AN REVIEW ON ARAMID FIBER REINFORCED COMPOSITES
Keywords:
Fiber reinforced polymer composite, Aramid fiber, Aerospace applicationsAbstract
Fiber reinforced polymer composite materials are becoming very popular and replacing conventional materials nowadays because of their excellent properties suitable for various applications a high degree of toughness and damage tolerance which leads to impact/ballistic performance. The properties of fiber reinforced polymers are comparable to most metallic materials like conventional materials. This is due to their lower density compared to the higher density in metals which leads to higher strength to weight ratio for the composites compared to that of the metallic materials. These composites are also easier to obtain desirable shape and require much less energy in making the required product. They consist of more than two constituent materials, the fiber material and the matrix material. There are number of fibers available for making composite material including synthetic as well as natural fibers. Synthetic fibers have been taken for lot of experiments whereas natural fiber is found to be less expensive and available plenty. Aramid fibers reinforced composites are used in many marine and aerospace applications where lightweight, high tensile strength, and resistance to impact damage are important. The fiber material is embedded in the matrix. In this review paper we look into the papers published taking various experiments and tests carried using mostly aramid fiber by different authors and discuss about the outlook of the various results.
Downloads
References
Mallick P K (2008), “Fiber Reinforced composites”, Third Edition.
Reis P N B Ferreira J A M Santos P Richardson M O W Santos J B (2012), “Impact response of Kevlar composites with filled epoxy matrix”, Vol. 94, 3520-3528.
Sinan Fidan Tamer Sınmazcelik, Egemen Avcu (2012), “Internal damage investigation of the impacted glass/glass+aramid fiber reinforced composites by micro-computerized tomography”, Vol. 51, 1–7.
Krystyna Imielinska Laurent Guillaumat (2004), “The effect of water immersion ageing on low-velocity impact behaviour of woven aramid–glass fibre/epoxy composites”, Composites Science and Technology, Vol. 64, 2271–2278.
Rogozinsky A K Bazhenov S L (1991), “Effect of creep on the Young's modulus of aramid fibres”, Polymer Vol. 33, No.7, Moscow.
Mcgee A C Dharan C K H Finnie I (1987), “Abrasive wear of graphite fiber-reinforced polymer composite materials”, Wear Vol.114, 97 – 107, USA.
Tewari U S Bijwe J Mathur J N Indu Sharma (1992), “Studies on abrasive wear of carbon fibre (short) Reinforced polyamide composites”, IIT, Delhi , India.
Mimaroglu A Unal H Arda T (2007), “Friction and wear performance of pure and glass fibre reinforced poly-ether-imide on polymer and steel counterface materials”, Wear Vol. 262, 1407–1413, Turkey.
Rajasekaran T Palanikumar K Vinayagam B K (2012), “Turning CFRP composites with ceramic tool for surface roughness analysis”, Procedia Engineering Vol.38, 2922 – 2929, Chennai, India.
Anne Bolvari Sherry Glenn Rob Janssen Chris Ellissa (1997), “Wear and friction of aramid fiber and polytetrafluoroethylene filled composites”, wear Vol. 203-204, 697-702, USA.
Wu J Cheng X H (2006), “The tribological properties of Kevlar pulp reinforced epoxy composites under dry sliding and -water lubricated condition”, Wear Vol. 261, 1293–1297, China.
Kukureka S N Hooke C J Rao M Liao P Chen Y K (1999), “The effect of fibre reinforcement on the friction and wear of polyamide 66 under dry rolling–sliding contact”, Tribology International Vol. 32, 107–116, UK.
Hasim Pıhtılı Nihat Tosun (2002), “Effect of load and speed on the wear behaviour of woven glass fabrics and aramid fibre-reinforced composites”, Wear Vol. 252, 979–984, Turkey.
Peter Davies Yvan Reaud Loic Dussud Patrice Woerther (2001), “Mechanical behaviour of HMPE and aramid fiber ropes for deep sea handling operations”, Ocean Engineering Vol.38, 2208–2214, France.
Jang B P Kowbel W Jang B Z (1992), “Impact behavior and impact-fatigue testing of polymer composites”, Composites Science and Technology, Vol. 44, 107-118, USA.
Hao Cen Yilan Kang Zhenkun Lei b Qinghua Qin Wei Qiub (2006), “Micromechanics analysis of Kevlar-29 aramid fiber and epoxy resin microdroplet composite by Micro-Raman spectroscopy” , Composite Structures Vol. 75, 532–538, China.
Marom G Harel H Neumann S Friedrich K Schulte K Wagner H D (1989), “Fatigue behaviour and rate dependent properties of aramid fibre/carbon fibre hybrid composites” , Composites Vol 20. No. 6, Isralei.
Briscoe B J Court R S Williams D R (1993), “The effects of fabric weave and surface texture on the interlaminar fracture toughness of aramid/epoxy laminates, Composites Science and Technology, Vol. 47, 261-270, London.
Kazuto Tanaka Kohji Minoshima Witold Grela Kenjiro Komai (2002), “Characterization of the aramid/epoxy interfacial properties by means of pull-out test and influence of water absorption”, Composites Science and Technology, Vol. 62, 2169–2177, Japan.
Krystyna Imielinska Laurent Guillaumat (2004), “The effect of water immersion ageing on low-velocity impact behaviour of woven aramid–glass fibre/epoxy composites, Composites Science and Technology, Vol. 64, 2271–2278, Poland.
Reis P N B Ferreira J A M Santos P Richardson M O W Santos J B (2012), “Impact response of Kevlar composites with filled epoxy matrix”, Composite Structures, Vol. 94, 3520–3528, Portugal.
Bennett J A Young R J (1997), “Micromechanical aspect of Fiber/Crack interaction in aramid/epoxy composites”, PII: SOZ66-3538 00023-7, UK.
Othman A R Hassan M H (2013), “Effect of different construction designs of aramid fabric on the ballistic performances”, Materials and Design,Vol. 44, 407–413, Malaysia.
Wong Y C Ruan D Sesso M L (2014), “The influence of magnetic field on ballistic performance of aramid fibre and ultrahigh molecular weight polyethylene”, Materials and Design, Vol. 64, 360–365, Australia.
Ying Wang Xiaogang Chen Robert Young Ian Kinloch Garry Wells (2015), “A numerical study of ply orientation on ballistic impact resistance of multi-ply fabric panels”, Composites: Part B, Vol. 68, 259–265, UK.
S.M.R. Khalili, M.H.Jafarkarimi , M.A.Abdollahi (1987), Creep analysis of fibre reinforced adhesives in single lap joints—Experimental study, Composites Science and Technology 28 291-314, Israel
S. Fischer and G. Marom (2009), The Flexural Behaviour of Aramid Fibre Hybrid Composite Materials, International Journal of Adhesion & Adhesives 29 656–661, Iran
M.C. Andrews, R.J. Day, A.K. Patrikis and R.J (1993), Young Deformation micromechanics in aramid/epoxy composites , Composites Vol 25. Number 7 745, UK
Masaru Mori, Yoshikimi Uyama and Yoshito Ikadat (1994), Surface modification of aramid fibre by graft polymerization , Polymer Vol 35 Number 24, Japan
X. Wang, B. Hu, Y. Feng, F. Liang, J. Mo, J. Xiong, Y. Qiu (2008), Composites Science and Technology 68 444–450, China
Huang Gu (2009), Tensile behaviours of quartz, aramid and glass filaments after NaCl treatment, Materials and Design 30 867–870, China
Zhi Sun, Xiaozhi Hu, Haoran Chen (2014), Effects of aramid-fibre toughening on interfacial fracture toughness of epoxy adhesive joint between carbon-fibre face sheet and aluminium substrate, International Journal of Adhesion & Adhesives 48 288–294, Australia