Failure behavior of high density polyethyene and high impact polystyrene: An experimental study by the damage methods

Document Type : Original research

Authors

1 Laboratory of Mechanics, Engineering and Innovation, National Higher School of Electricity and Mechanics, Hassan II University of Casablanca (UH2C), Maarif Casablanca 20100, Morocco

2 Higher Institute of Maritimes Studies, Casablanca Casablanca

Abstract

This work focuses on the damage of two thermoplastic materials; high density polyethylene "(HDPE)" and high impact polystyrene "(HIPS)". The contribution of this work is to determine the lifetime of these polymers by proposing a new static method, including different notches with different opening lengths instead of depth change, to predict the damage behavior of HDPE and HIPS. Three damage models were used to predict the lifetime of these polymers by a proposed simple method compared to the old complex methods. Chemical and microscopic analyses including Fourier transform infrared spectrometry (FTIR) and scanning electron microscopy (SEM) were performed. The results indicated that the shape of the notch and the morphological nature of the polymer influence the mechanical behavior of these polymers. The proposed experimental factors (life fraction as a function of notches) are in very good agreement with the experimental results.

Keywords


  1. El Kori R (2022) Comparison of the mechanical behavior of two thermo-plastic polymers by static tests (numerically and experimentally): High-density polyethylene (HDPE) and high impact polystyrene (HIPS). Proceedings of the 4th International Conference on Networking, Information Systems & Security.
  2. El Bhilat H, Mabchour H, Salmi H, Hachim A, El Had K (2022) Experimental investigation of the influence of multi-recycling on the fracture behavior of post-consumer high impact polystyrene from disposable cups evaluated by the J-integral approach. IIUM Eng J 23: 268-281
  3. Hyde TH, Luo R, Becker AA (2007) Elastic– plastic analysis of offset indentations on unpressurised pipes. Int J Solids Struct 44: 399- 418
  4. Alekseev A, Osipchik VS, Kirichenko EA, Alekseev Jr AA (2004) Properties of blends of high-impact polystyrene HIPS-0801 with high-density polyethylene. Int Poly Sci Technol 31: 21-27
  5. Elkori R, Hachim A, Elhad K, Laamarti A (2020) Numerical simulation of HDPE behavior under V-notch. The Proceedings of the Third International Conference on Smart City Applications. Springer, Cham
  6. Elkori R, Laamarti A, Elhad K, Hachim A (2021) Numerical and experimental study of the behaviour of notched HDPE. E3S Web of Conferences 229: 10.1051/e3sconf/202122901002
  7. Tamboli SM, Mhaske ST, Kale DD (2004) Properties of high-density polyethylene filled with waste crosslinked foam. J Appl Polym Sci 91: 110-114
  8. Majid F, Elghorba M (2018) Continuum damage modeling through theoretical and experimental pressure limit formulas. Frattura ed Integrità Strutturale 12: 79-89
  9. Hu H, Dou T, Niu F, Zhang H, Su W (2019) Experimental and numerical study on CFRP-lined prestressed concrete cylinder pipe under internal pressure. Eng Struct 190: 480-492
  10. Ghafoori E, Motavalli M, Nussbaumer A, Herwig A, Prinz GS, Fontana M (2015) Determination of minimum CFRP pre-stress levels for fatigue crack prevention in retrofitted metallic beams. Eng Struct 84: 29-41
  11. Ouaomar H (2015) Etude du dommage d'une éprouvette SENT de la gaine extérieure d'un câble électrique souterrain BT H1XDVAS soumis à un essai statique. Congrès français de mécanique. AFM, Association Française de Mécanique
  12. Majid F, Elghorba M (2017) HDPE pipes failure analysis and damage modeling. Eng Fail Anal 71: 157-165
  13. Zheng X, Wang J, Chen H (2020) Burst pressures of high-density polyethylene pipes considering the notch effect: testing and prediction. J Test Eval 48: 10.1520/JTE20180185
  14. Zhang Y, Jar PB, Xue S, Li L (2019) Numerical simulation of ductile fracture in polyethylene pipe with continuum damage mechanics and Gurson-Tvergaard-Needleman damage models. Proc Inst Mech Eng L: J Mater: Des Appl 233: 2455-2468
  15. Vlase S, Marin M, Scutaru ML, Scărlătescu DD, Csatlos C (2020) Study on the mechanical responses of plastic pipes made of high density polyethylene (HDPE) in water supply network. Appl Sci 10: 1658
  16. Majid F (2017) Damage assessment of HDPE thermoplastics pipes. J Adv Res Phys 6: 021602
  17. Majid F, Elghorba M (2019) Critical lifetime of HDPE pipes through damage and reliability models. J Mech Eng Sci 13: 5228-524
  18. Majid F, Rhanim R, Ezzahi M, Elghorba M (2021) Probabilistic reliability of thermoplastic piping networks and maintenance strategy choice using Weibull distribution. Mater Des Process Commun 3: e207
  19. Majid F, Elghorba M (2017) HDPE pipes failure analysis and damage modeling. Eng Fail Anal 71: 157-165
  20. Ouardi A, Majid F, Mouhib N, Elghorba M (2018) Residual life prediction of defected polypropylene random copolymer pipes (PPR). Frattura ed Integrità Strutturale 12: 97-105
  21. Majid F, Safe M, Elghorba M (2017) Burst behavior of CPVC compared to HDPE thermoplastic polymer under a controlled internal pressure. Procedia Struct Integr 3: 380-386
  22. Vilaplana F (2007) Modelling the degradation processes in high-impact polystyrene during the first use and subsequent recycling. PhD Diss, KTH, Stockholm, Sweden
  23. Lee CB, Lu ML, Chang FC (1993) Fracture toughness of high-impact polystyrene based on three j-integral methods. J Appl Polym Sci 47: 1867-1880
  24. El-Bagory TM, Sallam HE, Younan MY (2015) Evaluation of fracture toughness behavior of polyethylene pipe materials. J Press Vessel Technol Trans ASME 137: 061402
  25. Eftekhari M, Fatemi A, Khosrovaneh A (2016) Fatigue behavior of neat and short glass fiber reinforced polymers under two-step loadings and periodic overloads. SAE Int J Mater Manuf 9: 585-593
  26. Sanada K, Mizuno Y, Shindo Y (2015) Damage progression and notched strength recovery of fiber-reinforced polymers encompassing self-healing of interfacial debonding. J Compos Mater 49: 1765-1776
  27. Ayadi W, Laiarinandrasana L, Saï K. Anisotropic (2018) Anisotropic (continuum damage mechanics)-based multi-mechanism model for semi-crystalline polymer. Int J Damage Mech 27: 357-386
  28. En-Naji A, Mouhib N, Farid H, El Ghorba M (2019) Prediction of thermomechanical behavior of acrylonitrile butadiene styrene using a newly developed nonlinear damage-reliability model. Frattura ed Integrità Strutturale 13: 748-762
  29. Sai K, Laiarinandrasana L, Naceur IB, Besson J, Jeridi M, Cailletaud G (2011) Multi-mechanism damage-plasticity model for semi-crystalline polymer: Creep damage of notched specimen of PA6. Mater Sci Eng: A 528: 1087-1093
  30. Jeridi M, Laiarinandrasana L, Sai K (2015) Comparative study of continuum damage mechanics and mechanics of porous media based on multi-mechanism model on polyamide 6 semi-crystalline polymer. Int J Solids Struct 53: 12-27
  31. Sabah F, Wahid A, Nassih F, El Ghorba M, Chakir H (2019) Prediction of the lifetime of acrylonitrile butadiene styrene (ABS), by calculation of damage by two methods: Damage based on residual stresses and damage by stages evolution. Key Eng Mater 820: 203-211
  32. Majid F, Ezzahi M, Elghorba M (2018) Energy damage approaches of artificially notched and aged thermoplastic pipes. Procedia Struct Integr 9: 229-234
  33. Nassih, FE, Wahid A, Sabah F, Chakir H, Elghorba M (2020) Reliability estimation of acrylonitrile butadiene styrene based on cumulative damage. Int J Perform Eng16: 702-710
  34. Sabah F, Wahid A, Kartouni A, Chakir H, ELghorba M (2019) Failure analysis of acrylonitrile butadiene styrene (ABS) materials and damage modeling by fracture. Int J Perform Eng 15: 2285
  • Receive Date: 31 October 2022
  • Revise Date: 14 December 2022
  • Accept Date: 04 January 2023
  • First Publish Date: 06 January 2023