Abstract
Purpose
Material extrusion (MEX) is a class of additive manufacturing (AM) process based on MEX principle. In the viewpoint of Industry 4.0 and sustainable manufacturing, AM technologies are gaining importance than conventional manufacturing route (subtractive manufacturing). Because of the ease of use and lesser operation skills, MEX had wide popularity in industry for product and prototype development. This study aims to analyze energy consumption of MEX-based AM process and its influencing factors.
Design/methodology/approach
A group of factors were identified pertaining to MEX-based AM process. In this viewpoint, this study presents the configuration of a structural model using interpretive structural modeling (ISM) to depict dominant factors in MEX-based AM process. A total of 18 influencing factors are identified and ranked using ISM methodology for MEX process. The Impact Matrix Cross-reference Multiplication Applied to a Classification analysis was done to categorize influencing factors into four groups for MEX-based AM process.
Findings
The derivation of structural model would enable AM practitioners to systematically analyze the factors and to derive key factors which enable comprehensive energy modeling and energy assessment studies. Also, it facilitates the development of energy efficient AM system.
Originality/value
The development of structural model for analysis of factors influencing energy consumption of MEX-based AM is the original contribution of the authors.
Subject
Industrial and Manufacturing Engineering,Mechanical Engineering
Reference36 articles.
1. Structural quality of parts processed by fused deposition;Rapid Prototyping Journal,1996
2. Anisotropic material properties of fused deposition modeling ABS;Rapid Prototyping Journal,2002
3. Interpretive structural modelling (ISM) approach: an overview;Research Journal of Management Sciences,2013
4. Electrical energy demand modeling of 3D printing technology for sustainable manufacture;International Journal of Engineering,2016
5. Direct electrical energy demand in fused deposition modelling;Procedia CIRP,2014
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