Performance of Composite Structures Subjected to High Velocity Impact a Review

Enock A. Duodu
Enock A. Duodu
Jiangsu University Jiangsu University

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Performance of Composite Structures Subjected to High Velocity Impact a Review

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Abstract

In recent years, breakthrough in the development of modelling techniques and impact analysis of composite materials subjected to high velocity has been made. The study methodically reviews the modelling techniques for the structural response of composite materials under high velocity. Although, report gives numerical model as widely used method, yet experimental test is always required to validate both analytical and finite element designs. The assessment shows that all modelling methods are suitable for application based on loading conditions of the composite structure. Lastly, the reference list provides databank for future researchers and engineers on composite structure subjected to high velocity impact.

References

76 Cites in Article
  1. A Kaw (2005). Mechanics of composite materials.
  2. N Razali,Mth Sultan,F Mustapha,N Yidris,M Ishak Impact Damage on Composite Structures-A Review.
  3. Mth Sultan,S Basri,Asm Rafie,F Mustapha,D Majid,M Ajir High velocity impact damage analysis for glass epoxy-Laminated plates.
  4. C Poe,W Jackson (1993). The use of impact force as a scale parameter for the impact response of composite laminates.
  5. Michelle Fatt,Leelaprasad Palla,Dushyanth Sirivolu (2010). Modeling Blast and High-Velocity Impact of Composite Sandwich Panels.
  6. Serge Abrate (2001). Modeling of impacts on composite structures.
  7. M Alves,C Chaves,Rs ; Birch,S Castillo,S Sánchez-Sáez,C Santiuste,C Navarro,E Barbero (2013). Impact on aircraft. 8. García.
  8. R Zee,C Wang,A Mount,B Jang,C Hsieh (1991). Ballistic response of polymer composites.
  9. M Wisnom (2010). Modelling discrete failures in composites with interface elements.
  10. D Varas,R Zaera,J López-Puente (2011). Experimental study of CFRP fluid-filled tubes subjected to high-velocity impact.
  11. F Lahuerta,T Westphal,Rpl Nijssen,F Van Der Meer,L Sluys (2014). Measuring the delamination length in static and fatigue mode I tests using video image processing.
  12. Shirley García-Castillo,Sonia Sánchez-Sáez,Enrique Barbero (2012). Influence of areal density on the energy absorbed by thin composite plates subjected to high-velocity impacts.
  13. S García-Castillo,S Sánchez-Sáez,E Barbero (2012). Nondimensional analysis of ballistic impact on thin woven laminate plates.
  14. M Hosur,U Vaidya,C Ulven,S Jeelani (2004). Performance of stitched/unstitched woven carbon/epoxy composites under high velocity impact loading.
  15. Shirley Garcia-Castillo,Carlos Navarro,Enrique Barbero (2014). Damage in preloaded glass/vinylester composite panels subjected to high-velocity impacts.
  16. A Ramadhan,A Abu Talib,A Mohd Rafie,R Zahari (2013). High velocity impact response of Kevlar-29/epoxy and 6061-T6 aluminum laminated panels.
  17. H Wan,S Bai,S Li,J Mo,S Zhao,Z Song (2013). Shielding performances of the designed hybrid laminates impacted by hypervelocity flyer.
  18. Abdul Jabbar,Mumtaz Hasan Malik,Tanveer Hussain,Adeel Zulifqar,Muhammad Tausif (2014). Comparison of mechanical and ballistic performance of composite laminates produced from single‐layer and double‐layer interlocked woven structures.
  19. Alireza Sabet,Narges Fagih,Mohammad Beheshty (2011). Effect of reinforcement type on high velocity impact response of GRP plates using a sharp tip projectile.
  20. N Tarim,F Findik,H Uzun (2002). Ballistic impact performance of composite structures.
  21. F Findik,N Tarim (2003). Ballistic impact efficiency of polymer composites.
  22. M Pol,G Liaghat,F Hajiarazi (2013). Effect of nanoclay on ballistic behavior of woven fabric composites: Experimental investigation.
  23. A Combescure,Y Chuzel-Marmot,J Fabis (2011). Experimental study of high-velocity impact and fracture of ice.
  24. V Astanin,G Shchegel,W Hufenbach,A Hornig,A Langkamp (2012). Characterising failure in textile-reinforced thermoplastic composites by electromagnetic emission measurements under medium and high velocity impact loading.
  25. P Hazell,G Appleby-Thomas,G Kister (2010). Impact, penetration, and perforation of a bonded carbon-fibre-reinforced plastic composite panel by a high-velocity steel sphere: An experimental study.
  26. W Hou,F Zhu,G Lu,D-N Fang (2010). Ballistic impact experiments of metallic sandwich panels with aluminium foam core.
  27. X Zhang,Y Li (2010). On the comparison of the ballistic performance of 10% zirconia toughened alumina and 95% alumina ceramic target.
  28. M Übeyli,H Deniz,T Demir,B Ögel,B Gürel,Ö Keleş (2011). Ballistic impact performance of an armor material consisting of alumina and dual phase steel layers.
  29. D Schueler,N Toso-Pentecôte,H Voggenreiter (2011). Modeling of High Velocity Impact on Preloaded Composite Panels.
  30. U Vaidya,B Shafiq Dynamic response of navy relevant laminated and sandwich composites subjected to complex impact loads.
  31. Ara Talib,L Abbud,A Ali,F Mustapha (2012). Ballistic impact performance of Kevlar-29 and Al 2 O 3 powder/epoxy targets under high velocity impact.
  32. N Naik,S Kumar,D Ratnaveer,M Joshi,K Akella (2012). An energy-based model for ballistic impact analysis of ceramic-composite armors.
  33. N Nair,Cvs Kumar,N Naik (2013). Ballistic impact performance of composite targets.
  34. B Patel,S Bhola,M Ganapathi,D Makhecha (2004). Penetration of projectiles in composite laminates.
  35. Aidy Ali,Luay Abbud,Ara Talib,Faizal Mustapha (2012). Impact Resistance of Armor Composite Made of Kevlar29 and Al<sub>2</sub>O<sub>3</sub> Powder.
  36. A Sheikh,P Bull,J Kepler (2009). Behaviour of multiple composite plates subjected to ballistic impact.
  37. Pavani Udatha,Ch Sesha Kumar,Nithin Nair,Niranjan Naik (2012). High velocity impact performance of three-dimensional woven composites.
  38. R Mishra,Anv Kumar,S Rajesha (2014). High Velocity Impact Analysis of Kevlar Composite by MATLAB.
  39. G Ravikumar,J Pothnis,M Joshi,K Akella,S Kumar,N Naik (2013). Analytical and experimental studies on mechanical behavior of composites under high strain rate compressive loading.
  40. J Pernas-Sánchez,Artero Guerrero,J Varas,D López-Puente,J (2014). Experimental analysis of normal and oblique high velocity impacts on carbon/epoxy tape laminates.
  41. M Pol,G Liaghat,F Hajiarazi (2012). Effect of nanoclay on ballistic behavior of woven fabric composites: Experimental investigation.
  42. N Naik,A Doshi (2008). Ballistic impact behaviour of thick composites: Parametric studies.
  43. S García-Castillo,S Sánchez-Sáez,E Barbero,C Navarro (2006). Response of pre-loaded laminate composite plates subject to high velocity impact.
  44. S García-Castillo,S Sánchez-Sáez,J López-Puente,E Barbero,C Navarro (2009). Impact behaviour of preloaded glass/polyester woven plates.
  45. J Zhou,Z Guan,W Cantwell (2012). The perforation resistance of sandwich structures subjected to low velocity projectile impact loading.
  46. Msh Fatt,D Sirivolu (2010). A wave propagation model for the high velocity impact response of a composite sandwich panel.
  47. B Buitrago,C Santiuste,S Sánchez-Sáez,E Barbero,C Navarro (2010). Modelling of composite sandwich structures with honeycomb core subjected to highvelocity impact.
  48. S Feli,M Namdari Pour (2012). An analytical model for composite sandwich panels with honeycomb core subjected to high-velocity impact.
  49. M Mamivand,G Liaghat (2010). A model for ballistic impact on multi-layer fabric targets.
  50. S Feli,M Asgari (2011). Finite element simulation of ceramic/composite armor under ballistic impact.
  51. S Feli,M Yas,M Asgari (2011). An analytical model for perforation of ceramic/multi-layered planar woven fabric targets by blunt projectiles.
  52. G Liaghat,A Nia,H Daghyani,M Sadighi (2010). Ballistic limit evaluation for impact of cylindrical projectiles on honeycomb panels.
  53. J López-Puente,R Zaera,C Navarro (2007). An analytical model for high velocity impacts on thin CFRPs woven laminated plates.
  54. J Li,Y Zhang (2011). Evolution and calibration of a numerical model for modelling of hybrid-fibre ECC panels under high-velocity impact.
  55. M Maalej,S Quek,J Zhang (2005). Behavior of hybridfiber engineered cementitious composites subjected to dynamic tensile loading and projectile impact.
  56. A Prakash,J Rajasankar,N Anandavalli,M Verma,N Iyer (2013). Influence of adhesive thickness on high velocity impact performance of ceramic/metal composite targets.
  57. Yurim Park,Yunho Kim,Abrar Baluch,Chun-Gon Kim (2015). Numerical simulation and empirical comparison of the high velocity impact of STF impregnated Kevlar fabric using friction effects.
  58. J Pernas-Sánchez,J Artero-Guerrero,J Zahr Viñuela,D Varas,J López-Puente (2014). Numerical analysis of high velocity impacts on unidirectional laminates.
  59. B Wang,J Xiong,X Wang,L Ma,G-Q Zhang,L-Z Wu (2013). Energy absorption efficiency of carbon fiber reinforced polymer laminates under high velocity impact.
  60. I Ivañez,C Santiuste,E Barbero,S Sánchez-Sáez (2011). Numerical modelling of foam-cored sandwich plates under high-velocity impact.
  61. S Heimbs,T Bergmann,D Schueler,N Toso-Pentecôte (2014). High velocity impact on preloaded composite plates.
  62. Mag Silva,C Cismaşiu,C Chiorean (2005). Numerical simulation of ballistic impact on composite laminates.
  63. C Tham,Vbc Tan,H Lee (2008). Ballistic impact of a KEVLAR® helmet: Experiment and simulations.
  64. S Heimbs,T Bergmann (2012). High-velocity impact behaviour of prestressed composite plates under bird strike loading.
  65. Daniel Bürger,Alfredo Rocha De Faria,Sérgio De Almeida,Francisco De Melo,Maurício Donadon (2012). Ballistic impact simulation of an armour-piercing projectile on hybrid ceramic/fiber reinforced composite armours.
  66. Ybs Sastry,P Budarapu,Y Krishna,S Devaraj (2014). Studies on ballistic impact of the composite panels.
  67. E Sevkat,B Liaw,F Delale,B Raju (2009). A combined experimental and numerical approach to study ballistic impact response of S2-glass fiber/toughened epoxy composite beams.
  68. G Johnson,S Beissel,C Gerlach (2013). A Combined Particle-element Method for High-velocity Impact Computations.
  69. G Johnson,S Beissel,C Gerlach (2011). Another approach to a hybrid particle-finite element algorithm for high-velocity impact.
  70. G Johnson,S Beissel,C Gerlach (2015). A 3D combined particle-element method for intense impulsive loading computations involving severe distortions.
  71. D Mohotti,T Ngo,P Mendis,S Raman (2013). Polyurea coated composite aluminium plates subjected to high velocity projectile impact.
  72. Surendra Kumar,B Nageswara Rao,B Pradhan (2007). Effect of Impactor Parameters and Laminate Characteristics on Impact Response and Damage in Curved Composite Laminates.
  73. Guiping Zhao,Chongdu Cho (2004). On Impact Damage of Composite Shells by a Low-Velocity Projectile.
  74. A Ghosh,P Sinha (2004). Dynamic and impact response of damaged laminated composite plates.
  75. M Tarfaoui,P Gning,L Hamitouche (2008). Dynamic response and damage modeling of glass/epoxy tubular structures: Numerical investigation.
  76. Eun-Ho Kim,Mi-Sun Rim,In Lee,Tae-Kyung Hwang (2013). Composite damage model based on continuum damage mechanics and low velocity impact analysis of composite plates.

Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

How to Cite This Article

Enock A. Duodu. 2017. \u201cPerformance of Composite Structures Subjected to High Velocity Impact a Review\u201d. Global Journal of Research in Engineering - A : Mechanical & Mechanics GJRE-A Volume 16 (GJRE Volume 16 Issue A4).

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Journal Specifications

Crossref Journal DOI 10.17406/gjre

Print ISSN 0975-5861

e-ISSN 2249-4596

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GJRE-A Classification FOR Code: 091399
Version of record

v1.2

Issue date
February 4, 2017

Language
en
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Performance of Composite Structures Subjected to High Velocity Impact a Review

Enock A. Duodu
Enock A. Duodu <p>Jiangsu University</p>

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