Energy and labor intensity of manufacturing processes progressing toward sustainable development: A systematic literature review and SWOT analysis for a steel manufacturing company

• Autorzy: Depczyński Radosław

Identyfikatory

DOI

10.17402/549

• Języki publikacji: EN

Abstrakty

EN

Manufacturing, as one of the main pillars of a civilized lifestyle, will be strongly affected by sustainability issues, and it will play an important role in establishing a sustainable future. Within the area of sustainability issues, some specific issues are pointed out, such as the energy and labor intensity of manufacturing processes. The main aims of this paper are a systematic literature review and the evaluation of the energy and labor intensity of manufacturing processes in an industrial enterprise while proposing changes toward sustainable development. In the research, 163 scientific publications (77 related to China) were taken from the Web of Science (WoS) database based on selected keywords describing the studied phenomenon. The analyzed publications were divided into five areas (clusters). In terms of evaluating the energy and labor intensity of manufacturing processes, twelve production processes were selected, which were then grouped according to their most important areas of similarity (automation, ergonomics, and discomfort). The systematic literature review was carried out using the VOSviewer software, version 1.6.14. This article also uses the methodology of a case study with a simplified SWOT analysis based on interviews with employees and expert panels. The subject of the research is an industrial enterprise representing the steel manufacturing sector in Poland.

Słowa kluczowe

EN

energy intensity; labor intensity; manufacturing; sustainability; bibliographic analysis; VOSviewer; SWOT analysis

• Wydawca: Wydawnictwo Naukowe Akademii Morskiej w Szczecinie
• Czasopismo: Zeszyty Naukowe Akademii Morskiej w Szczecinie
• Rocznik: 2022
• Tom: nr 72 (144)
• Strony: 201--210
• Opis fizyczny: Bibliogr. 37 poz., rys., tab.

Twórcy

autor

Depczyński Radosław

• University of Szczecin, Institute of Management, Doctoral Schoo

• https://orcid.org/0000-0002-9771-6093

Bibliografia

• 1. Agovino, M., Bartoletto, S. & Garofalo, A. (2019) Modelling the relationship between energy intensity and GDP for European countries: An historical perspective (1800–2000). Energy Economics 82, pp. 114–134.
• 2. Anctil, A., Babbitt, C.W., Raffaelle, R.P., & Landi, B.J. (2011) Material and energy intensity of fullerene production. Environmental science & technology 45(6), pp. 2353–2359.
• 3. Azhgaliyeva, D., Kapoor, A. & Liu, Y. (2020) Green bonds for financing renewable energy and energy efficiency in South-East Asia: a review of policies. Journal of Sustainable Finance & Investment 10(2), pp. 113–140.
• 4. Chen, Y. & Liu, Y. (2021) How biased technological progress sustainably improve the energy efficiency: An empirical research of manufacturing industry in China. Energy 230, 120823.
• 5. Chontanawat, J., Wiboonchutikula, P. & Buddhivanich, A. (2014) Decomposition analysis of the change of energy intensity of manufacturing industries in Thailand. Energy 77, pp. 171–182.
• 6. Dehning, P., Thiede, S., Mennenga, M. & Herrmann, C. (2017) Factors influencing the energy intensity of automotive manufacturing plants. Journal of cleaner production 142, pp. 2305–2314.
• 7. Dolge, K. & Blumberga, D. (2021) Key Factors Influencing the Achievement of Climate Neutrality Targets in the Manufacturing Industry: LMDI Decomposition Analysis. Energies 14(23), 8006.
• 8. El Anshasy, A.A. & Katsaiti, M.-S. (2015) Are natural resources bad for health? Health & Place 32, pp. 29–42.
• 9. El Anshasy, A.A. & Katsaiti, M.-S. (2016) Energy intensity and environmental performance in the Gulf Cooperation Council region: a heterogeneous panel approach. The Business and Management Review 7, 107.
• 10. El Anshasy, A.A. & Katsaiti, M.-S. (2018) Is reducing energy intensity enough to put the oil-rich GCC states on a more sustainable environmental path? Empirical Economics 55(3), pp. 965–992.
• 11. Eslami, Y., Dassisti, M., Lezoche, M. & Panetto, H. (2019) A survey on sustainability in manufacturing organisations: dimensions and future insights. International Journal of Production Research 57, 15–16, pp. 5194–5214.
• 12. Farajzadeh, Z. & Nematollahi, M.A. (2018) Energy intensity and its components in Iran: determinants and trends, Energy Economics 73, pp. 161–177.
• 13. Garetti, M. & Taisch, M. (2012) Sustainable manufacturing: trends and research challenges. Production Planning & Control 23, 2–3, pp. 83–104.
• 14. Hami, N., Muhamad, M.R. & Ebrahim, Z. (2015) The Impact of Sustainable Manufacturing Practices and Innovation Performance on Economic Sustainability. Procedia CIRP 26, pp. 190–195.
• 15. Hardt, L., Barrett, J., Taylor, P.G. & Foxon, T.J. (2020) Structural Change for a Post-Growth Economy: Investigating the Relationship between Embodied Energy Intensity and Labour Productivity. Sustainability 12(3), 962.
• 16. Haukioja, T., Kaivo-oja, J., Karppinen, A. & Vähäsantanen, S. (2018) Identification of smart regions with resilience, specialisation and labour intensity of globally competitive sector – The examination of the LAU-1 regions in Finland. European Integration Studies 12, pp. 50–62.
• 17. Jimenez, R. & Mercado, J. (2014) Energy intensity: A decomposition and counterfactual exercise for Latin American countries. Energy Economics 42, pp. 161–171.
• 18. Karimu, A., Brännlund, R., Lundgren, T. & Söderholm, P. (2017) Energy intensity and convergence in Swedish industry: a combined econometric and decomposition analysis. Energy Economics 62, pp. 347–356.
• 19. Kim, S. (2017) LMDI decomposition analysis of energy consumption in the Korean manufacturing sector. Sustainability 9(2), 202.
• 20. Li, B. (2022) Effective energy utilization through economic development for sustainable management in smart cities. Energy Reports 8, pp. 4975–4987.
• 21. Lin, B. & Du, K. (2014) Decomposing energy intensity change: A combination of index decomposition analysis and production-theoretical decomposition analysis. Applied Energy 129, pp. 158–165.
• 22. Luken, R. & Castellanos‐Silveria, F. (2011) Industrial transformation and sustainable development in developing countries. Sustainable Development 19(3), pp. 167–175.
• 23. Ma, D., Wang, L.N. & Chen, W.Y. (2013) Three-Dimensional Decomposition Models for Chinese Manufacturing Subsector over 1996–2008. Applied Mechanics and Materials 291–294, pp. 3004–3013.
• 24. Pan, X., Uddin, M.K., Han, C. & Pan, X. (2019) Dynamics of financial development, trade openness, technological innovation and energy intensity: evidence from Bangladesh. Energy 171, pp. 456–464.
• 25. Pardo Martínez, C.I. & Silveira, S. (2013) Energy efficiency and CO2 emissions in Swedish manufacturing industries. Energy Efficiency 6(1), pp. 117–133.
• 26. Prashar, A. (2019) Towards sustainable development in industrial small and Medium-sized Enterprises: An energy sustainability approach. Journal of Cleaner Production 235, pp. 977–996.
• 27. Rafiq, S., Salim, R. & Nielsen, I. (2016) Urbanization, openness, emissions, and energy intensity: a study of increasingly urbanized emerging economies. Energy Economics 56, pp. 20–28.
• 28. Saad, M.H. (2018) A general framework for sustainability assessment of manufacturing processes. Master’s Thesis. Sharjah College of Engineering, Sharjah United Arab Emirates. Available from: https://dspace.aus.edu:8443/xmlui/bitstream/handle/11073/16381/35.232-2018.31%20Mohammed%20Hassoun%20Saad.pdf?sequence=1&isAllowed=n [Accessed: July 30, 2022].
• 29. Savona, M. & Ciarli, T. (2019) Structural changes and sustainability. A selected review of the empirical evidence. Ecological Economics 159, pp. 244–260.
• 30. Sorrell, S., Speirs, J., Bentley, R., Miller, R. & Thompson, E. (2012) Shaping the global oil peak: A review of the evidence on field sizes, reserve growth, decline rates and depletion rates. Energy 37(1), pp. 709–724.
• 31. Tajudeen, I.A. (2021) The underlying drivers of economy-wide energy efficiency and asymmetric energy Price responses. Energy Economics 98, 105222.
• 32. Tavakoli, A., Shafie-Pour, M., Ashrafi, K. & Abdoli, G. (2016) Options for sustainable development planning based on “GHGs emissions reduction allocation (GERA)” from a national perspective. Environment, Development and Sustainability 18(1), pp. 19–35.
• 33. Torrie, R.D., Stone, C. & Layzell, D.B. (2016) Understanding energy systems change in Canada: 1. Decomposition of total energy intensity. Energy Economics 56, pp. 101–106.
• 34. Wang E.-Z., Lee, C.-C. & Li, Y. (2022) Assessing the impact of industrial robots on manufacturing energy intensity in 38 countries. Energy Economics 105, 105748.
• 35. Wurlod, J.-D. & Noailly, J. (2018) The impact of green innovation on energy intensity: an empirical analysis for 14 industrial sectors in OECD countries. Energy Economics 71, pp. 47–61.
• 36. Yu, J., Shi, X., Guo, D. & Yang, L. (2021) Economic policy uncertainty (EPU) and firm carbon emissions: evidence using a China provincial EPU index. Energy Economics 94, 105071.
• 37. Zhang, X., Su, B., Yang, J. & Cong, J. (2019) Index decomposition and attribution analysis of aggregate energy intensity in Shanxi Province (2000–2015). Journal of Cleaner Production 238, 117897.

Uwagi

Opracowanie rekordu ze środków MEiN, umowa nr SONP/SP/546092/2022 w ramach programu „Społeczna odpowiedzialność nauki” - moduł: Popularyzacja nauki i promocja sportu (2022-2023).