The Impact of the Enterprise Management System on the Energy Efficiency of Auxiliary Processes
DOI:
https://doi.org/10.24425/mper.2022.140871Abstract
The consumption of various forms of primary and secondary energy is one of the main sources of greenhouse gas emissions to the atmosphere. Also, the increase in the prices of energy resources is an important factor affecting the economic profitability of running a business organization. Legal requirements in the European Union also affect the need to implement appropriate solutions aimed at increasing energy efficiency, which translates into the need of implementing Energy Management Systems, based the ISO 50001 standard, in many enterprises.. In the case study presented in the article, which is based on a company from the energy industry in Poland, the most important Energy Performance Indexes and the impact of the quality of their information on the results obtained were reviewed. In the analyzed example, the main process used only 28% of the total energy consumption in the organization. Insufficient attention to auxiliary processes led to an undercut of Energy Performance by nearly 11% in the first year of operation. It is partic-ularly important to properly collect data on auxiliary processes, which are very often omitted or treated in general in companies, and as shown may constitute a significant share in the total amount of energy consumed.References
Antosz K., Chandima Ratnayake R.M. (2016), Machinery Classification and Prioritization: Empirical Models and AHP Based Approach for Effective Preventive Maintenance, IEEE International Conference On Industrial Engineering And Engineering Management, pp. 1380–1386.
Antosz K. and Stadnicka D. (2017), Lean Philosophy Implementation in SMEs – Study Results, 7th International Conference On Engineering, Project, and Production Management. Procedia Engineering, No. 182, pp. 25–32.
EN ISO 50001 (2018), Energy management systems – Requirements with guidance for use, ISO, Geneva.
Finnerty N., Sterling R., Coakley D., Contreras S., Coffey R. and Keane M.M. (2017), Development of a Global Energy Management System for nonenergy intensive multisite industrial organisations: A methodology, Energy, No. 136, pp. 16–31.
Fuchs H., Aghajanzadeh A. and Therkelsen P. (2020), Identification of drivers, benefits, and challenges of ISO 50001 through case study content analysis, Energy Policy, No. 142.
Giacone E. and Mancò S. (2012), Energy efficiency measurement in industrial processes, Energy, vol. 38, no. 1, pp. 331–345.
Gopalakrishnan B., Ramamoorthy K., Crowe E., Chaudhari S. and Latif H. (2014), A structured approach for facilitating the implementation of ISO 50001 standard in the manufacturing sector, Sustainable Energy Technologies and Assessments, vol. 7, pp. 154–165.
Kujawińska A., Diering M., Rogalewicz M., Żywicki K. and Hetman Ł. (2018), Soft Modelling-Based Methodology of Raw Material Waste Estimation, in: Burduk A., Mazurkiewicz D. (eds.) Intelligent Systems in Production Engineering and Maintenance, Advances in Intelligent Systems and Computing, vol. 637, pp. 407–417.
European Commission (2018), Limiting Global Climate Change to 2 degrees Celsius – The way ahead for 2020 and beyond, Communication by the Commission to the European Council (http://eur-lex.europa.eu/LexUriServ/LexUriServ.do?uri=COM:2007:0002:FIN: EN:PDF) last accessed: 07.02.2018.
Lindgreen A. and Swaen V. (2010), Corporate Social Responsibility, International Journal of Management Reviews, Vol. 12, pp. 1–7. DOI: 10.1111/j.1468-2370.2009.00277.x
McKanne A. (2009), Thinking Globally: How ISO 50001 – Energy Management can make industrial energy efficiency standard practice, Ernest Orlando, Lawrence.
Osiński F. and Grudzień Ł. (2019), Polish SME Energy Efficiency in the Years 2014–2016, in: Machado J., Soares F., Veiga G. (eds.), Innovation, Engineering and Entrepreneurship. HELIX 2018. Lecture Notes in Electrical Engineering, Vol. 505, pp. 418-424, Springer, Switzerland. DOI: 10.1007/978-3-319-91334-6_57
Plis P. and Ociepa A. (2020), Improving energy management according to the ISO 50001 standard (in Polish), Energetyka, Vol. 11, pp. 622–625.
Rewers P., Trojanowska J., Diakun J., Rocha A. and Reis L.P. (2018), A study of priority rules for a levelled production plan, in: Hamrol A., Ciszak O., Legutko S., Jurczyk M. (eds.), Advances in Manufacturing. Lecture Notes in Mechanical Engineering, Cham, Switzerland, Springer, pp. 111–120.
Trojanowska J., Kolinski A., Varela M.L.R. and Machado J. (2017), The use of theory of constraints to improve production efficiency–industrial practice and research results, DES-tech Transactions on Engineering and Technology Research, pp. 537–542.
Trojanowska J., Kolinski A., Galusik D., Varela M.L.R. and Machado J. (2018), A methodology of improvement of manufacturing productivity through increasing operational efficiency of the production process, in: Hamrol A., Ciszak O., Legutko S., Jurczyk M. (eds.), Advances in Manufacturing. Lecture Notes in Mechanical Engineering, Springer, Cham., pp. 23–32. DOI: 10.1007/978-3-319-68619-6_3
Zerbst S., Bożek M., Grabowska M., Weber M. (2018), Analysis of the Conditions for Effective Use of Numerically Controlled Machine Tools. In: Hamrol A., Ciszak O., Legutko S. Jurczyk M. (eds.), Advances in Manufacturing. Lecture Notes in Mechanical Engineering, Cham, Switzerland, Springer, pp. 3–12.