Two-dimensional (2D) fabrics and three-dimensional (3D) preforms for ballistic and stabbing protection: A review

Abstract

In this study, the impact resistance of two-dimensional (2D) fabrics and three-dimensional (3D) preforms is explained. These fabrics and preforms include 2D and 3D woven and knitted flat and circular fabrics. Various types of soft/layered structures as well as rigid composite are outlined with some design examples for ballistic and stab threats. The recent developments in nanotubes/nanofibers and shear-thickening fluids (STF) for ballistic fabrics are reviewed. The ballistic properties of single- and multi-layered fabrics are discussed. Their impact mechanism is explained for both soft vest and rigid armor applications. Analytical modeling and computational techniques for the estimation of ballistic properties are outlined. It is concluded that the ballistic/stab properties of fiber-reinforced soft and rigid composites can be enhanced by using high-strength fibers and tough matrices as well as specialized nanomaterials. Ballistic/stab resistance properties were also improved by the development of special fabric architectures. All these design factors are of primary importance for achieving flexible and lightweight ballistic structures with a high ballistic limit.

Keywords

ballistic fabrics fracture toughness impact theory multiaxis 3D fabric nanofibers

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References

Babcock

Rose

. Composite preforms. AMPTIAC Newsletter 2001; 5(1): 7–11.

Lane

. High performance fibers for personnel and vehicle armor systems. AMPTIAC Quarterly 2005; 9(2): 3–9.

Johnson A. Establishing design characteristics for the development of stab resistant Laser Sintered body armor. PhD Thesis, Loughborough University, UK, 2014.

Hearle

JWS

A new generation of fibers: Introduction. In: Hearle

JWS

(ed). High performance fibers, Cambridge: Woodhead Publishing Ltd, UK, 2001.

Raftenberg MN, Schneider M, Moynihan TJ, et al. Plain woven, 600 denier Kevlar KM2 fabric under quasi static, uniaxial tension. Army Research Laboratory. Report no. ARL-TR-3437, 2005.

Pineda E, Hogue C and Goldsmith W. Ballistic properties of zylon for application to firearm projectile protection. Army Research Laboratory. Report no. ARL-CR-529, 2003.

Grujicic

Pandurangan

Angstadt

et al.

Ballistic-performance optimization of a hybrid carbon-nanotube/E-glass reinforced poly-vinyl-ester-epoxy-matrix composite armor. J Mater Sci 2007; 42: 5347–5359.

Laible

Fibrous armor. In: Laible

(ed). Ballistic materials and penetration mechanics, New York: Elsevier Applied Science, USA, 1980.

Wikipedia Web Site, Ballistic vest (Online), http://www.wikipedia.org (accessed 2 April 2014).

10.

Avonauto Web Side, Composite armor (Online), http://www.avonauto.com (accessed 14 March 2013).

11.

Bilisik

Turhan

. Multidirectional stitched layered aramid woven fabric structures and their experimental characterization of ballistic performance. Text Res J 2009; 79: 1331–1343.

12.

Bilisik

Korkmaz

. Multilayered and multidirectional stitched aramid woven fabric structures: experimental characterization of ballistic performance by considering yarn pull-out test. Text Res J 2010; 80: 1697–1720.

13.

Rosset WS. Patterned armor performance evaluation for multiple impacts. Army Research Laboratory. Report no. ARL-TR-3038, 2003.

14.

Lee

Wetzel

Wagner

. The ballistic impact characteristics of Kevlar woven fabrics impregnated with a colloidal shear thickening fluid. J Mater Sci 2003; 38: 2825–2833.

15.

Bilisik

. Multiaxis three dimensional weaving for composites: a review. Text Res J 2012; 82: 725–743.

16.

Bilisik

Karaduman

Bilisik

. Three dimensional (3D) fully interlaced woven preforms for composites. Text Res J 2013; 83: 2060–2084.

17.

Bilisik

. Three dimensional braiding for composites: a review. Text Res J 2013; 83(13): 1414–1436.

18.

Cheeseman

Bogetti

. Ballistic impact into fabric and compliant composite laminates. Compos Struct 2003; 61: 161–173.

19.

Morner

Eeg-Olofsson

. Measurement of the shearing properties of fabrics. Text Res J 1957; 27: 611–615.

20.

Treloar

LRG

. The effect of test piece dimensions on the behavior of fabrics in shear. J Text I 1965; 56: T533–550.

21.

Kawabata

Nonlinear mechanics of woven and knitted materials. In: Chou

(eds). Textile structural composites, New York: Elsevier Science Publisher B.V, USA, 1989.

22.

Erlich

Shockey

Simons

. Slow penetration of ballistic fabrics. Text Res J 2003; 73: 179–184.

23.

Grosberg

Swani

. The mechanical properties of woven fabrics part IV: The determination of the bending rigidity and frictional restraint in woven fabrics. Text Res J 1966; 36: 338–345.

24.

Hearle

JWS

Grosberg

Backer

. Structural mechanics of fibers, yarn and fabrics, New York: Wiley Interscience Inc, 1969.

25.

. Structure and mechanics of woven fabrics, Cambridge: Woodhead Publishing Ltd, UK, 2004.

26.

Decker

Halbach

Nam

et al.

Stab resistance of shear thickening fluid (STF)-treated fabrics. Compos Sci Technol 2007; 67: 565–578.

27.

Bilisik

. Bending behavior of multilayered and multidirectional stitched aramid woven fabric structures. Text Res J 2011; 81: 1748–1761.

28.

MIL-STD-662F. V50 ballistic test for armor. In: US Army Research Laboratory, Weapons & Materials Research Directorate, Aberdeen Proving Ground, MD, 1997.

29.

Twaron Web Side, HT Twaron fibers and fabrics, http://www.twaron.com (accessed 22 March 2015).

30.

Ambade

Godbole

. Comparison of wound patterns in homicide by sharp and blunt force. Forensic Sci Int 2006; 156: 166–170.

31.

Gilchrist

Keenan

Curtis

et al.

Measuring knife stab penetration into skin simulant using a novel biaxial tension device. Forensic Sci Int 2008; 177: 52–65.

32.

Normandia

LaSalvia

Gooch

Jr et al.

Protecting the future force: Ceramics research leads to improved armor performance. AMPTIAC Quarterly 2004; 8(4): 21–27.

33.

Bratcher

Gaddy

Deitzel

. Small features enable big results: Nanotechnology research uncovers new multifunctional materials for future army systems. AMPTIAC Quarterly 2004; 8(4): 107–110.

34.

NIJ Standard-0101.06. Ballistic resistance of body armor. Washington DC, USA: United States Department of Justice Office of Justice Programs, 2008.

35.

Justnet Web Side, Ballistic test standards (Online), https://www.justnet.org/justnet.html (accessed 6 March 2016).

36.

Graves JH and Kolev H. Joint technical coordinating group on aircraft survivability inter-laboratory ballistic test program. In: Army Research Laboratory, Report no. ARL-TR-755, MD, 1995.

37.

Bilisik

. Shear characterization of para-aramid (twaron®) fabric by yarn pull-out method. Text Res J 2012; 82: 1442–1456.

38.

Bilisik

. Properties of yarn pull-out in para-aramid fabric structure and analysis by statistical model. Compos Part A-Appl S 2011; 42: 1930–1942.

39.

NIJ Standard-0115.00. Stab resistance of personal body armor. Rockville, MD, US: United State Department of Justice, Office of Justice Programs, 2000.

40.

Green

. Stab Wound dynamics – A recording technique for use in medico-legal investigations. J Forensic Sci Soc (continued as Sci Justice) 1978; 18: 161–163.

41.

Malbon

Croft

. Slash resistance standard for UK Police, London, UK: Home Office Scientific Development Branch, 2006.

42.

Gong

Zhu

. Study of the knife stab and puncture-resistant performance for shear thickening fluid enhanced fabric. J Compos Mater 2014; 48: 641–657.

43.

Johnson

Bingham

Wimpenny

. Additive manufactured textiles for high performance stab resistant applications. Rapid Proto J 2013; 19: 199–207.

44.

Timoshenko

Goodier

. Theory of elasticity, New York: McGraw-Hill Inc, 1951.

45.

Roylance

. Ballistics of transversely impacted fibers. Text Res J 1977; 47: 679–684.

46.

Roylance

Wang

Penetration mechanics of textile structures. In: Laible

(ed). Ballistic materials and penetration mechanics, New York: Elsevier Applied Science, 1980.

47.

Duan Y, Keefe M, Bogetti TA, et al. Modeling the impact behavior of high-strength fabric structures. In: Fiber Society Annual Technical Conference Natick, Massachusetts, 2002.

48.

Phoenix SL and Zhou R. Effects of crimp and slip on laminar and woven fabrics subjected to ballistic impact. In: Final Report Document submitted to U.S. Department of Justice National Institute of Justice, MD, 2013.

49.

Shokrieh

Javadpour

. Penetration analysis of a projectile in ceramic composite armor. Compos Struct 2008; 82(2): 269–276.

50.

Chadwick

Nicol

Lane

et al.

Biomechanics of knife stab attacks. Forensic Sci Int 1999; 105: 35–44.

51.

Bleetman

Watson

Horsfall

et al.

Wounding patterns and human performance in knife attacks: Optimizing the protection provided by knife-resistant body armor. J Clin Forensic Med 2003; 10: 243–248.

52.

Yang

. Kevlar aramid fiber, New York: John Wiley & Sons Ltd, 1993.

53.

Wallenberger

Watson

. Glass fibers, Ohio: ASM Handbook composites, 2001.

54.

Donnet

Bansal

. Carbon fibers, New York: Marcel Dekker Inc, 1990.

55.

Buckley

Edie

. Carbon-carbon materials and composites, New Jersey: Noyes Publications, 1993.

56.

Wallenberger

Structural silicate and silica glass fibers. In: Wallenberger

(ed). Advanced inorganic fibers processes, structures, properties, applications, Amsterdam: Kluwer Academic Publishers, 1999.

57.

Bilisik

Karaduman

Bilisik

Erman. Applications of braided structures in transportation. In: Rana

Fangueiro

(eds). Braided structures and composites: Production, properties, mechanics and technical applications, New York: CRC Press-Taylor and Francis Publishing Group LLC, 2015.

58.

David

Gao

Zheng

. Ballistic resistant body armor: Contemporary and prospective materials and related protection mechanisms. Appl Mech Rev 2009; 62: 50802–50822.

59.

Srivastava

Majumdar

Butola

. Improving the impact resistance of textile structures by using Shear Thickening Fluids: A Review. Crit Rev Solid State 2012; 37: 115–129.

60.

Dupont Web Side, Kevlar fibers and fabrics (Online). http://www.dupont.com (accessed 22 April 2015).

61.

Harpell GA, Palley I, Kavesh S and Prevorsek, DC. Ballistic resistant fine weave fabric article. Patent 4737401, USA, 12 April 1988.

62.

Khan

Kim

. Impact and delamination failure of multiscale carbon nanotube-fiber reinforced polymer composites: A review. Int J Aero Space Sci 2011; 12: 115–133.

63.

Thostenson

Ren

Chou

. Advances in the science and technology of carbon nanotubes and their composites: a review. Compos Sci Technol 2001; 61: 1899–1912.

64.

Al-Saleh

Sundararaj

. Review of the mechanical properties of carbon nanofiber/polymer composites. Compos Part A-Appl S 2011; 42: 2126–2142.

65.

Bilisik

Yolacan

. Warp and weft directional tensile properties of multistitched woven fabric E-glass/polyester nano composites. Fiber Polym 2014; 15: 1051–1061.

66.

Reneke

Chun

. Nanometre diameter fibres of polymer produced by electrospinning. Nanotechnology 1996; 7: 216–223.

67.

Bilisik

Karaduman

Bilisik

Fibre architectures for composite applications. In: Fangueiro

Rana

(eds). Fibrous and textile materials for composite applications, Singapore: Springer Science+Business Media, 2016.

68.

Bhatnagar A and Parrish ES. Bidirectional and multiaxial fabric and fabric composites. Patent 7073538, USA, 11 July 2006.

69.

Hamada

Ramakrishna

Huang

Knitted fabric composites, 3D textile reinforcements in composite materials. In: Miravete

(ed). 3-D textile reinforcements in composite materials, Cambridge: Woodhead Publishing Ltd, 1999.

70.

Padaki

Alagirusamy

Sugun

. Knitted preforms for composite applications. J Ind Text 2006; 35: 295–321.

71.

Technische Universitat Dresden Web Side. 2015. 3D weft knitting machine (Online), http://tudresden.de/die_tu_dresden/fakultaeten/fakultaet_maschinenwesen/itm/forschung/forschungsthemen/gl_gestrick (accessed 20 March 2015).

72.

Cebulla

Diestel

Offermann

. Fully fashioned biaxial weft knitted fabrics. AUTEX Res J 2002; 2: 8–13.

73.

Gehring GG and Reisfeld A Jr. Pointed thrust weapons protective fabric system. Patent 6233978, USA, 22 May 2001.

74.

Albrecht

Fuchs

Kittelmann

Web bonding. In: Kittelmann

(ed). Nonwoven fabrics: Raw materials, manufacture, applications, characteristics, testing processes, Weinheim: Wiley Inc, 2003.

75.

Stanford University Web Side. 2015. Advanced nonwoven structure (online), https://micromechanics.stanford.edu/advanced-homogenization-techniques-soft-matter-materials (accessed 20 March 2015).

76.

Bilisik

Yolacan

. Experimental characterization of multistitched two dimensional (2D) woven e-glass/polyester composites under low velocity impact load. J Compos Mater 2014; 48: 2145–2162.

77.

Bilisik

Yolacan

. Short beam strength properties of multistitched biaxial woven E-glass/polyester nano composites. J Ind Text 2015; 45: 199–221.

78.

Bilisik

Karaduman

Bilisik

. Three-dimensional circular various weave patterns in woven preform structures. Text Res J 2014; 84(6): 638–654.

79.

Bilisik

. Dimensional stability of multiaxis 3D woven carbon preform. J Text I 2010; 101: 380–388.

80.

Bilisik

. Multiaxis three dimensional (3D) circular woven preforms – “Radial crossing weaving” and “Radial in-out weaving”: Preliminary investigation of feasibility of weaving and methods. J Text I 2010; 101(11): 967–987.

81.

Bilisik

Sahbaz

. Structure-unit cell base approach on three dimensional (3D) representative braided preforms from 4-step braiding: Experimental determination of effect of structure-process parameters on predetermined yarn path. Text Res J 2012; 82: 220–241.

82.

Bilisik

. Three dimensional (3D) axial braided preforms: Experimental determination of effects of structure-process parameters on unit cell. Text Res J 2011; 81: 2095–2116.

83.

Wilkens C. Warp knitted ware with reinforcing thread. Patent 4518640, USA, 21 May 1985.

84.

Wunner R. Apparatus for laying transverse weft threads for a warp knitting machine. Patent 4872323, USA, 10 October 1989.

85.

Ciobanu

Development of 3D knitted fabrics for advanced composite materials. In: Attaf

(ed). Advances in composite materials – Eco design and analysis, Rijeka: InTech Open, 2011.

86.

3D textile reinforcements in composite materials. In: Miravete

(ed). 3-D textile reinforcements in composite materials, Cambridge: Woodhead Publishing Ltd, 1999.

87.

Yilmaz B. Characterization and development of aramid/shear thickening fluid (STF) ballistic structures. PhD Thesis, Erciyes University, Kayseri, TR, 2013.

88.

Tan

VBC

Tay

Teo

. Strengthening fabric armor with silica colloidal suspensions. Int J Solids Struct 2005; 42: 1561–1576.

89.

Lee

Wagner

. Dynamic properties of shear thickening colloidal suspensions. Rheol Acta 2003; 42(3): 199–208.

90.

Brown

Forman

Orellana

et al.

Generality of shear thickening in dense suspensions. Nature Mater 2010; 9: 220–224.

91.

Wagner

Brady

. Shear thickening in colloidal dispersions. Physics Today 2009; 62(10): 27–32.

92.

Bilisik K. Introduction to ballistic fabrics. MSc Course notes, Ege University, Izmir, TR, 2004.

93.

Nadler

Papadopoulos

Steigmann

. Multi-Scale constitutive modeling and numerical simulation of fabric material. Int J Solids Struct 2006; 43: 206–221.

94.

Hogg PJ. 2003. Composites for ballistic applications (Online), http://www.composites-procassoc.co.uk/view.php?pid=24 (accessed 9 April 2016).

95.

Tan

VBC

Lim

Cheong

. Perforation of high-strength fabric by projectiles of different geometry. Int J Impact Eng 2003; 28(2): 207–222.

96.

Prosser

. Penetration of nylon ballistic panels by fragment-simulating projectiles. Part I: A linear approximation to the relationship between the V₅₀ or V_c striking velocity and the number of layers of cloth in the ballistic panel. Text Res J 1988; 58: 61–85.

97.

Yang

Shim

VPW

. An analysis of stress uniformity in split hopkinson bar test specimens. Int J Impact Eng 2005; 31: 129–150.

98.

Cunniff

. An analysis of the system effects in woven fabrics under ballistic impact. Text Res J 1992; 62: 495–509.

99.

Chitrangad H. Hybrid ballistic fabric. Patent 5187003, USA, 16 February 1993.

100.

Livermore Software Technology Corporation, LS-DYNA Version 970, Keyword User’s Manual, 2003.

101.

Bazhenov

. Dissipation of energy by bulletproof aramid fabric. J Mater Sci 1997; 32: 4167–4173.

102.

Chu

Chen

Sheel

et al.

Surface modification of aramid fibres by atmospheric pressure plasma-enhanced vapor deposition. Text Res J 2014; 84: 1288–1297.

103.

Chu

Chen

Wang

et al.

An investigation on sol-gel treatment to aramid yarn to increase inter-yarn friction. Appl Surf Sci 2014; 320: 710–717.

104.

Chu Y. Surface modification to aramid and UHMWPE fabrics to increase inter-yarn friction for improved ballistic performance. PhD Thesis, School of Materials, University of Manchester, Manchester, UK, 2015.

105.

Duan

Keefe

Bogetti

. Modeling friction effects on the ballistic impact behaviour of a single-ply high-strength fabric. Int J Impact Eng 2005; 31: 996–1012.

106.

Rebouillat

. Tribological properties of woven para-aramid fabrics and their constituent yarns. J Mater Sci 1998; 33: 3293–3301.

107.

Briscoe

Motamedi

. The ballistic impact characteristics of aramid fabrics: the influence of interface friction. Wear 1992; 158: 229–247.

108.

Zhu

Soranakom

Mobasher

et al.

Experimental study and modeling of single yarn pull-out behavior of Kevlar 49 fabric. Compos Part A-Appl S 2011; 42: 868–879.

109.

Dong

Sun

. Testing and modeling of yarn pull-out in plain woven Kevlar fabrics. Compos Part A-Appl S 2009; 40: 1863–1869.

110.

Duan

Kefe

Bogetti

et al.

A numerical investigation of the influence of friction on energy absorption by a high-strength fabric subjected to ballistic impact. Int J Impact Eng 2006; 32: 1299–1312.

111.

Wilde

Rogers

Roylance

. Photographic investigation of high speed missile impact upon nylon fabric: Part 1- energy absorption and cone radial velocity in fabric. Text Res J 1973; 43: 753–761.

112.

Cheng

Chen

Weerasooriya

. Experimental investigation of the transverse mechanical properties of a single Kevlar KM2 fiber. Int J Solids Struct 2004; 41: 6215–6232.

113.

Bilisik

Korkmaz

. Single and multiple yarn pull-outs on aramid woven fabric structures. Text Res J 2011; 81: 847–864.

114.

Bilisik

. Stick-slip behavior of Para-Aramid (Twaron®) fabric in yarn pull-out. Text Res J 2013; 83: 13–33.

115.

Tan

VBC

Shim

VPW

Zeng

. Modeling crimp in woven fabrics subjected to ballistic impact. Int J Impact Eng 2005; 32: 561–574.

116.

Zhang

Batra

Zheng

. Effect of frame size, frame type, and clamping pressure on the ballistic performance of soft body armor. Compos Part B 2008; 39: 476–489.

117.

Wang

Xia

. Experimental and theoretical study on the strain rate and temperature dependence of mechanical behavior of Kevlar fiber. Compos Part A – Appl S 1999; 30: 1251–1257.

118.

Prosser

Cohen

Segars

. Heat as a factor in the penetration of cloth ballistic panels by 0.22 caliber projectiles. Text Res J 2000; 70: 709–722.

119.

Prevorsek

Kwon

Chin

. Analysis of the temperature rise in the projectile and extended chain polyethylene fiber composite armor during ballistic impact and penetration. Polym Eng Sci 1994; 34: 141–152.

120.

Tabiei

Nilakantan

. Ballistic impact of dry woven fabric composites: A review. Appl Mech Rev 2008; 61: 10801–10813.

121.

Lim

Tan

VBC

Cheong

. Perforation of high-strength double-ply fabric system by varying shaped projectiles. Int J Impact Eng 2002; 27: 577–591.

122.

Montgomery

Grady

Tomasino

. The effects of projectile geometry on the performance of ballistic fabrics. Text Res J 1982; 52: 442–450.

123.

Gower

Cimpoeru

Cronin

et al.

Ballistic impact response of laminated composite panels. Int J Impact Eng 2008; 35: 1000–1008.

124.

Naik

Shrirao

. Composite structures under ballistic impact. Compos Struct 2004; 66: 579–590.

125.

Gellert

Cimpoeru

Woodward

. A study of the effect of target thickness on the ballistic perforation of glass-fiber-reinforced plastic composites. Int J Impact Eng 2000; 24: 445–456.

126.

Sadegh AM and Cavallaro PV. Crimp-imbalanced protective (CRIMP) fabrics: An analytical investigation into the relationship between crimp contents, energy absorption, and fabric ballistic performance. NUWC-NPT Technical Report 11970, RI, 2010.

127.

Field JE and Sun Q. A high speed photographic study of impact on fibers and woven fabrics. In: Proceedings of the 19th International Congress on High Speed Photography and Photonics by the international society for optical engineering (SPIE), Part 2, Cambridge, England, 16–21 September 1990, pp.703–712.

128.

Scott BR. The penetration of compliant laminates by compact projectiles. In: Proceedings of the 18th International Symposium on Ballistics, San Antonio, Texas, USA, 15–19 November 1999. Lancaster, USA: Technomic Pub. Co.

129.

Udatha

Kumar

CVS

Nair

et al.

High velocity impact performance of three dimensional woven composites. J Strain Anal Eng Design 2012; 47: 419–431.

130.

Bilisik

. Experimental determination of ballistic performance of newly developed multiaxis non-interlaced/non-Z E-glass/polyester and 3D woven carbon/epoxy composites with soft backing aramid fabric structures. Text Res J 2011; 81: 520–537.

131.

Mohd

Ahmad

WYW

Salleh

et al.

Effect of fabric stitching on ballistic impact resistance of natural rubber coated fabric systems. Mater Design 2008; 29: 1353–1358.

132.

Walker JD. Ballistic limit of fabrics with resin. In: Proceedings of the 19th International Symposium on Ballistics, Interlaken, Switzerland, 7–11 May 2001. Thun: IBS 2001 Symposium Office.

133.

Cunniff PM. Decoupled response of textile body armor. In: Proceedings of the 18th International Symposium on Ballistics, San Antonio, Texas, USA, 15–19 November 1999, pp.814–821. Lancaster, Penn: Technomic Pub. Co.

134.

Egres RG, Decker MJ, Halbach CJ, et al. Stab resistance of shear thickening fluid STF–Kevlar composites for body armor applications. In: Proceedings of the 24th Army Science Conference, Orlando, FL, 29 November–2 December 2004. Arlington VA: US Army.

135.

Singletary

Bogdanovich

. 3D orthogonal woven soft body armor. J Ind Text 2000; 29: 287–305.

136.

Bilisik K. Multiaxis 3D woven fabrics for composites. In: Proceedings of the I. International Technical Textiles Conference Organised by Dokuz Eylül University, Izmir, TR, 11–12 October 2002, Dokuz Eylül University Press, Buca, Izmir.

137.

Mylvaganam

Zhang

. Ballistic resistance capacity of carbon nanotubes. Nanotechnology 2007; 18: 475701–475704.

138.

Koziol

Vilatela

Moisala

et al.

High performance carbon nanotube fiber. Science 2007; 318: 1892–1895.

139.

Grujicic

Bell

Biggers

et al.

The effect of a carbon-nanotube forest-mat strike face on the ballistic-protection performance of E-glass reinforced poly-vinyl-ester-epoxy composite armor. Proc. IMechE Part L: J Mater Design Appl 2008; 222: 15–27.

140.

Meguid

Sun

. On the tensile and shear strength of nano-reinforced composite interfaces. Mater Design 2004; 25: 289–296.

141.

Baughman

Zakhidov

de Heer

. Carbon nanotubes-the route toward applications. Science 2002; 297: 787–792.

142.

Vlasvelda

DPN

Bersee

HEN

Picken

. Nanocomposite matrix for increased fibre composite strength. Polymer 2005; 46: 10269–10278.

143.

Wichmann

MHG

Sumfleth

Gojny

et al.

Glass-fibre-reinforced composites with enhanced mechanical and electrical properties – benefits and limitations of a nanoparticle modified matrix. Eng Fract Mech 2006; 73: 2346–2359.

144.

Wichmann

MHG

Schulte

Wagner

. On nanocomposite toughness. Compos Sci Technol 2008; 68: 329–331.

145.

Horsfall I. Stab resistant body armor. PhD Thesis, Cranfield University, UK, 2000.

146.

Shewchenko N and Baines D. Characterization of weapons used in stab attacks – Phase II: Surrogate development. The U.S. Department of Justice, Document No. 249551, MD, USA, 2015.

147.

Reiners P, Kyosev Y, Schacher L, et al. Experimental investigation of the influence of wool structures on the stab resistance of woven body armor panels. Text Res J. 2016; 86: 685–695.

148.

Tien

Kim

Huh

. Stab-resistant property of the fabrics woven with the aramid/cotton core-spun yarns. Fiber Polym 2010; 11: 500–506.

149.

Govarthanam

Anand

Rajendran

. Development of advanced personal protective equipment fabrics for protection against slashes and pathogenic bacteria Part 1: Development and evaluation of slash-resistant garments. J Ind Text 2010; 40: 139–155.

150.

Miao

Jiang

Kong

et al.

Experimental investigation on the stab resistance of warp knitted fabrics. FIBRES TEXT East Eur 2014; 22: 65–70.

151.

Dow NF. Triaxial fabric. Patent 3446251, USA, 27 May 1969.

152.

El-Messiry

Eltahan

. Stab resistance of triaxial woven fabrics for soft body armor. J Ind Text 2016; 45: 1062–1082.

153.

Suhaimi

Salleh

Ahmad

et al.

Puncture resistance of Twaron fabric layers with different stitching patterns. Int J Text Sci 2012; 1: 44–48.

154.

Hassim

Ahmad

WYW

et al.

Puncture resistance of natural rubber latex unidirectional coated fabrics. J Ind Text 2012; 42: 118–131.

155.

Leonowicz

Kozłowska

Wierzbicki

et al.

Rheological fluids as a potential component of textile products. FIBRES TEXT East Eur 2014; 22: 28–33.

156.

Olszewska

Polak

Zielińska

et al.

Textile composites with magnetorheological fluids for potential application in multi-threat protections: Preliminary stab-resistance studies. FIBRES TEXT East Eur 2013; 21: 112–116.

157.

Wang

Zhang

Gao

et al.

FEM analysis of knife penetration through woven fabrics. Computer Modeling Eng Sci 2007; 20: 11–20.

158.

Kejing Yu, Haijian Cao, Qian K, et al. Synthesis and stab resistance of shear thickening fluid (STF) impregnated glass fabric composites. FIBRES TEXT East Eur 2012; 20(6A): 126–128.

159.

Mahfuz

Clements

Rangari

et al.

Enhanced stab resistance of armor composites with functionalized silica nanoparticles. J Appl Phys 2009; 105: 064307(1)–064307(11).

160.

Rao H, Hosur MV, Mayo J Jr, et al. Stab characterization of hybrid ballistic fabrics. In: Proceedings of the SEM Annual Conference, Albuquerque, New Mexico, USA, 1–4 June 2009. Bethel, CT, USA: The Society for Experimental Mechanics.

161.

Lomov SV. Oblique high velocity impact on a textile woven target: Mathematical simulation. In: Proceedings of Personal Armor System Symposium, Colchester, UK, 3–6 September 1996. Colchester, UK: Defence Clothing and Textiles Agency.

162.

Taylor

Vinson

. Modeling ballistic impact into flexible materials. AIAA J 1990; 28: 2098–2103.

163.

Shockey DA, Erlich DC and Simons JW. Improved barriers to turbine engine fragments. In: Report No. DOT/FAA/AR- 99/8, V, Office of Aviation Research, Washington, DC, 2002.

164.

Roggin S. Protective garment. Patent 4079464, USA, 21 March 1979.

165.

Shockey DA, Erlich DC and Simons JW. Improved Barriers to Turbine Engine Fragments. In: Report No. DOT/FAA/AR- 99/8, III, Office of Aviation Research, Washington, DC, 2004.

166.

Bilisik A. Multiaxial three dimensional (3D) circular woven fabric. Patent 6129122, USA, 10 October 2000.

167.

Armellino RA. Lightweight armor and method of fabrication. Patent 3971072, USA, 27 July 1976.

168.

Morgan JL. Protective armor with panels movable with respect to each other. Patent 4090005, USA, 16 May 1978.

169.

Armellino RA and Armellino SE. Ballistic material for flexible body armor and the like. Patent 4522871, USA, 11 June 1985.

170.

Dunbavand IE. Flexible armor. Patent 4608717, USA, 2 September 1986.

171.

Zufle TT. Reinforced soft and hard body. Patent 5179244, USA, 12 January 1993.

172.

Dischler L. Bullet resistant fabric and method of manufacture. Patent 5225241, USA, 6 July 1993.

173.

Leach J. Ballistic vests. Patent 4287607, USA, 8 September 1981.

174.

Lundblad WE, Dixon C and Ohler HC. Ballistic resistant article comprising a three dimensional interlocking woven fabric. Patent 5456974, USA, 10 October 1985.

175.

Mohamed MH and Parker G. Ballistic protective wear for female torso. Patent 6281149, USA, 28 August 2001.

176.

Tapie

Guo

Shim

VPW

. Yarn mobility in woven fabrics – a computational and experimental study. Int J Solids Struct 2016; 80: 212–226.

177.

Wetzel

Kirkwood

. Yarn pull-out as a mechanism for dissipating ballistic impact energy in Kevlar KM-2 fabric, Part I: Quasi-static characterization of yarn pull-out. Text Res J 2004; 74: 920–928.

178.

Sickinger C and Herrmann A. Structural stitching as a method to design high-performance composites in future. In: 11th International Techtextil-Symposium for Technical Textiles, Nonwovens and Textile-Reinforced Materials, Frankfurt, Germany, 23–26 April 2001. Germany: Messe Frankfurt.