Uniaxial and biaxial ratcheting behavior of pressurized aisi 316l pipe under cyclic loading: experiment and simulation

Ratcheting defined as the progressive accumulation of plastic strain occurring during cyclic loading in the presence of the mean stress is one of the most prevalent failure modes in engineering structures. Experimental studies were conducted to characterize the uniaxial and biaxial ratcheting respon...

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Main Authors: Mosleni, N., Mozafari, F., Abdi, B., Gohari, S., Redzuan, N., Burvill, C., Ayob, A.
Format: Article
Published: Elsevier Ltd. 2020
Subjects:
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author Mosleni, N.
Mozafari, F.
Abdi, B.
Gohari, S.
Redzuan, N.
Burvill, C.
Ayob, A.
author_facet Mosleni, N.
Mozafari, F.
Abdi, B.
Gohari, S.
Redzuan, N.
Burvill, C.
Ayob, A.
author_sort Mosleni, N.
collection ePrints
description Ratcheting defined as the progressive accumulation of plastic strain occurring during cyclic loading in the presence of the mean stress is one of the most prevalent failure modes in engineering structures. Experimental studies were conducted to characterize the uniaxial and biaxial ratcheting responses of an AISI 316L pipe. Experimental results show that an obvious cyclic hardening occurs in the AISI 316L pipe under uniaxial strain loading. Uniaxial ratcheting rate obtained from the axial cyclic experiment reaches a quasi-steady rate after a certain number of loading cycles. Moreover, using a designed four-point bending experimental setup, different axial stress amplitudes in the presence of the constant hoop stress were considered to characterize the biaxial ratcheting response of the material. The ratcheting strain and ratcheting strain rate in the hoop direction increase with increasing axial stress amplitudes under the constant hoop stress. To simulate the uniaxial and biaxial ratcheting behavior of the AISI 316L pipe, the Chaboche nonlinear kinematic hardening model was used. Using the Particle Swarm Optimization (PSO) technique, parameters of the Chaboche model were identified efficiently from the monotonic response of a cold-worked sample. The elastic limit of the material was measured using a very careful quasi-static cyclic compression experiment. The procedure to calibrate the material parameters for the Chaboche model and finite element simulation results were validated well with experimental data for the AISI 316L pipe. It is shown that the Chaboche model with the suitably-calibrated parameters from the experimental study can be applied to rigorously predict the ratcheting behavior of the AISI 316L pipe under cyclic uniaxial and biaxial loading conditions.
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spelling utm.eprints-879752020-11-30T13:44:05Z http://eprints.utm.my/87975/ Uniaxial and biaxial ratcheting behavior of pressurized aisi 316l pipe under cyclic loading: experiment and simulation Mosleni, N. Mozafari, F. Abdi, B. Gohari, S. Redzuan, N. Burvill, C. Ayob, A. TJ Mechanical engineering and machinery Ratcheting defined as the progressive accumulation of plastic strain occurring during cyclic loading in the presence of the mean stress is one of the most prevalent failure modes in engineering structures. Experimental studies were conducted to characterize the uniaxial and biaxial ratcheting responses of an AISI 316L pipe. Experimental results show that an obvious cyclic hardening occurs in the AISI 316L pipe under uniaxial strain loading. Uniaxial ratcheting rate obtained from the axial cyclic experiment reaches a quasi-steady rate after a certain number of loading cycles. Moreover, using a designed four-point bending experimental setup, different axial stress amplitudes in the presence of the constant hoop stress were considered to characterize the biaxial ratcheting response of the material. The ratcheting strain and ratcheting strain rate in the hoop direction increase with increasing axial stress amplitudes under the constant hoop stress. To simulate the uniaxial and biaxial ratcheting behavior of the AISI 316L pipe, the Chaboche nonlinear kinematic hardening model was used. Using the Particle Swarm Optimization (PSO) technique, parameters of the Chaboche model were identified efficiently from the monotonic response of a cold-worked sample. The elastic limit of the material was measured using a very careful quasi-static cyclic compression experiment. The procedure to calibrate the material parameters for the Chaboche model and finite element simulation results were validated well with experimental data for the AISI 316L pipe. It is shown that the Chaboche model with the suitably-calibrated parameters from the experimental study can be applied to rigorously predict the ratcheting behavior of the AISI 316L pipe under cyclic uniaxial and biaxial loading conditions. Elsevier Ltd. 2020-08 Article PeerReviewed Mosleni, N. and Mozafari, F. and Abdi, B. and Gohari, S. and Redzuan, N. and Burvill, C. and Ayob, A. (2020) Uniaxial and biaxial ratcheting behavior of pressurized aisi 316l pipe under cyclic loading: experiment and simulation. International Journal of Mechanical Sciences, 179 . ISSN 0020-7403 http://www.dx.doi.org/10.1016/j.ijmecsci.2020.105693 DOI: 10.1016/j.ijmecsci.2020.105693
spellingShingle TJ Mechanical engineering and machinery
Mosleni, N.
Mozafari, F.
Abdi, B.
Gohari, S.
Redzuan, N.
Burvill, C.
Ayob, A.
Uniaxial and biaxial ratcheting behavior of pressurized aisi 316l pipe under cyclic loading: experiment and simulation
title Uniaxial and biaxial ratcheting behavior of pressurized aisi 316l pipe under cyclic loading: experiment and simulation
title_full Uniaxial and biaxial ratcheting behavior of pressurized aisi 316l pipe under cyclic loading: experiment and simulation
title_fullStr Uniaxial and biaxial ratcheting behavior of pressurized aisi 316l pipe under cyclic loading: experiment and simulation
title_full_unstemmed Uniaxial and biaxial ratcheting behavior of pressurized aisi 316l pipe under cyclic loading: experiment and simulation
title_short Uniaxial and biaxial ratcheting behavior of pressurized aisi 316l pipe under cyclic loading: experiment and simulation
title_sort uniaxial and biaxial ratcheting behavior of pressurized aisi 316l pipe under cyclic loading experiment and simulation
topic TJ Mechanical engineering and machinery
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