Numerical estimation of rolling load and torque for hot flat rolling of Hcss316 at low strain rates based on mean temperature

Numerical estimation of rolling load and torque often showed large discrepancies when compared with experimental values. This was attributed to difficulty in estimating the mean rolling temperature from the available data. This work is thus directed at obtaining a good estimate for the mean rolling...

Full description

Bibliographic Details
Main Authors: Sadiq, T. O., Fadara, T. G., Aiyedun, Aiyedun, Idris, J.
Format: Article
Published: Trans Tech Publications Ltd. 2016
Subjects:
_version_ 1796861701936644096
author Sadiq, T. O.
Fadara, T. G.
Aiyedun, Aiyedun
Idris, J.
author_facet Sadiq, T. O.
Fadara, T. G.
Aiyedun, Aiyedun
Idris, J.
author_sort Sadiq, T. O.
collection ePrints
description Numerical estimation of rolling load and torque often showed large discrepancies when compared with experimental values. This was attributed to difficulty in estimating the mean rolling temperature from the available data. This work is thus directed at obtaining a good estimate for the mean rolling temperature which can effectively be used for load and torque estimates. Hot flat rolling stimulation by use of the Bland and Ford's cold rolling (HRBF) theory confirmed the reverse sandwich effect in selected carbon steels at low strain rates. In this work, the effect of pass reduction on rolling temperature distribution, yield stress and rolling load were studied for AISI Type 316 stainless steel (HSCSS316). For this new simulation, at low and high strain rates, results showed that the ratio of experimental to calculated rolling load and torque were higher at lower reduction than at higher reduction. These results confirmed excess load and torque in the hot rolling of HSCSS316 low reductions. The results obtained from Hot Rolling Bland and Ford's Theory based on Root Mean Square rolling temperature were in good agreement with values obtained using Reverse Sandwich Model and the Reverse Sandwich- Hot Rolling Bland and Ford's Program under the same rolling conditions.
first_indexed 2024-03-05T20:00:25Z
format Article
id utm.eprints-70075
institution Universiti Teknologi Malaysia - ePrints
last_indexed 2024-03-05T20:00:25Z
publishDate 2016
publisher Trans Tech Publications Ltd.
record_format dspace
spelling utm.eprints-700752021-08-02T03:51:31Z http://eprints.utm.my/70075/ Numerical estimation of rolling load and torque for hot flat rolling of Hcss316 at low strain rates based on mean temperature Sadiq, T. O. Fadara, T. G. Aiyedun, Aiyedun Idris, J. TJ Mechanical engineering and machinery Numerical estimation of rolling load and torque often showed large discrepancies when compared with experimental values. This was attributed to difficulty in estimating the mean rolling temperature from the available data. This work is thus directed at obtaining a good estimate for the mean rolling temperature which can effectively be used for load and torque estimates. Hot flat rolling stimulation by use of the Bland and Ford's cold rolling (HRBF) theory confirmed the reverse sandwich effect in selected carbon steels at low strain rates. In this work, the effect of pass reduction on rolling temperature distribution, yield stress and rolling load were studied for AISI Type 316 stainless steel (HSCSS316). For this new simulation, at low and high strain rates, results showed that the ratio of experimental to calculated rolling load and torque were higher at lower reduction than at higher reduction. These results confirmed excess load and torque in the hot rolling of HSCSS316 low reductions. The results obtained from Hot Rolling Bland and Ford's Theory based on Root Mean Square rolling temperature were in good agreement with values obtained using Reverse Sandwich Model and the Reverse Sandwich- Hot Rolling Bland and Ford's Program under the same rolling conditions. Trans Tech Publications Ltd. 2016 Article PeerReviewed Sadiq, T. O. and Fadara, T. G. and Aiyedun, Aiyedun and Idris, J. (2016) Numerical estimation of rolling load and torque for hot flat rolling of Hcss316 at low strain rates based on mean temperature. International Journal Of Engineering Research In Africa, 26 . pp. 11-29. ISSN 1663-3571 http://dx.doi.org/10.4028/www.scientific.net/JERA.26.11
spellingShingle TJ Mechanical engineering and machinery
Sadiq, T. O.
Fadara, T. G.
Aiyedun, Aiyedun
Idris, J.
Numerical estimation of rolling load and torque for hot flat rolling of Hcss316 at low strain rates based on mean temperature
title Numerical estimation of rolling load and torque for hot flat rolling of Hcss316 at low strain rates based on mean temperature
title_full Numerical estimation of rolling load and torque for hot flat rolling of Hcss316 at low strain rates based on mean temperature
title_fullStr Numerical estimation of rolling load and torque for hot flat rolling of Hcss316 at low strain rates based on mean temperature
title_full_unstemmed Numerical estimation of rolling load and torque for hot flat rolling of Hcss316 at low strain rates based on mean temperature
title_short Numerical estimation of rolling load and torque for hot flat rolling of Hcss316 at low strain rates based on mean temperature
title_sort numerical estimation of rolling load and torque for hot flat rolling of hcss316 at low strain rates based on mean temperature
topic TJ Mechanical engineering and machinery
work_keys_str_mv AT sadiqto numericalestimationofrollingloadandtorqueforhotflatrollingofhcss316atlowstrainratesbasedonmeantemperature
AT fadaratg numericalestimationofrollingloadandtorqueforhotflatrollingofhcss316atlowstrainratesbasedonmeantemperature
AT aiyedunaiyedun numericalestimationofrollingloadandtorqueforhotflatrollingofhcss316atlowstrainratesbasedonmeantemperature
AT idrisj numericalestimationofrollingloadandtorqueforhotflatrollingofhcss316atlowstrainratesbasedonmeantemperature