The Potential of Additive Manufacturing of Metal Components to Reduce Environmental Impacts
 
More details
Hide details
1
Institut de physique de Rennes, Université de Rennes, France
 
2
École Centrale Nantes, Nantes Université, France
 
 
Submission date: 2024-01-30
 
 
Final revision date: 2024-04-09
 
 
Acceptance date: 2024-04-09
 
 
Online publication date: 2024-04-15
 
 
Publication date: 2024-06-19
 
 
Corresponding author
Antoine Balidas   

Institut de physique de Rennes, Université de Rennes, France
 
 
Journal of Machine Engineering 2024;24(2):94-104
 
KEYWORDS
TOPICS
ABSTRACT
Additive manufacturing (AM) is used in metal part forming for its innovative character but its potential for sustainability is uncertain. The energy and material consumption required for manufacturing are significant. Thus, the research question of this article is: "What are the current uses of AM that present a real potential for reducing environmental impact?". The WAAM (Wire Arc Additive Manufacturing) process appears to be the most energy-efficient in comparison to other AM processes. A process parameters study shows that deposition rate has a substantial impact on energy consumption. This parameter represents the amount of material deposited in a unit of time and is directly linked to productivity. It appears that an increase of the deposition rate leads to a reduction in energy consumption. Experiments on WAAM with a high deposition rate permits to create a database of energy and material consumption. This database is then used to identify cases of parts made with WAAM that offer a significant impact reduction compared with conventional manufacturing processes.
REFERENCES (17)
1.
BAUMERS M., TUCK C., WILDMAN R., ASHCROFT I., HAGUE R., 2011, Energy inputs to additive manufacturing: Does capacity utilization matter?, 22nd Annual International Solid Freeform Fabrication Symposium - An Additive Manufacturing Conference, SFF 2011, https://doi.org/10.26153/tsw/1....
 
2.
AHMAD N., ENEMUOH E.U., 2020, Energy modeling and eco impact evaluation in direct metal laser sintering hybrid milling, Heliyon, 6/1.
 
3.
TEUBLER J., WEBER S., SUSKI P., PESCHKE I., LIEDTKE C., 2019, Critical evaluation of the material characteristics and environmental potential of laser beam melting processes for the additive manufacturing of metallic components, Journal of Cleaner Production, 237, 117775.
 
4.
BOURHIS F.L., KERBRAT O., DEMBINSKI L., HASCOET J.Y., MOGNOL P., 2014, Predictive Model for Environmental Assessment in Additive Manufacturing Process, Procedia CIRP, 15, 26–31.
 
5.
LIU Z., JIANG Q., CONG W., LI T., ZHANG H.C., 2018, Comparative study for environmental performances of traditional manufacturing and directed energy deposition processes, International Journal of Environmental Science and Technology, 15, 2273–2282.
 
6.
JACKSON M.A., VAN ASTEN A., MORROW J.D., MIN S., PFEFFERKORN F.E., 2018, Energy Consumption Model for Additive-Subtractive Manufacturing Processes with Case Study, International Journal of Precision Engineering and Manufacturing-Green Technology, 5, 459–466.
 
7.
PRIARONE P.C., CAMPATELLI G., MONTEVECCHI F., VENTURINI G., SETTINERI L., 2019, A modelling framework for comparing the environmental and economic performance of WAAM-based integrated manufacturing and machining, CIRP Annals, 68/1, 37–40.
 
8.
JACKSON M.A., VAN ASTEN A., MORROW J.D., MIN S., PFEFFERKORN F.E., 2016, A Comparison of Energy Consumption in Wire-based and Powder-based Additive-subtractive Manufacturing, Procedia Manufacturing, 5, 989–1005.
 
9.
BEKKER M A.C., VERLINDEN J.C., 2018, Life cycle assessment of wire + arc additive manufacturing compared to green sand casting and CNC milling in stainless steel, Journal of Cleaner Production, 177, 438–447.
 
10.
KOKARE S., OLIVEIRA J.P., SANTOS T.G., GODINA R., 2023, Environmental and economic assessment of a steel wall fabricated by wire-based directed energy deposition, Additive Manufacturing, 61, 103316.
 
11.
PRIARONE P.C., CAMPATELLI G., CATALANO A.R., BAFFA F., 2021, Life-cycle energy and carbon saving potential of Wire Arc Additive Manufacturing for the repair of mold inserts, CIRP Journal of Manufacturing Science and Technology, 35, 943–958.
 
12.
DIAS M., PRAGANA J.P.M., FERREIRA B., RIBEIRO I., SILVA C.M.A., 2022, Economic and Environmental Potential of Wire-Arc Additive Manufacturing, Sustainability, 14, 5197.
 
13.
SWORD J.I., GALLOWAY A., TOUMPIS A., 2023, An environmental impact comparison between wire + arc additive manufacture and forging for the production of a titanium component, Sustainable Materials and Technologies, 36, e00600.
 
14.
PRIARONE P.C., PAGONE E., MARTINA F.,. CATALANO A.R, SETTINERI L. 2020, Multi-criteria environmental and economic impact assessment of wire arc additive manufacturing, CIRP Annals, 69/1, 37–40.
 
15.
REIS R.C., KOKARE S., OLIVEIRA J.P., MATIAS J.C.O., GODINA R., 2023, Life cycle assessment of metal products: A comparison between wire arc additive manufacturing and CNC milling, Advances in Industrial and Manufacturing Engineering,6, 100117.
 
16.
CAMPATELLI G., MONTEVECCHI F., VENTURINI G., INGARAO G., PRIARONE P.C., 2020, Integrated WAAM-Subtractive Versus Pure Subtractive Manufacturing Approaches: An Energy Efficiency Comparison, International Journal of Precision Engineering and Manufacturing-Green Technology, 7, 1–11.
 
17.
SHAH I.H., HADJIPANTELIS N., WALTER L., MYERS R.J., GARDNER L., 2023, Environmental life cycle assessment of wire arc additively manufactured steel structural components, Journal of Cleaner Production, 389, 136071.
 
eISSN:2391-8071
ISSN:1895-7595
Journals System - logo
Scroll to top