Procedure for Experimental Data Assessment for Numerical Solver Validation in the Context of Model based Prediction of Powder Coating Patterns

In the scope of this study an experimental powder coating setup is designed and the method to extract statistically significant trends from the data generated is developed. The ultimate goals are to i) validate a previously developed 3D Euler-LaGrangian numerical solver [1] and to ii) characterize t...

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Main Authors: B Siyahhan, M Boldrini, S Hauri, N Reinke, G Boiger
Format: Article
Language:English
Published: Multi-Science Publishing 2018-12-01
Series:International Journal of Multiphysics
Online Access:http://journal.multiphysics.org/index.php/IJM/article/view/437
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spelling doaj-5510c522aa4d44c180a84cb62760dd2a2020-11-25T03:33:00ZengMulti-Science PublishingInternational Journal of Multiphysics1750-95482048-39612018-12-0112410.21152/1750-9548.12.4.373375Procedure for Experimental Data Assessment for Numerical Solver Validation in the Context of Model based Prediction of Powder Coating PatternsB SiyahhanM BoldriniS HauriN ReinkeG BoigerIn the scope of this study an experimental powder coating setup is designed and the method to extract statistically significant trends from the data generated is developed. The ultimate goals are to i) validate a previously developed 3D Euler-LaGrangian numerical solver [1] and to ii) characterize the essential parameters for industrial powder coating processes in subsequent phases. The experiments involved coating a flat plate substrate with a corona spraying pistol. The resulting coating thickness has been quantified through the state of the art Coatmaster technology [2,3]. The raw data generated from the Coatmaster has been filtered and rigorously analyzed to identify statistically significant trends. Furthermore, characteristic variables have been constructed for subsequent comparison to the numerical solver. This study reveals the challenges involved in assessing experimental data to extract meaningful comparisons for numerical solver validation.http://journal.multiphysics.org/index.php/IJM/article/view/437
collection DOAJ
language English
format Article
sources DOAJ
author B Siyahhan
M Boldrini
S Hauri
N Reinke
G Boiger
spellingShingle B Siyahhan
M Boldrini
S Hauri
N Reinke
G Boiger
Procedure for Experimental Data Assessment for Numerical Solver Validation in the Context of Model based Prediction of Powder Coating Patterns
International Journal of Multiphysics
author_facet B Siyahhan
M Boldrini
S Hauri
N Reinke
G Boiger
author_sort B Siyahhan
title Procedure for Experimental Data Assessment for Numerical Solver Validation in the Context of Model based Prediction of Powder Coating Patterns
title_short Procedure for Experimental Data Assessment for Numerical Solver Validation in the Context of Model based Prediction of Powder Coating Patterns
title_full Procedure for Experimental Data Assessment for Numerical Solver Validation in the Context of Model based Prediction of Powder Coating Patterns
title_fullStr Procedure for Experimental Data Assessment for Numerical Solver Validation in the Context of Model based Prediction of Powder Coating Patterns
title_full_unstemmed Procedure for Experimental Data Assessment for Numerical Solver Validation in the Context of Model based Prediction of Powder Coating Patterns
title_sort procedure for experimental data assessment for numerical solver validation in the context of model based prediction of powder coating patterns
publisher Multi-Science Publishing
series International Journal of Multiphysics
issn 1750-9548
2048-3961
publishDate 2018-12-01
description In the scope of this study an experimental powder coating setup is designed and the method to extract statistically significant trends from the data generated is developed. The ultimate goals are to i) validate a previously developed 3D Euler-LaGrangian numerical solver [1] and to ii) characterize the essential parameters for industrial powder coating processes in subsequent phases. The experiments involved coating a flat plate substrate with a corona spraying pistol. The resulting coating thickness has been quantified through the state of the art Coatmaster technology [2,3]. The raw data generated from the Coatmaster has been filtered and rigorously analyzed to identify statistically significant trends. Furthermore, characteristic variables have been constructed for subsequent comparison to the numerical solver. This study reveals the challenges involved in assessing experimental data to extract meaningful comparisons for numerical solver validation.
url http://journal.multiphysics.org/index.php/IJM/article/view/437
work_keys_str_mv AT bsiyahhan procedureforexperimentaldataassessmentfornumericalsolvervalidationinthecontextofmodelbasedpredictionofpowdercoatingpatterns
AT mboldrini procedureforexperimentaldataassessmentfornumericalsolvervalidationinthecontextofmodelbasedpredictionofpowdercoatingpatterns
AT shauri procedureforexperimentaldataassessmentfornumericalsolvervalidationinthecontextofmodelbasedpredictionofpowdercoatingpatterns
AT nreinke procedureforexperimentaldataassessmentfornumericalsolvervalidationinthecontextofmodelbasedpredictionofpowdercoatingpatterns
AT gboiger procedureforexperimentaldataassessmentfornumericalsolvervalidationinthecontextofmodelbasedpredictionofpowdercoatingpatterns
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