Modelling creep responses of plantain fibre reinforced HDPE (PFRHDPE) for elevated temperature applications

The growth in applications of Plantain Fibre Reinforced HDPE (PFRHDPE) has increased the importance of understanding the time-dependent viscoelastic properties such as creep resistance. This study focused on the determination of creep behaviour of a novel PFRHDPE designed for elevated temperatures a...

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Main Authors: Christopher Chukwutoo Ihueze, Christian Emeka Okafor, Uchendu Onwusoronye Onwurah, Sylvester Nnaemeka Obuka, Queeneth Adesuwa Kingsley-omoyibo
Format: Article
Language:English
Published: KeAi Communications Co., Ltd. 2023-01-01
Series:Advanced Industrial and Engineering Polymer Research
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S2542504822000215
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author Christopher Chukwutoo Ihueze
Christian Emeka Okafor
Uchendu Onwusoronye Onwurah
Sylvester Nnaemeka Obuka
Queeneth Adesuwa Kingsley-omoyibo
author_facet Christopher Chukwutoo Ihueze
Christian Emeka Okafor
Uchendu Onwusoronye Onwurah
Sylvester Nnaemeka Obuka
Queeneth Adesuwa Kingsley-omoyibo
author_sort Christopher Chukwutoo Ihueze
collection DOAJ
description The growth in applications of Plantain Fibre Reinforced HDPE (PFRHDPE) has increased the importance of understanding the time-dependent viscoelastic properties such as creep resistance. This study focused on the determination of creep behaviour of a novel PFRHDPE designed for elevated temperatures applications. The creep responses of PFRHDPE were experimentally determined in line with ASTM D2290 and modelled for elevated temperature applications using the classical creep models, classical viscoelastic models and the time temperature superposition approach. Creep strain, creep stress, creep modulus and creep stress relaxation were modelled and analyzed. The PFRHDPE exhibited the characteristic of the unrelaxed and relaxed moduli of material to accommodate applications at elevated temperatures. The superposition method showed PFRHDPE to have moduli of 66 MPa and 2.26 MPa for one year and fifty years of operations respectively. The relaxation stresses were also evaluated as 9.24 MPa, 9.15 MPa and 12.96 MPa for the conditions investigated showing the new material as able to accommodate the constant loads of 25 MPa and 35 MPa under the elevated temperatures of 30 °C and 60 °C.
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spelling doaj.art-f5c7c978194a4c7292e6775f8e99752d2023-01-13T04:16:45ZengKeAi Communications Co., Ltd.Advanced Industrial and Engineering Polymer Research2542-50482023-01-01614961Modelling creep responses of plantain fibre reinforced HDPE (PFRHDPE) for elevated temperature applicationsChristopher Chukwutoo Ihueze0Christian Emeka Okafor1Uchendu Onwusoronye Onwurah2Sylvester Nnaemeka Obuka3Queeneth Adesuwa Kingsley-omoyibo4Department of Industrial and Production Engineering, Nnamdi Azikiwe University, Awka, NigeriaDepartment of Mechanical Engineering, Nnamdi Azikiwe University, Awka, Nigeria; Corresponding author. Department of Mechanical Engineering, Nnamdi Azikiwe University, Awka, Nigeria.Department of Industrial and Production Engineering, Nnamdi Azikiwe University, Awka, NigeriaDepartment of Mechanical/Production Engineering, Enugu State University of Science and Technology, Enugu, NigeriaDepartment of Mechanical Engineering, College of Engineering, Igbinedion University Okada, Okada, NigeriaThe growth in applications of Plantain Fibre Reinforced HDPE (PFRHDPE) has increased the importance of understanding the time-dependent viscoelastic properties such as creep resistance. This study focused on the determination of creep behaviour of a novel PFRHDPE designed for elevated temperatures applications. The creep responses of PFRHDPE were experimentally determined in line with ASTM D2290 and modelled for elevated temperature applications using the classical creep models, classical viscoelastic models and the time temperature superposition approach. Creep strain, creep stress, creep modulus and creep stress relaxation were modelled and analyzed. The PFRHDPE exhibited the characteristic of the unrelaxed and relaxed moduli of material to accommodate applications at elevated temperatures. The superposition method showed PFRHDPE to have moduli of 66 MPa and 2.26 MPa for one year and fifty years of operations respectively. The relaxation stresses were also evaluated as 9.24 MPa, 9.15 MPa and 12.96 MPa for the conditions investigated showing the new material as able to accommodate the constant loads of 25 MPa and 35 MPa under the elevated temperatures of 30 °C and 60 °C.http://www.sciencedirect.com/science/article/pii/S2542504822000215Viscoelastic modelCreep responsesPlantain fibreHigh density poly ethylene (HDPE)Relaxation modulusRelaxation stress
spellingShingle Christopher Chukwutoo Ihueze
Christian Emeka Okafor
Uchendu Onwusoronye Onwurah
Sylvester Nnaemeka Obuka
Queeneth Adesuwa Kingsley-omoyibo
Modelling creep responses of plantain fibre reinforced HDPE (PFRHDPE) for elevated temperature applications
Advanced Industrial and Engineering Polymer Research
Viscoelastic model
Creep responses
Plantain fibre
High density poly ethylene (HDPE)
Relaxation modulus
Relaxation stress
title Modelling creep responses of plantain fibre reinforced HDPE (PFRHDPE) for elevated temperature applications
title_full Modelling creep responses of plantain fibre reinforced HDPE (PFRHDPE) for elevated temperature applications
title_fullStr Modelling creep responses of plantain fibre reinforced HDPE (PFRHDPE) for elevated temperature applications
title_full_unstemmed Modelling creep responses of plantain fibre reinforced HDPE (PFRHDPE) for elevated temperature applications
title_short Modelling creep responses of plantain fibre reinforced HDPE (PFRHDPE) for elevated temperature applications
title_sort modelling creep responses of plantain fibre reinforced hdpe pfrhdpe for elevated temperature applications
topic Viscoelastic model
Creep responses
Plantain fibre
High density poly ethylene (HDPE)
Relaxation modulus
Relaxation stress
url http://www.sciencedirect.com/science/article/pii/S2542504822000215
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