Search results for "Sustainable Manufacturing"

showing 10 items of 24 documents

Analysis of Electrical Energy Demands in Friction Stir Welding of Aluminum Alloys

2017

Abstract Manufacturing processes, as used for discrete part manufacturing, are responsible for a substantial part of the environmental impact of products. Despite that, most of metalworking processes are still poorly documented in terms of environmental footprint. To be more specific, the scientific research has well covered conventional machining processes, concerning the other processes there is a lack of knowledge in terms of environmental load characterization instead. The present paper aims to contribute to fill this knowledge gap and an energetic analysis of Friction Stir welding (FSW) is presented. Following the CO2PE! methodological approach, power studies and a preliminary time stu…

0209 industrial biotechnologyAluminum alloyMaterials scienceProcess (engineering)Electric potential energyFriction Stir WeldingSustainable manufacturing02 engineering and technologyGeneral MedicineEnergy consumption021001 nanoscience & nanotechnologyManufacturing engineeringEnergy efficiencyEngineering (all)020901 industrial engineering & automationMachiningMetalworkingFriction stir weldingEnvironmental impact assessment0210 nano-technologySettore ING-IND/16 - Tecnologie E Sistemi Di LavorazioneEfficient energy useProcedia Engineering
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Towards criteria for sustainable process selection: On the modelling of pure subtractive versus additive/subtractive integrated manufacturing approac…

2017

Additive Manufacturing (AM) processes can be counted among the disruptive technologies that are capable of transforming conventional manufacturing routes. The ability to create complex geometries, the reduction in material scraps during manufacturing, and the light-weighting due to the think-additive redesign of the components represent the main points of strength of AM. However, for some applications (such as the production of metal components for the automotive and aerospace industries), the surface finishing and dimensional/geometrical part tolerancing that can be achieved via AM processes might not be adequate to satisfy the imposed product specifications, and finish machining operation…

0209 industrial biotechnologyEngineeringAdditive manufacturing; CNC machining; Metal component; Modelling; Sustainable manufacturing; Renewable Energy Sustainability and the Environment; 2300; Strategy and Management; 1409; Tourism Leisure and Hospitality Management; Industrial and Manufacturing EngineeringAdditive manufacturingProcess (engineering)Strategy and ManagementSustainable manufacturingAutomotive industryContext (language use)02 engineering and technology010501 environmental sciencesMetal component01 natural sciencesModellingIndustrial and Manufacturing EngineeringTourismCNC machining020901 industrial engineering & automationMachiningComputer-integrated manufacturingAdvanced manufacturingRenewable Energy1409Settore ING-IND/16 - Tecnologie E Sistemi Di LavorazioneSustainable manufacturing Modelling Additive manufacturing CNC machining Metal component0105 earth and related environmental sciencesGeneral Environmental ScienceProduct design specificationSustainability and the Environment2300Renewable Energy Sustainability and the Environmentbusiness.industryLeisure and Hospitality ManagementBuilding and ConstructionManufacturing engineeringNumerical controlbusinessJournal of Cleaner Production
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Manufacturing strategies for efficiency in energy and resources use: The role of metal shaping processes

2017

Abstract Manufacturing sector nowadays has to deal with the global need to reduce the environmental impact of human activity. As manufacturing accounts for a significant portion of the global CO 2 emissions, scientific research should be addressed to understand the environmental impact of manufacturing processes and, in the meantime, to take advantage of their full potential in reducing the overall CO 2 emissions. The present review paper aims at describing the role of metal shaping processes in reducing the environmental impact across different stages of metal components life. Actually, an increased consciousness concerning both the environmental performances of manufacturing processes and…

0209 industrial biotechnologyEngineeringProcess (engineering)Strategy and ManagementResource efficiencySustainable manufacturingSustainability and the Environment02 engineering and technologyIndustrial and Manufacturing EngineeringMetal shaping processe020901 industrial engineering & automationComputer-integrated manufacturingMaterial reuseAdvanced manufacturingRemanufacturingUnit process0505 lawGeneral Environmental ScienceRenewable Energy Sustainability and the Environmentbusiness.industryCircular economy05 social sciencesBuilding and ConstructionMaterial efficiencyManufacturing engineeringRisk analysis (engineering)Energy and resouce efficiency050501 criminologybusiness
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A methodology for evaluating the influence of batch size and part geometry on the environmental performance of machining and forming processes

2016

Metallic material processing plays a significant role in terms of global environmental impact. As a result, energy- and resource-efficient strategies in the metal shaping technology domain need to be identified urgently. Recently, the scientific world has been paying more and more attention to the environmental impact analysis of manufacturing processes. Despite this increased attention, the state of the art in the domain of environmental impact analysis of metal shaping processes is still characterized by gaps in knowledge and in methodologies. In particular, metal forming processes are still not well documented, in terms of their environmental impact, and there is a lack of systematic and…

0209 industrial biotechnologyEngineeringProcess (engineering)Strategy and ManagementSustainable manufacturingGeometry02 engineering and technology010501 environmental sciences01 natural sciencesIndustrial and Manufacturing EngineeringDomain (software engineering)020901 industrial engineering & automationMachiningProduction (economics)Environmental impact assessmentSettore ING-IND/16 - Tecnologie E Sistemi Di Lavorazione0105 earth and related environmental sciencesGeneral Environmental ScienceMetal formingRenewable Energy Sustainability and the Environmentbusiness.industryProcess Sustainability DiagramComparative analysisForming processesSustainable manufacturing Comparative analysis Forming Machining Process Sustainability DiagramBuilding and ConstructionMachiningManufacturing engineeringSustainabilitybusinessFormingSustainable manufacturing; Comparative analysis; Forming; Machining; Process Sustainability Diagram
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On the impact of recycling strategies on energy demand and CO2 emissions when manufacturing Al-based components

2016

Abstract The industrial world is facing the challenge of reducing emissions by means of energy- and resource-efficient manufacturing strategies. In some cases, the exerted emissions and the energy demands related to conventional manufacturing processes are not as intensive as those required to extract and produce the raw materials of which the workpieces are made. Therefore, the consciousness of the impact of material usage and the eco-informed choice of the end-of-life scenarios are both needed in view of sustainable development. Aim of this paper is to offer a contribution to a better understanding of the environmental impact of forming and machining processes, for the production of Al-ba…

0209 industrial biotechnologyEngineeringSustainable manufacturingSustainable manufacturing; Recycling; Aluminum; Machining; Forming.02 engineering and technology010501 environmental sciencesRaw material01 natural sciencesSustainable manufacturing; Recycling; Aluminum; Machining; Forming020901 industrial engineering & automationMachiningProduction (economics)Environmental impact assessmentRecyclingSettore ING-IND/16 - Tecnologie E Sistemi Di Lavorazione0105 earth and related environmental sciencesGeneral Environmental ScienceSustainable developmentEnergy demandbusiness.industrySustainable manufacturingAluminium recyclingForming.Environmental economicsMachiningManufacturing engineeringGeneral Earth and Planetary SciencesbusinessFormingAluminum
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Industry 4.0 Technologies for Manufacturing Sustainability: A Systematic Review and Future Research Directions

2021

Recent developments in manufacturing processes and automation have led to the new industrial revolution termed “Industry 4.0”. Industry 4.0 can be considered as a broad domain which includes: data management, manufacturing competitiveness, production processes and efficiency. The term Industry 4.0 includes a variety of key enabling technologies i.e., cyber physical systems, Internet of Things, artificial intelligence, big data analytics and digital twins which can be considered as the major contributors to automated and digital manufacturing environments. Sustainability can be considered as the core of business strategy which is highlighted in the United Nations (UN) Sustainability 2030 age…

0209 industrial biotechnologyEngineeringTechnologyIndustry 4.0QH301-705.5QC1-999Big dataInternet of Things02 engineering and technology020901 industrial engineering & automationSustainable businessSettore ING-IND/17 - Impianti Industriali Meccanici0502 economics and businessGeneral Materials Sciencesmart manufacturingCloud manufacturingBiology (General)InstrumentationQD1-999cloud manufacturingFluid Flow and Transfer Processesbusiness.industryProcess Chemistry and TechnologyTPhysics05 social sciencesGeneral EngineeringCyber-physical systemartificial intelligenceIndustry 4.0sustainabilityEngineering (General). Civil engineering (General)sustainable manufacturingComputer Science ApplicationsEngineering managementmanufacturingChemistrySustainabilityStrategic managementDigital manufacturingInternet of ThingTA1-2040business050203 business & managementApplied Sciences
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Trends in Metal Cutting Theory and Practice

2017

This chapter provides the state-of-the-art manufacturing systems that utilize various machining technologies in different manufacturing sectors. It highlights the challenges of the 21st-century manufacturing environment and characterizes numerous driven factors in modern machining technologies. They include more-established technologies, such as High-Speed Machining/Cutting, High-Performance Machining/Cutting, High-Efficiency Machining or currently developed ones, such as resource- and energy-efficient (generally sustainable) and hybrid machining. Practical examples and charts that document their importance in modern manufacturing are provided. Finally, some important future trends are over…

0209 industrial biotechnologyEngineeringbusiness.industrySustainable manufacturing02 engineering and technology010501 environmental sciencesManufacturing systems01 natural sciencesManufacturing engineering020901 industrial engineering & automationResource (project management)MachiningComputer-integrated manufacturingAdvanced manufacturingbusinessMetal cutting0105 earth and related environmental sciences
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A comparative assessment of energy demand and life cycle costs for additive- and subtractive-based manufacturing approaches

2020

Abstract The applicability domain of Additive Manufacturing (AM) processes, apart from technological and quality results, relies on environmental and cost performance. These aspects still need to be better understood. To this aim, comparative analyses with conventional manufacturing routes are needed. In this paper, empirical cost and energy requirement models are suggested to assess subtractive- (machining) and additive- (Electron Beam Melting) based manufacturing approaches for the production of Ti-6Al-4V components. A life-cycle perspective is adopted, and all the steps from the input material production to the post-AM processing operations and the use phase are included. The analyses ha…

0209 industrial biotechnologyMaterials scienceAdditive manufacturingCostStrategy and Managementmedia_common.quotation_subjectSustainable manufacturing02 engineering and technologyManagement Science and Operations ResearchRaw materialIndustrial and Manufacturing EngineeringAdditive manufacturing; Cost; Decision support chart; Energy demand; Machining; Sustainable manufacturing020901 industrial engineering & automationMachiningDecision support chartComponent (UML)Production (economics)Quality (business)Process engineeringSettore ING-IND/16 - Tecnologie E Sistemi Di Lavorazionemedia_commonEnergy demandSubtractive colorEnergy demandbusiness.industry021001 nanoscience & nanotechnologyMachining0210 nano-technologybusinessApplicability domain
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Friction stir extrusion to recycle aluminum alloys scraps: Energy efficiency characterization

2019

Abstract Solid state recycling refers to a group of processes allowing direct recycling of metals scraps into semi-finished product. Their main advantage lies in avoiding the molten state of the material which badly affects the environmental performance of the conventional (remelting based) recycling routes. It is expected that such process category would lower the environmental performance of metals recycling. In this paper, the friction stir extrusion process for aluminum alloy AA 2050 wire production is analyzed under the primary energy demand perspective. The process electrical energy demand is quantified with varying process parameters. An empirical modelling approach was applied and a…

0209 industrial biotechnologyMaterials sciencePrimary energyAluminium alloyStrategy and ManagementAlloySustainable manufacturingchemistry.chemical_element02 engineering and technologyManagement Science and Operations Researchengineering.materialIndustrial and Manufacturing Engineering020901 industrial engineering & automationAluminiumSettore ING-IND/16 - Tecnologie E Sistemi Di LavorazionePressingWire drawingElectric potential energyMetallurgy021001 nanoscience & nanotechnologySECFriction stir extrusionchemistryengineeringExtrusion0210 nano-technologySolid State recyclingEfficient energy use
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Uncovering Technological and Environmental Potentials of Aluminum Alloy Scraps Recycling Through Friction Stir Consolidation

2020

Conventional metal chips recycling processes are energy-intensive with low efficiency and permanent material losses during re-melting. Solid state recycling allows direct recycling of metal scraps into semi-finished products. It is expected that this process category would lower the environmental performance of metals recycling. Friction Stir Consolidation is a new solid-state technique taking advantage of friction heat generation and severe plastic deformation to consolidate chips into billets. In this research, the feasibility of Friction Stir Consolidation as aluminum chips recycling process is analyzed. Specifically, an experimental campaign has been carried out with varying main proces…

0209 industrial biotechnologyMaterials sciencePrimary energySolid bondingAlloySolid-stateSustainable manufacturingchemistry.chemical_elementFriction stir consolidation02 engineering and technologyengineering.materialIndustrial and Manufacturing Engineering020901 industrial engineering & automationAluminiumManagement of Technology and InnovationGeneral Materials ScienceRecyclingSettore ING-IND/16 - Tecnologie E Sistemi Di LavorazioneConsolidation (soil)Renewable Energy Sustainability and the EnvironmentMechanical EngineeringMetallurgy021001 nanoscience & nanotechnologychemistryHeat generationengineeringSevere plastic deformation0210 nano-technologyEfficient energy useAluminum
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