logo
  • Home
  • Articles & Issues
    • Current
    • All Issues
  • About
    • Aims and Scope
    • Editorial Board
    • Indexing
  • For Authors
    • Submission
    • Terms of Publication
    • Formatting Guidelines
    • Peer Review Process
    • License Agreement
    • Charges and Financing
  • Ethics & Policies
    • Publication Ethics
    • Conflict of Interest
    • Open Access Policy
    • Archiving
    • Complaints Policy
    • Privacy Statement
    • Corrections and Retractions
    • Anti-plagiarism Policy
    • Generative AI Policy
  • Contacts
  • en
    • Українська

Ecological Safety and Balanced Use of Resources

  • Submit an article
  • Home
  • Articles & Issues
    • Current
    • All Issues
  • About
    • Aims and Scope
    • Editorial Board
    • Indexing
    • Sources of Financing
  • For Authors
    • Submission
    • Terms of Publication
    • Formatting Guidelines
    • Peer Review Process
    • Article Processing Charges
    • License Agreement
  • Ethics & Policies
    • Publication Ethics
    • Conflict of Interest
    • Open Access Policy
    • Archiving
    • Complaints Policy
    • Privacy Statement
    • Corrections and Retractions
    • Anti-plagiarism Policy
    • Generative AI Policy
  • Search
  • Contacts

Article

Consideration of climate conditions in comparative environmental and economic assessment of energy carriers

Yurii Kovalenko, Olga Khandogina
Abstract

The article is devoted to the definition and research of environmental and economic criteria for the assessment of energy carriers used for the buildings heating. The criteria for the comparison are based on the amount of heat and the emission of pollutants into the atmosphere. Various options for the use of energy carriers and corresponding design schemes of heating systems, the most often used in residential buildings, are considered. Calculations of the cost of thermal energy received for heating the building using common types of fuel (coal, firewood, pellets), electricity, and centralized heat supply were made. Also, a comparative assessment of the specific emissions of pollutants for boilers operating on natural gas, hard coal, firewood, and pellets was carried out based on the averaged indicators. It has been established that the minimum cost of a unit of heat is achieved when burning pellets, firewood, but the use of such energy sources leads to additional labor costs, and the most comfortable and least time-consuming is the use of central heating services, a gas or electric boiler with a water heating system. It was determined that considering the impact on the environment at the heated object location, the most safe are a boiler running on natural gas, a centralized heat supply, an electric boiler. Ways to reduce the cost of a thermal energy unit supplied to the building are proposed by using heat pumps. An assessment of the cost of thermal energy supplied to the building using a heat pump was carried out, which showed a significant reduction in the cost of thermal energy supplied to the building in the case of using a heat pump in various variants of the design features of the heating system considering climate conditions compared to options without the use of a heat pump

Download article

Received 11.07.2022

Revised 07.11.2022

Accepted 28.11.2022

https://doi.org/10.31471/2415-3184-2022-2(26)-111-121
Retrieved from Vol. 13, No. 2, 2022
Pages 111-121

Suggested citation

Kovalenko, Yu., & Khandogina, O. (2022). Consideration of climate conditions in comparative environmental and economic assessment of energy carriers. Ecological Safety and Balanced Use of Resources, 13(2), 111-121. https://doi.org/10.31471/2415-3184-2022-2(26)-111-121

References

[1] Heletukha, H. (2021). How to decarbonise the heating sector. Retrieved from https://ecopolitic.com.ua/ua/comments/yak-dekarbonizuvati-sektor-teplopostachannya/.

[2] Predun, K. (2017). Improving the energy efficiency of the existing housing stock in Ukraine. Urban Development and Spatial Planning, 65, 462-466.

[3] Maksymov , A., & Halinskyi , O. (2020). Features of the organization of thermomodernization projects. Management of Development of Complex Systems, 44, 159-165. doi: 10.32347/2412-9933.2020.44.159-165.

[4] Foshch, А. (2016). Thermo-modernization of buildings – resource energy conversation in Ukraine. Modern Construction and Architecture, 65, 137-141.

[5] D’Agostino, D., Parker, D., & Melià, P. (2019). Environmental and economic implications of energy efficiency in new residential buildings: A multi-criteria selection approach. Energy Strategy Reviews, 26. doi: 10.1016/j.esr.2019.100412.

[6] Di Foggia, G. (2018). Energy efficiency measures in buildings for achieving sustainable development goal. Heliyon, 4, 1-21. doi: 10.1016/j.heliyon.2018.e00953.

[7] Basok, B., Bazyeev, Ye., & Kuraieva, І. (2021). Adaptation of municipal heat energy to climate change. Visnyk of the National Academy of Sciences of Ukraine, 4, 60-75. doi: 10.15407/visn2021.04.060.

[8] Tarasevych, D., & Bogdan, O. (2021). Changes in climatic indicators of Ukraine and their impact on the choice of architectural and planning solutions. Problems of the Theory and History of Architecture of Ukraine, 21, 232-242. doi: 10.31650/2519-4208-2021-21-232-241.

[9] Gaterell, M.R., & McEvoy, M.E. (2005). The impact of climate change uncertainties on the performance of energy efficiency measures applied to dwellings. Energy and Buildings, 37(9), 982-995. doi: 10.1016/j.enbuild.2004.12.015.

[10] Clarke, L., Eom, J., Marten, E.H., Horowitz, R., Kyle, P., Link, R., Mignone, B.K., Mundra, A., & Zhou, Y. (2018). Effects of long-term climate change on global building energy expenditures. Energy Economics, 72, 667-677. doi: 10.1016/j.eneco.2018.01.003.

[11] Yukhymchuk, K.V., & Petrus, V.V. (2019). Comparative analysis of the use of heat pumps and gas boilers for heat supply of a multi-storey residential building. In Proceedings of the XLVIII scientific and technical conference of VNTU departments (pp. 2053-2056). Vinnytsia: Vinnytsia National Technical University.

[12] Zamytskyi, O.V., & Kalinichenko, A.A. (2019). Principles of the use of alternative energy sources at heat supply facilities of communal services and production. Herald of the Kryvyi Rih National University, 48, 148-154. doi: 10.31721/2306-5451-2019-1-48-148-154.

[13] Seregin, A., Osmak, A., & Bashta, A. (2014). Physico-chemical principles of designing equipment for thermochemical conversion of mixtures of biotechnological waste. Bulletin of the National Technical University “KhPI”. Series: Chemistry, Chemical Technology and Ecology, 52, 124-130.

[14] Electricity tariffs for households. (2022). Retrieved from https://www.prostobank.ua/spravochniki/indikatory_rynka/electric_tariff.

[15] Kharkiv Heating Networks Municipal Enterprise. (n.d.). Retrieved from https://www.hts.kharkov.ua/KPHTS_v2_public_info_tarify.php.

[16] Gas tariffs for households. (2022). Retrieved from https://index.minfin.com.ua/tariff/gas/harkov/.

[17] Naftogas. (2021). Retrieved from https://www.naftogaz.com/.

[18] Bosch gas boiler Gaz 7000 W ZWC 35-3MFA. (n.d.). Retrieved from https://vencon.ua/products/gazovyy-kotyel-bosch-gaz-7000-w-zwc-35-3mfa.

[19] Glaser, L., Zayats, Y., & Chudakov, P. (1975). Reference book on masses of aircraft and other materials (weight characteristics). Non-metallic materials. Applications. Moscow: Mashinostroenie.

[20] Firewood price. (n.d.). Retrieved from http://xn--80aaecg3byaeme7c0e.xn--j1amh/.

[21] Extra-long burning coal boiler. (n.d.). Retrieved from https://prom.ua/ua/p870982721-ugolnyj-kotel-sverhdlitelnogo.html.

[22] GKD 34.02.305-2002. (2002). Emissions of pollutants into the atmosphere from power plants. Method of determination. Retrieved from https://online.budstandart.com/ua/catalog/doc-page.html?id_doc=51507.

[23] Vdovchenko, V. (1991). Energy fuel of the USSR: Fossil coals, oil shale, peat, fuel oil and combustible natural gas. Moscow: Energoatomizdat.

[24] Calorific value of wood. (n.d.). Retrieved from https://tehnopost.kiev.ua/drova/13-teplotvornost-drevesiny.html#rashet_teplotvornost.

[25] Galperina, L., & Lukianenko, L. (2015). Pricing in the market of fuel agri-pellet in the system of the sustainable development. European Researcher. Series A, 101(12), 762-774. doi: 10.13187/er.2015.101.762.

[26] Dolacis, J., Tomsons, E., & Hrols, J. (2003). Fuelwood comparison with other kinds of fuel. In Environment. Technologies. Resources. Proceedings of the 4th international scientific and practical conference (pp. 67-72). Rezekne: Rezekne Higher Education Institution. doi: 10.17770/etr2003vol1.1982.

[27] Sycheva, N., Khmyzov, I., Molchan, A., Beloded, T., & Solov’yeva, T. (2015). Development of modification technology of wood raw material in production of solid biofuel. Proceedings of BSTU, 4(177), 175-178.

[28] A methodology for calculating emissions of pollutants and greenhouse gases into the air from the use of fuel for household needs in households. (2011). Retrieved from https://ukrstat.gov.ua/metod_polog/metod_doc/2011/98/metod.htm.

[29] Regarding the calculation of emissions of pollutants into the air from stationary sources of pollution for filling in form No. 2-TP (air) (annual) “Report on atmospheric air protection”. (2015). Retrieved from https://ukrstat.gov.ua/druk/coment/answer/19_16.htm.

[30] Emissions of pollutants into the atmosphere from municipal boilers with a capacity of less than 50 mW. Methodology for determination. (2005).

[31] Forest biomass and air emissions. (2010). Retrieved from https://www.eesi.org/files/em_forest_biomass_and_air_emissions_factsheet_8.pdf.

[32] Khudolieieva, L., Kutsokon, N., Rashydov, N., & Dugan, O. (2016). Quantitative and qualitative evaluations of environmentally dangerous wastes emission from burning wood comparing to natural gas and coal. Studia Biologica, 3-4, 61-70. doi: 10.30970/sbi.1003.491.

[33] EMEP/EEA air pollutant emission inventory guidebook 2019. (2019). Retrieved from https://www.eea.europa.eu/publications/emep-eea-guidebook-2019.

[34] Assad, M., & Peniazkov, O. (2010). Combustion products of liquid and gaseous fuels: Education, calculation, experiment. Minsk: Belorusskaia nauka.

[35] Chirillini, V., Sychev, V., & Sheindlin, A. (1979). Technical thermodynamics. Moscow: MPEI Publishing House.

[36] Understanding COP: Coefficient of performance of heat pumps. (n.d.). Retrieved from https://learnmetrics.com/coefficient-of-performance/.

[37] Bezrodny, M., & Misiura, T. (2020). Heat pump system for air heating and ventilation of an industrial building with excessive moisture. KPI Science News, 2, 7-16. doi: 10.20535/kpi-sn.2020.2.205111.

[38] Kudelya, P., & Dubovskyi,  S. (2022). Energy and exergy analysis of typical heating systems. Power Engineering: Economics, Technique, Ecology, 2, 25-34. doi: 10.20535/1813-5420.2.2022.261364.

[39] Shapoval, O., Chepurna, N., & Kirichenko, M. (2021). An analysis of effectiveness of air heat pump operation dependent on change of external air temperature. Ventilation, Illumination and Heat Gas Supply, 37, 24-30. doi: 10.32347/2409-2606.2021.37.24-30.

[40] Bezrodnyi, M.K., & Prytula, N.O. (2013). Thermodynamics efficiency of heat pump charts of heat supply. Visnyk of Vinnytsia Polytechnical Institute, 3, 39-45.

[41] Technical documentation. (n.d.). Retrieved from https://www.buderus.com/ua/uk/%D0%B4%D0%BB%D1%8F-%D0%BF%D1%80%D0%BE%D1%84%D0%B5%D1%81%D1%96%D0%BE%D0%BD%D0%B0%D0%BB%D1%96%D0%B2/.

Ivano-Frankivsk National Technical University of Oil and Gas 76019, 15 Karpatska Str., Ivano-Frankivsk, Ukraine

  • mail@esbur.com.ua