This research will be helpful in expanding and improving the energy transmission and heat transfer control theory of the underground seasonal thermal storage system and provide
The maximum energy storing capacity (Q max) in [J] of a thermal energy storage system is often found using Equation (1).(1) Q m a x = V ∗ u ∗ ρ ∗ c p ∗ (T t o p − T b) where V
Semantic Scholar extracted view of "Economic dispatch and flexibility enhancement of multi-energy microgrid considering cross-seasonal heat balance of ground source heat pump" by
In engineering applications and specific experimental research, V. Tirllat-Berdal et al. [[44], [45], [46]] used simulation and experimental method to study the analysis of the
This article isn''t meant to criticise heat pumps; rather, it questions the effectiveness of the EPC system for energy ratings. In December 2023, I completed a comprehensive refurbishment of a flat, enhancing its layout and
Experimental performance study on a dual-mode CO2 heat pump system with thermal storage: 2017 [41] Heating, cooling: Experimental: Water: CO 2: 3 kW: 27 °C: 60 °C:
The new grant - the boiler upgrade scheme, or BUS - offers an upfront payment designed to make heat pump installation more affordable. Heat pumps installed after 1 April 2022 are eligible, although the voucher
The result was all 33 London boroughs produced heat maps [201, 203], 13 energy masterplans were produced between 2012 and 2016, 9 ATES systems were installed in London, and new
Thermochemical energy storage, a promising candidate for seasonal solar thermal energy storage, offers an economic solution to mitigate the use of fossil fuels and CO
Li, Z. M.: Study on operation mode of solar-ground source heat pump system for cross-season heat storage. Sci. Technol. Horiz. 04, 174–175 (2017) Google Scholar Liu, M.S.,
The increase in the tank temperature at the end of the heating period was beneficial for shortening the duration of the heat storage period for the following year. The feasibility of utilizing solar thermal energy and cascaded phase change heat storage for cross-seasonal heating has been demonstrated in this study.
In 2008, Qi et al. designed a solar heat pump heating system with seasonal latent heat storage (SHPH-SLHTS system). They developed a mathematical model of the system to study its system performance. The system mainly consists of solar collector, thermal storage tank, heat pump unit, circuit pump and valve, etc.
The mismatch between solar radiation resources and building heating demand on a seasonal scale makes cross-seasonal heat storage a crucial technology, especially for plateau areas. Utilizing phase change materials with high energy density and stable heat output effectively improves energy storage efficiency.
Generally speaking, seasonal thermal energy storage can be used by storing summer heat for winter use or storing winter cold for summer use, i.e., summer heat for winter use and winter cold for summer use. Common seasonal heat storage includes seasonal sensible heat storage, seasonal latent heat storage, and seasonal thermochemical heat storage.
Heat storage methods for solar-driven cross-seasonal heating include tank thermal energy storage (TTES), pit thermal energy storage (PTES), borehole thermal energy storage (BTES), and aquifer thermal energy storage (ATES) 14, 15, 16. As heat storage volume increases, hot water preparation costs and heat loss per unit volume decrease.
This study integrates cascaded phase change with a cross-seasonal heat storage system aimed at achieving low-carbon heating. The simulation analyzes heat distribution and temperature changes from the heat storage system to the heating terminal.
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