2014). Biobased Thermosetting Epoxy: Present and Future, Chemical Reviews, 114(2), pp. 1082-1115 82. Ruchi A., Smita M., and Sanjay K. N., (2018). Comparison of mechanical, electrical and thermal properties in graphene oxide and reduced graphene oxide filled epoxy nanocomposites adhesives, Polymer, pp. 109-123 83. Sadegh, H., and Shahryari, G. R., (2015). Functionalization of carbon nanotubes and its application in nanomedicine: A review, Nanomedicine Journal, 2(4), pp. 231-248 84. Shahid, N. A., (2013). Synthesis of multi-walled carbon nanotubes and their application in resin based nanocomposites, Journal of Physics: Conference Series, 439 012009 85. Shatha H. M., Widad H. J., Intisar A. H., and Kareem A. J., (2017). Epoxy/Silicone Rubber Blends for Voltage Insulators and Capacitors Applications, Energy Procedia, Volume 119, pp. 501-506 86. Sherif A., Qingshi M., Liqun Z., Izzuddin Z., Peter M., and Jun M., (2015). Elastomeric composites based on carbon nanomaterials, Nanotechnology, 26(11), p. 112001 87. Shi X., Zhou W., Ma D., Ma Q., Bridges D., Ma Y. and Hu A., (2015). Electrospinning of Nanofibers and Their Applications for Energy Devices, Journal of Nanomaterials, 140716, 20 pages 88. Sile C., Shuai W., Yibo W., Baohong G., Guoqiang L., Zhengshi C., and Guan J. Z., (2017). Surface modification of epoxy resin using He/CF4 atmospheric pressure plasma jet for flashover withstanding characteristics improvement in vacuum, Applied Surface Science, Volume 414, pp. 107-113 89. Songlin L., Xiaoshan F., and Chaobin H., (2016). Improving the fracture toughness of epoxy with nanosilica-rubber core-shell nanoparticles, Composites Science and Technology, Volume 125, pp. 132-140 90. Subash C. S., Aneeya K. S., Jagdeep M., Bikash K. J., and Satyabrata S., (2015). Graphene: Synthesis, Properties and Application, Institute of Minerals and Materials Technology 91. Syed Nasimul A., Nidhi S., and Lailesh K., (2017). Synthesis of Graphene Oxide (GO) by Modified Hummers Method and Its Thermal Reduction to Obtain Reduced Graphene Oxide (rGO), Graphene, 6, pp. 1-18 92. Tarun, M. R., (2015). A properties of graphene, European Journal of Material Sciences, Vol.2, No.1, pp. 6-18 93. Tetsuya, Y., and Kan, K., (2017). Synthesis of composite polymer particles with carbon nanotubes and evaluation of their mechanical properties, Colloids and Surfaces A: Physicochemical and Engineering Aspects, Volume 529, pp. 765-770 94. Tushar B., Hamidreza M., Junyeon H., Thomas W. S., Jaimie S. T., Soon H. H., and Rajarshi B., (2015). Excellent strength-ductility combination in nickel-graphite nanoplatelet (GNP/Ni) nanocomposites, Journal of Alloys and Compounds, Volume 646, pp. 135-144 95. Urszula S., Bogumila K., and Barbara T., (2015). Synergy in hybrid polymer/nanocarbon composites: A review, Composites:Part A, 73, pp. 204-231 96. Van T. L., Cao L. N., Quoc T. L., Trinh T. N., Duc N. N., and Minh T. V., (2013). Surface modification and functionalization of carbon nanotube with some organic compounds, Advances in Natural Sciences: Nanoscience and Nanotechnology, Volume 4, 035017, p. 5 97. Vlassiouk I., Fulvio P., Meyer H., Lavrik N., Dai S., Datskos P., and Smirnov S., (2013). Large scale atmospheric pressure chemical vapor deposition of graphene, Carbon, 54, pp. 58-67 98. Wahadoszamen M., Arifur R., Nabil M. R. H., Aminul T., Kazi M. A., and Yusuf H. A. F. M., (2015). Laser Raman Spectroscopy with Different Excitation Sources and Extension to Surface Enhanced Raman Spectroscopy, Journal of Spectroscopy, Volume 2015, 895317, 8 99. Xiaoxing Z., Hao W., and Yunjian W., (2017). Computational Thermomechanical Properties of Silica-Epoxy Nanocomposites by Molecular Dynamic Simulation, Polymers 2017, 9, 430 100. Xingli Z., Xiaolong H., Jianxiu H., and Qingwen W., (2017). Effect of the addition of Carbon Nanomaterials on Electrical and Mechanical Properties of Wood Plastic Composites, Polymers, 9, 620 101. Xu Y. F., Zou J. F. and Jin G. J., (2013). Exotic electronic properties in Thue-Mores graphene superlattices, Journal of Physics: Condensation Matter, 25, pp. 245301-245307 102. Yankowitz M., Xue J. M., Cormode D., Sanchez J. D., Watanabe K., Taniguchi T., Jarillo H. P., Jacquod P. and Leroy B. J., (2012). Emergence of superlattice Dirac points in graphene on hexagonal boron nitride, National Physics, 8, pp. 382-386 103. Yulia P., Lyudmila A., Mykola M., Oleksandra L., Lyudmila V., and Lyudmila M., (2017). The Electrical Properties of Hybrid Composites Based on Multiwall Carbon Nanotubes with Graphite Nanoplatelets, Nanoscale Research Letters, 12:406 104. Zhang, Y.Y., and Gu, Y.T., (2013). Mechanical properties of graphene: Effects of layer number, temperature and isotope. Comput. Mater. Sci., 71, pp. 197–200. 105. Zhao B., Wen J. L., Jun S. W., Fei L., and Ya Q. L., (2016). Synthesis of a novel bridged-cyclotriphosphazene flame retardant and its application in epoxy resin, Polymer Degradation and Stability, Volume 133, pp. 162-173 106. Zheng, L., (2012). How Carbon Nanotubes be used in Mechanical Applications, Journal of Applied Mechanical Engineering, 1:3 107. Zhou J. L., Cheng C., Zhang H., Sun Z. Y., Zhu S., and Yu M. H., (2013). Dissolution behavior of polyethersulfone in diglycidyl ether of bisphenol-A epoxy resins, IOP Conf. Series: Materials Science and Engineering, 213, 012038 108. Zhou K., Liu J., Shi Y., Jiang S., Wang D., Hu Y., and Gui Z.., (2015). MoS2 nanolayers grown on carbon nanotubes: an advanced reinforcement for epoxy composites, ACS Application Material International, pp. 6070-6081 109. Zotti A., Borriello A., Ricciardi M., Antonucci V., Giordano M., and Zarrelli M., (2015). Effects of sepiolite clay on degradation and fire behavior of a bisphenol A-based epoxy, Compos, Part B. Eng ., pp. 139-148

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