A New Approach for Predicting andOptimizing Weld Bead Geometry in GMAW
سال
: 2010
چکیده: Generally, the quality of a weld joint is directly
influenced by the welding input parameter settings. In this study, the
regression modeling is used in order to establish the relationships
between input and output parameters for Gas Metal Arc Welding
(GMAW) process. To gather the required data for modeling, actual
tests were carried out based on the proposed Taguchi experimental
matrix design. The process variables considered here include voltage
(V); wire feed rate (F); torch Angle (A); welding speed (S) and
nozzle-to-plate distance (D). The process output characteristics
include weld bead height, width and penetration. To develop
mathematical models, various regression functions have been fitted
on the experimental data. The adequacies of the models are then
evaluated using analysis of variance (ANOVA) technique. The best
and most fitted model is then selected based on the ANOVA results
and other statistical analysis. The ANOVA results recommend that
the curvilinear model is the best fit in this case. In the next stage, the
selected model is implanted into a Simulated Annealing (SA)
optimization algorithm. This optimization procedure has been
developed in order to determine the best set of process variables
levels for any desired weld bead geometry characteristics.
Computational results show very good compatibility with
experimental data and demonstrate the effectiveness of the proposed
modeling and optimization approach.
influenced by the welding input parameter settings. In this study, the
regression modeling is used in order to establish the relationships
between input and output parameters for Gas Metal Arc Welding
(GMAW) process. To gather the required data for modeling, actual
tests were carried out based on the proposed Taguchi experimental
matrix design. The process variables considered here include voltage
(V); wire feed rate (F); torch Angle (A); welding speed (S) and
nozzle-to-plate distance (D). The process output characteristics
include weld bead height, width and penetration. To develop
mathematical models, various regression functions have been fitted
on the experimental data. The adequacies of the models are then
evaluated using analysis of variance (ANOVA) technique. The best
and most fitted model is then selected based on the ANOVA results
and other statistical analysis. The ANOVA results recommend that
the curvilinear model is the best fit in this case. In the next stage, the
selected model is implanted into a Simulated Annealing (SA)
optimization algorithm. This optimization procedure has been
developed in order to determine the best set of process variables
levels for any desired weld bead geometry characteristics.
Computational results show very good compatibility with
experimental data and demonstrate the effectiveness of the proposed
modeling and optimization approach.
کلیدواژه(گان): GMAW,Process parameters,Optimization,Regression modeling,SA algorithm
کالکشن
:
-
آمار بازدید
A New Approach for Predicting andOptimizing Weld Bead Geometry in GMAW
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contributor author | فرهاد کلاهان | en |
contributor author | مهدی حیدری | en |
contributor author | Farhad Kolahan | fa |
contributor author | Mehdi Heidari | fa |
date accessioned | 2020-06-06T14:25:43Z | |
date available | 2020-06-06T14:25:43Z | |
date issued | 2010 | |
identifier uri | https://libsearch.um.ac.ir:443/fum/handle/fum/3396236 | |
description abstract | Generally, the quality of a weld joint is directly influenced by the welding input parameter settings. In this study, the regression modeling is used in order to establish the relationships between input and output parameters for Gas Metal Arc Welding (GMAW) process. To gather the required data for modeling, actual tests were carried out based on the proposed Taguchi experimental matrix design. The process variables considered here include voltage (V); wire feed rate (F); torch Angle (A); welding speed (S) and nozzle-to-plate distance (D). The process output characteristics include weld bead height, width and penetration. To develop mathematical models, various regression functions have been fitted on the experimental data. The adequacies of the models are then evaluated using analysis of variance (ANOVA) technique. The best and most fitted model is then selected based on the ANOVA results and other statistical analysis. The ANOVA results recommend that the curvilinear model is the best fit in this case. In the next stage, the selected model is implanted into a Simulated Annealing (SA) optimization algorithm. This optimization procedure has been developed in order to determine the best set of process variables levels for any desired weld bead geometry characteristics. Computational results show very good compatibility with experimental data and demonstrate the effectiveness of the proposed modeling and optimization approach. | en |
language | English | |
title | A New Approach for Predicting andOptimizing Weld Bead Geometry in GMAW | en |
type | Journal Paper | |
contenttype | External Fulltext | |
subject keywords | GMAW | en |
subject keywords | Process parameters | en |
subject keywords | Optimization | en |
subject keywords | Regression modeling | en |
subject keywords | SA algorithm | en |
journal title | International Journal of Mechanical Systems Science and Engineering | en |
journal title | International Journal of Mechanical Systems Science and Engineering | fa |
pages | 138-142 | |
journal volume | 2 | |
journal issue | 2 | |
identifier link | https://profdoc.um.ac.ir/paper-abstract-1015473.html | |
identifier articleid | 1015473 |