Multi-regression prediction model for surface roughness and tool wear in turning novel aluminum alloy (LM6)/fly ash composite using response surface and central composite design methodology

Turning experiments were conducted on a novel aluminum alloy (LM6)/fly ash composite based on the response surface and face centered central composite design methodology. The effects of cutting parameters on surface roughness and tool wear were investigated. Multiple regression models were developed...

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Main Authors: Smita Rani Panda, Ajit Kumar Senapati, Purna Chandra Mishra
Format: Article
Language:English
Published: Growing Science 2017-01-01
Series:International Journal of Industrial Engineering Computations
Subjects:
Online Access:http://www.growingscience.com/ijiec/Vol8/IJIEC_2016_25.pdf
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author Smita Rani Panda
Ajit Kumar Senapati
Purna Chandra Mishra
author_facet Smita Rani Panda
Ajit Kumar Senapati
Purna Chandra Mishra
author_sort Smita Rani Panda
collection DOAJ
description Turning experiments were conducted on a novel aluminum alloy (LM6)/fly ash composite based on the response surface and face centered central composite design methodology. The effects of cutting parameters on surface roughness and tool wear were investigated. Multiple regression models were developed for the responses and the adequacies of the developed models were tested at 95% confidence interval using the analysis of variance (ANOVA) technique. Carbide inserts (Model: CNMG 120408-M5) were used for turning the specimens in a CNC turning machine (model: LT-16). The test for significance of the regression models, the test for significance on individual model coefficients and the lack-of-fit tests were performed using the statistical Design-Expert7.0v software environments. R2 indicated the model significance and the value was more than 97%, revealed that the relation between cutting responses and input parameters held good for more than 97% and the model was adequate.
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spelling doaj.art-bac47fefca624da4ad6cf6cd45bc2ce52022-12-21T21:52:29ZengGrowing ScienceInternational Journal of Industrial Engineering Computations1923-29261923-29342017-01-018111810.5267/j.ijiec.2016.8.001Multi-regression prediction model for surface roughness and tool wear in turning novel aluminum alloy (LM6)/fly ash composite using response surface and central composite design methodologySmita Rani PandaAjit Kumar Senapati Purna Chandra MishraTurning experiments were conducted on a novel aluminum alloy (LM6)/fly ash composite based on the response surface and face centered central composite design methodology. The effects of cutting parameters on surface roughness and tool wear were investigated. Multiple regression models were developed for the responses and the adequacies of the developed models were tested at 95% confidence interval using the analysis of variance (ANOVA) technique. Carbide inserts (Model: CNMG 120408-M5) were used for turning the specimens in a CNC turning machine (model: LT-16). The test for significance of the regression models, the test for significance on individual model coefficients and the lack-of-fit tests were performed using the statistical Design-Expert7.0v software environments. R2 indicated the model significance and the value was more than 97%, revealed that the relation between cutting responses and input parameters held good for more than 97% and the model was adequate.http://www.growingscience.com/ijiec/Vol8/IJIEC_2016_25.pdfAluminum alloy matrixFly ashTurningResponse surface methodCentral composite design
spellingShingle Smita Rani Panda
Ajit Kumar Senapati
Purna Chandra Mishra
Multi-regression prediction model for surface roughness and tool wear in turning novel aluminum alloy (LM6)/fly ash composite using response surface and central composite design methodology
International Journal of Industrial Engineering Computations
Aluminum alloy matrix
Fly ash
Turning
Response surface method
Central composite design
title Multi-regression prediction model for surface roughness and tool wear in turning novel aluminum alloy (LM6)/fly ash composite using response surface and central composite design methodology
title_full Multi-regression prediction model for surface roughness and tool wear in turning novel aluminum alloy (LM6)/fly ash composite using response surface and central composite design methodology
title_fullStr Multi-regression prediction model for surface roughness and tool wear in turning novel aluminum alloy (LM6)/fly ash composite using response surface and central composite design methodology
title_full_unstemmed Multi-regression prediction model for surface roughness and tool wear in turning novel aluminum alloy (LM6)/fly ash composite using response surface and central composite design methodology
title_short Multi-regression prediction model for surface roughness and tool wear in turning novel aluminum alloy (LM6)/fly ash composite using response surface and central composite design methodology
title_sort multi regression prediction model for surface roughness and tool wear in turning novel aluminum alloy lm6 fly ash composite using response surface and central composite design methodology
topic Aluminum alloy matrix
Fly ash
Turning
Response surface method
Central composite design
url http://www.growingscience.com/ijiec/Vol8/IJIEC_2016_25.pdf
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AT ajitkumarsenapati multiregressionpredictionmodelforsurfaceroughnessandtoolwearinturningnovelaluminumalloylm6flyashcompositeusingresponsesurfaceandcentralcompositedesignmethodology
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