Abstract:It is possible to argue that Additive Manufacturing technology has positive environmental impacts when compared to traditional production. The Additive Manufacturing technology, which provides less waste of raw materials with the use of smart materials, allows the materials to be included in the production process layer by layer (i.e. in a stratified manner) and with very high precision. Based on this point of view, the importance of Additive Manufacturing technology emerges for a sustainable production approa… Show more
“…[31] presented an integrated MCDM approach using PFSs to assess AM alternatives in the automotive industry. Özgüner and Özgüner [2] analyzed the impact of AM technology on sustainable production using the DEMATEL method. According to the results, AM technology has been revealed to have a significant impact on sustainable production with contributions such as the development of sustainable solutions, ensuring green production, promoting the production of innovative products, and preventing excessive resource use.…”
Section: Figurementioning
confidence: 99%
“…where, 𝑚 refers to the number of alternatives and 𝐴 (2) is the second position among the alternatives ranked by 𝑄 𝑖 .…”
Section: Vikormentioning
confidence: 99%
“…− Alternatives 𝐴 (1) and 𝐴 (2) if only condition 2 is not satisfied, or − Alternatives 𝐴 (1) , 𝐴 (2) , . .…”
Section: Vikormentioning
confidence: 99%
“…These advantages highlight the significance of AM technology for creating a sustainable production model that minimizes adverse environmental effects, preserves energy and natural resources, and aims to produce rational products. AM which focuses on innovation and creativity, should take its place in production processes as part of a comprehensive sustainability plan [2]. Some of the commonly used AM processes in the fabrication process are stereolithography (SL), selective laser sintering (SLS), fused deposition modelling (FDM), 3D printing (3DP), laminated object manufacturing (LOM), polyjet printing (PP), electron beam melting (EBM), and laser engineered net shaping (LENS) The key advantage of adapting 3D printing technologies to traditional manufacturing processes is the ability to create complex, customized, and high-precision models [3].…”
Complex geometries, fine details, and various designs that are difficult to create using traditional methods can easily be turned into a tangible object with Three-Dimensional (3D) printers. 3D printers have advantages such as providing design flexibility, obtaining prototypes in the shortest possible time, allowing for personalization, and reducing waste through the use of advanced technology. These advantages emphasize the significance of 3D printers in a sustainable production model. The widespread usage of 3D printers leads to increased efficiency and cost reduction in production. When the literature is examined, it is observed that there are limited studies on the evaluation of supplier performances for company using 3D printers. The aim of this study is to address 3D printers, which are highly significant for sustainable production, and to reveal the criteria that companies utilizing these printers need to consider for determining their suppliers. As a result of the literature review and expert interviews, a model has been developed that gathers the criteria to be considered for supplier selection, which is an important cost factor for companies involved in designing and producing 3D printers under five main and 18 sub-criteria. The importance weights of the criteria have been determined using the Interval Valued Pythagorean Fuzzy Analytic Hierarchy Process (IVPF-AHP) method, and the most suitable supplier among alternative suppliers has been selected using the Vise Kriterijumska Optimizacija I Kompromisno Resenje (VIKOR) method. Finally, the supplier scores have been statistically analyzed to show the validation of the results of the proposed method. According to the results, it has been concluded that for company using 3D printers, quality and technical service criteria are more important in the supplier selection. Additionally, cost of the material/equipment, product price and easy maintenance criteria also play a critical role in the supplier selection of 3D printer.
“…[31] presented an integrated MCDM approach using PFSs to assess AM alternatives in the automotive industry. Özgüner and Özgüner [2] analyzed the impact of AM technology on sustainable production using the DEMATEL method. According to the results, AM technology has been revealed to have a significant impact on sustainable production with contributions such as the development of sustainable solutions, ensuring green production, promoting the production of innovative products, and preventing excessive resource use.…”
Section: Figurementioning
confidence: 99%
“…where, 𝑚 refers to the number of alternatives and 𝐴 (2) is the second position among the alternatives ranked by 𝑄 𝑖 .…”
Section: Vikormentioning
confidence: 99%
“…− Alternatives 𝐴 (1) and 𝐴 (2) if only condition 2 is not satisfied, or − Alternatives 𝐴 (1) , 𝐴 (2) , . .…”
Section: Vikormentioning
confidence: 99%
“…These advantages highlight the significance of AM technology for creating a sustainable production model that minimizes adverse environmental effects, preserves energy and natural resources, and aims to produce rational products. AM which focuses on innovation and creativity, should take its place in production processes as part of a comprehensive sustainability plan [2]. Some of the commonly used AM processes in the fabrication process are stereolithography (SL), selective laser sintering (SLS), fused deposition modelling (FDM), 3D printing (3DP), laminated object manufacturing (LOM), polyjet printing (PP), electron beam melting (EBM), and laser engineered net shaping (LENS) The key advantage of adapting 3D printing technologies to traditional manufacturing processes is the ability to create complex, customized, and high-precision models [3].…”
Complex geometries, fine details, and various designs that are difficult to create using traditional methods can easily be turned into a tangible object with Three-Dimensional (3D) printers. 3D printers have advantages such as providing design flexibility, obtaining prototypes in the shortest possible time, allowing for personalization, and reducing waste through the use of advanced technology. These advantages emphasize the significance of 3D printers in a sustainable production model. The widespread usage of 3D printers leads to increased efficiency and cost reduction in production. When the literature is examined, it is observed that there are limited studies on the evaluation of supplier performances for company using 3D printers. The aim of this study is to address 3D printers, which are highly significant for sustainable production, and to reveal the criteria that companies utilizing these printers need to consider for determining their suppliers. As a result of the literature review and expert interviews, a model has been developed that gathers the criteria to be considered for supplier selection, which is an important cost factor for companies involved in designing and producing 3D printers under five main and 18 sub-criteria. The importance weights of the criteria have been determined using the Interval Valued Pythagorean Fuzzy Analytic Hierarchy Process (IVPF-AHP) method, and the most suitable supplier among alternative suppliers has been selected using the Vise Kriterijumska Optimizacija I Kompromisno Resenje (VIKOR) method. Finally, the supplier scores have been statistically analyzed to show the validation of the results of the proposed method. According to the results, it has been concluded that for company using 3D printers, quality and technical service criteria are more important in the supplier selection. Additionally, cost of the material/equipment, product price and easy maintenance criteria also play a critical role in the supplier selection of 3D printer.
“…The physical systems of the factory have been integrated with the internet of things, cyber-physical systems, robotic systems with Industry 4.0, and production technologies have changed radically (Lasi et al, 2014;Khaitan and Mccalley, 2014;Lee, Bagheri, and Kao;. However, only "additive technology" came to the fore among these seven major technologies according to the results of the analysis (Nanda et al, 2016;Ozguner and Ozguner, 2022). The fact that other technologies of Industry 4.0 have not come to the fore has enabled us to define the research gap in this regard.…”
The purpose of this document is to determine the scope of studies on sustainable manufacturing, to identify influential journals, authors and documents, to analyze the intellectual structure of the relevant field, and to reveal emerging themes and research gaps on the subject. In this study, 1264 articles published between 1987-2022 from the Web of Science database about sustainable manufacturing were subjected to bibliometric analysis. The Biblio-metrix package in the R program was used for data analysis and visualization. In the study, both descriptive analyzes for sustainable production literature were used, and keyword analyzes were used to determine current and future trends. The findings reveal that the literature on sustainable manufacturing is quite new. Examining citation analyzes of journals, authors, and documents reveals that the results provide a high level of scientific content for a newly growing literature.
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