Calculation of phace change heat accumulator in complex of energy efficient ventilation system
DOI:
https://doi.org/10.26906/znp.2019.52.1697Keywords:
heat accumulator, energy efficient ventilation system, phase transitionAbstract
The classification of the main seasonal heat energy storage batteries is given, and the modern circuit diagram of the phase
shift battery as part of the system with a heat pump and a solar collector is considered. The disadvantage of water heaters is
their large volume in most cases. By utilizing the accumulated latent heat of substances, a significant reduction in capital
costs is achieved. The possibility of creating energy-saving ventilation systems with the use of a seasonal heat accumulator
working on phase transformations of heat-accumulating material is considered. The linear stationary mathematical model of
the battery thermal balance is made and on the basis of the calculation results graphs and diagrams are constructed enablingto
analyze the work of the heat accumulator during the year. The classification of the main seasonal accumulators of thermal
energy and ventilation systems with a ground heat exchanger use is considered. In the article the theoretical and
computational research of the seasonal heat accumulator creation and application possibility working on phase transitions of
heat-accumulating substances (water) in the ventilation system of a residential individual house is given.
References
Kenisarin, M.M. & Karabaev, M.K. (1987). Centralized
solar thermal systems with seasonal heat storage (overview).
Tashkent: UzNIITI.
Viessmann.com.ua [Internet resourse]. Access mode:
Gulia, N.V. (1980). Energy storage. Moscow: Science.
Viloh, Yu. & Tojber, V. (1981). Accumulation of heat
by using the hidden heat of melting of substances. Stadt-und
Gebäudetechnik, 35(11), 326-328.
Rp5.ua [Internet resourse]. Access mode: www.rp.ua
(date of appeal 30.05.2019).
Florides, G. & Kalogirou, S. (2007). Ground heat
exchangers -A review of systems, models and applications.
Renewable Energy, 32(15), 2461-2478.
https://doi.org/10.1016/j.renene.2006.12.014
Soni, S., Pandey, M. & Bartaria, V. (2015). Ground
coupled heat exchangers: A review and applications.
Renewable and Sustainable Energy Reviews, 47, 83-92.
https://doi.org/10.1016/j.rser.2015.03.014
Andersson, O. & Hägg, M. (2008), Deliverable 10 -
Sweden - Preliminary design of a seasonal heat storage for
ITT Flygt, Emmaboda, Sweden. Integration of geothermal
energy into industrial applications (IGEIA).
Turgut, B., Dasgan, H.Y., Abak, K., Paksoy, H.,
Evliya, H. & Bozdag, S. (2009). Aquifer thermal energy
storage application in greenhouse climatization. Acta Hortic.
, 143-148.
https://doi.org/10.17660/ActaHortic.2009.807.17
DBN V.2.2-15:2015. Residential buildings. Basics
(2015). State building of Ukraine.