Vol. 2 No. 17 (2025): INTERNATIONAL JOURNAL OF SCIENCE AND TECHNOLOGY
Articles

RESEARCH OF THE HEAT BALANCE OF AN AUTONOMOUS UNDERFLOOR HEATING SYSTEM WITH A PCM ACCUMULATOR

Published 18-12-2025

Keywords

  • model rural houses, autonomous heat supply system, underfloor heating system with heat accumulator, heat pump device, heating season, sharply continental climatic conditions.

How to Cite

RESEARCH OF THE HEAT BALANCE OF AN AUTONOMOUS UNDERFLOOR HEATING SYSTEM WITH A PCM ACCUMULATOR. (2025). INTERNATIONAL JOURNAL OF SCIENCE AND TECHNOLOGY, 2(17), 20-23. https://doi.org/10.70728/tech.v02.i17.004

Abstract

As a result of the depletion of traditional fuel and energy sources in the world and the increase in the burden on the environment, the issue of saving and efficient use of natural fuel and energy resources is becoming one of the urgent problems on a global scale. Special attention is also paid to the issue of providing households with autonomous heat supply systems using sustainable energy resources in conditions of a sharply continental climate. In this article, the authors have developed a heating scheme for a rural model house with an heat pump unit (HPU) and a warm floor heating system with a heat accumulator. The heat balance equation for the developed rural model house with an HPU and a warm-floor heating system with a heat accumulator was developed using thermal engineering and heat-exchange methods. The calculations were carried out using the Matlab Simulink software package. The results of numerical modeling using the Matlab Simulink software package showed the need to determine the optimal ratio between heat sources and heat losses to ensure a stable microclimate in the room in the range of 20÷24 °C.

References

  1. 1. Узаков Г.Н., Давланов Х.А., Тошмаматов Б.М. Энергоэффективные системы и технологии с использованием альтернативных источников энергии //Альтернативная энергетика. 2021. Т. 1. С. 7-19.
  2. 2. Узаков Г.Н., Давланов Х.А., Тошмаматов Б.М. Анализ гибридных систем отопления жилых зданий, использующие ВИЭ//Альтернативная энергетика. Научно-технический журнал. 2023. Т. 8. № 1. С. 9-15.
  3. 3. Узаков Г.Н., Давланов Х.А., Камoлов Б.И., Тошмаматов Б.М. Интегрированные автономные системы энергоснабжения объектов, расположенных в сельской местности//Алтернативная энергетика. Научно-технический журнал. №2, 03.07.2023-г. Стр. 9-14.
  4. 4. Uzakov G.N., Shamurotova S.M., Toshmamatov B.M., Davlonov Kh.A. CFD analysis for a screw heat sink absorber tube of a solar water heater collector. // Engineering. -2025. -17(6). – pp. 315-334.
  5. 5. Uzakov G.N. and Shamurotova S. CFD analysis for absorber tube of a solar water heater collector. // E3S Web of Conferences. – 2024. – No 498. – P. 01013.
  6. 6. Hassan Z., Mahmood M., Ahmed N., Saeed M.H., Khan R., and Mujtaba M. Techno ‐ economic assessment of evacuated flat ‐ plate solar collector system for industrial process heat. // Energy Science & Engineering. – 2023. - 11(6). - no. February. - pp. 2185–2201.
  7. 7. Tejas V. et al. Performance analysis of solar thermal collectors: A comprehensive review. // Measurement: Energy. – 2025. – vol. 7. – p. 100059.
  8. 8. Makhanlall D., Jiang P. Performance analysis and optimization of a vapor-filled flat-plate solar collector. // Energy Proc. -2025. – vol. 70. – pp. 95–102.
  9. 9. Evangelisti L. et al. Latest advances on solar thermal collectors: a comprehensive review, Renew. // Sustain. Energy Rev. – 2019. – vol. 19. – pp. 1-20.
  10. 10. Toshmamatov B.M., Muradov I. and Khusenov A.A. Choosing an efficient heat accumulator for solar air heating collectors with flat reflectors//International journal of advanced research in science, engineering and technology. Vol. 11, Issue 10, October 2024. PP. 22445- 22449.
  11. 11. Toshmamatov B., Kodirov I., and Davlonov Kh. Determination of the energy efficiency of a flat reflector solar air heating collector with a heat accumulator//E3S Web of Conferences 402, 05010 (2023).