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Development of regression models to predict and optimize the composition and the mechanical properties of aluminium bronze alloy

In this present work, aluminium bronze was doped at a percentage of 1-10 chemical composition of alloying additives (V, Mn, Nb, Ni and Cr) prepared using a sand casting method. The study targeted at improving the mechanical properties of aluminium bronze with alloying additives and using response su...

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Published in:Advances in materials and processing technologies (Abingdon, England) England), 2022-10, Vol.8 (sup3), p.1227-1244, Article 1227
Main Authors: Nwaeju, C.C., Edoziuno, F.O., Adediran, A.A., Nnuka, E.E., Akinlabi, E.T., Elechi, A.M.
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description In this present work, aluminium bronze was doped at a percentage of 1-10 chemical composition of alloying additives (V, Mn, Nb, Ni and Cr) prepared using a sand casting method. The study targeted at improving the mechanical properties of aluminium bronze with alloying additives and using response surface methodology to develop a predictive model. The statistical analysis was done singly, as the alloying elements were added separately into Cu-10%Al alloy. Five alloying elements under 11 experimental runs were designated as independent variables and mechanical properties namely., ultimate tensile strength, %elongation, hardness, and impact strength were set as the response variables in the experimental design matrix. The results obtained from mechanical analytical tests were optimized and a predictive regression model developed using optimal custom design of RSM-Design Expert software.  The developed model through statistical analysis of variance (ANOVA) revealed that the alloying elements significantly improved the mechanical properties haven shown a significant p-value of
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The model effectively predicted an optimal composition factor level of the 3.00% vanadium, 1.00% manganese, 7.00% niobium, 2.00% nickel, and 9.00% chromium at the best desirability of 1.00. 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subjects Alloying elements
mechanical properties
optimisation and predictive modelling
response surface methodology
title Development of regression models to predict and optimize the composition and the mechanical properties of aluminium bronze alloy
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