Novel Tools for Analyzing Life Cycle Energy Use, Carbon Emissions, and Cost of Additive Manufacturing

Decarbonizing industrial manufacturing is a significant challenge in the effort to limit the impacts of global climate change. Additive manufacturing (AM) is one pathway for reducing the impacts of manufacturing as it creates parts layer-by-layer rather than by removing (i.e., subtracting) material...

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Main Authors: Christopher Price, Kristina Armstrong, Dipti Kamath, Sachin Nimbalkar, Joseph Cresko
Format: Article
Language:English
Published: MDPI AG 2025-06-01
Series:Journal of Manufacturing and Materials Processing
Subjects:
Online Access:https://www.mdpi.com/2504-4494/9/7/214
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author Christopher Price
Kristina Armstrong
Dipti Kamath
Sachin Nimbalkar
Joseph Cresko
author_facet Christopher Price
Kristina Armstrong
Dipti Kamath
Sachin Nimbalkar
Joseph Cresko
author_sort Christopher Price
collection DOAJ
description Decarbonizing industrial manufacturing is a significant challenge in the effort to limit the impacts of global climate change. Additive manufacturing (AM) is one pathway for reducing the impacts of manufacturing as it creates parts layer-by-layer rather than by removing (i.e., subtracting) material from solid stock as with conventional techniques. This reduces material inputs and generates less waste, which can substantially lower life cycle energy consumption and greenhouse gas emissions. However, AM adoption in the manufacturing sector has been slow, partly due to challenges in making a strong business case compared with more traditional and widely available techniques. This paper highlights the need for the development of simple screening analysis tools to speed the adoption of AM in the manufacturing sector by providing decision-makers easy access to important production life cycle emissions, and cost information. Details on the development of two Microsoft Excel software tools are provided: upgrades to an existing tool on the energy and carbon impacts of AM and a new tool for analyzing the major cost components of AM. A case study applies these two tools to the production of a lightweight aerospace bracket, showing how the tools can be used to estimate the environmental benefits and production costs of AM.
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spelling doaj-art-5dd3ce7789e54aefb6896b49f89fe0102025-08-20T03:36:18ZengMDPI AGJournal of Manufacturing and Materials Processing2504-44942025-06-019721410.3390/jmmp9070214Novel Tools for Analyzing Life Cycle Energy Use, Carbon Emissions, and Cost of Additive ManufacturingChristopher Price0Kristina Armstrong1Dipti Kamath2Sachin Nimbalkar3Joseph Cresko4Oak Ridge National Laboratory, Manufacturing Science Division, One Bethel Valley Road, NTRC, 2360HVC, MS 6472, Oak Ridge, TN 37830, USAOak Ridge National Laboratory, Manufacturing Science Division, One Bethel Valley Road, NTRC, 2360HVC, MS 6472, Oak Ridge, TN 37830, USAOak Ridge National Laboratory, Manufacturing Science Division, One Bethel Valley Road, NTRC, 2360HVC, MS 6472, Oak Ridge, TN 37830, USAOak Ridge National Laboratory, Manufacturing Science Division, One Bethel Valley Road, NTRC, 2360HVC, MS 6472, Oak Ridge, TN 37830, USAIndustrial Technologies Office, U.S. Department of Energy, 1000 Independence Avenue SW, Washington, DC 20585, USADecarbonizing industrial manufacturing is a significant challenge in the effort to limit the impacts of global climate change. Additive manufacturing (AM) is one pathway for reducing the impacts of manufacturing as it creates parts layer-by-layer rather than by removing (i.e., subtracting) material from solid stock as with conventional techniques. This reduces material inputs and generates less waste, which can substantially lower life cycle energy consumption and greenhouse gas emissions. However, AM adoption in the manufacturing sector has been slow, partly due to challenges in making a strong business case compared with more traditional and widely available techniques. This paper highlights the need for the development of simple screening analysis tools to speed the adoption of AM in the manufacturing sector by providing decision-makers easy access to important production life cycle emissions, and cost information. Details on the development of two Microsoft Excel software tools are provided: upgrades to an existing tool on the energy and carbon impacts of AM and a new tool for analyzing the major cost components of AM. A case study applies these two tools to the production of a lightweight aerospace bracket, showing how the tools can be used to estimate the environmental benefits and production costs of AM.https://www.mdpi.com/2504-4494/9/7/214additive manufacturinglife cycle assessmentGHG emissionscost analysisenergy savings
spellingShingle Christopher Price
Kristina Armstrong
Dipti Kamath
Sachin Nimbalkar
Joseph Cresko
Novel Tools for Analyzing Life Cycle Energy Use, Carbon Emissions, and Cost of Additive Manufacturing
Journal of Manufacturing and Materials Processing
additive manufacturing
life cycle assessment
GHG emissions
cost analysis
energy savings
title Novel Tools for Analyzing Life Cycle Energy Use, Carbon Emissions, and Cost of Additive Manufacturing
title_full Novel Tools for Analyzing Life Cycle Energy Use, Carbon Emissions, and Cost of Additive Manufacturing
title_fullStr Novel Tools for Analyzing Life Cycle Energy Use, Carbon Emissions, and Cost of Additive Manufacturing
title_full_unstemmed Novel Tools for Analyzing Life Cycle Energy Use, Carbon Emissions, and Cost of Additive Manufacturing
title_short Novel Tools for Analyzing Life Cycle Energy Use, Carbon Emissions, and Cost of Additive Manufacturing
title_sort novel tools for analyzing life cycle energy use carbon emissions and cost of additive manufacturing
topic additive manufacturing
life cycle assessment
GHG emissions
cost analysis
energy savings
url https://www.mdpi.com/2504-4494/9/7/214
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AT kristinaarmstrong noveltoolsforanalyzinglifecycleenergyusecarbonemissionsandcostofadditivemanufacturing
AT diptikamath noveltoolsforanalyzinglifecycleenergyusecarbonemissionsandcostofadditivemanufacturing
AT sachinnimbalkar noveltoolsforanalyzinglifecycleenergyusecarbonemissionsandcostofadditivemanufacturing
AT josephcresko noveltoolsforanalyzinglifecycleenergyusecarbonemissionsandcostofadditivemanufacturing