A cold storage air conditioning system with energy-efficient supercooled water ice slurry generation by using heat recovery and regeneration

Ice slurry cold storage technology using supercooled water is considered one of the most efficient methods. In traditional systems, to prevent ice crystal blockage in the supercooled water exchanger, the water from ice tank is typically heated to 0.5°C to melt ice crystals , resulting in a 15%–20 % cooling loss and a potential blockage risk. Although heat regeneration method has been introduced to mitigate cooling loss, the internal heat-cold offset still limits system efficiency. In this study, a novel system integrating both heat recovery and heat regeneration is proposed to improve system efficiency. In the system, return chilled water is used to melt ice crystals, enabling cooling energy recovery and eliminating the heat-cold offset, while the regeneration exchanger is used to decrease the inlet temperature of the supercooled water exchanger, reducing the cooling loss. A mathematical model of the whole system is developed and the system performance under rated operating condition is analyzed. The results indicate the proposed system enhances ice-crystal melting, increases the effective utilization of cooling capacity by 7.14 %, and improves the ice-making COP by 6.1% compared with the traditional system, and increases the system COP by 18.3% and 12.2% compared with the traditional and regeneration systems, respectively.

Authors

Publication Details

Journal
Springer Link (Chiba Institute of Technology)
Published
2026-01-21
DOI
https://doi.org/10.1051/e3sconf/202668902001/pdf
Primary Topic
Phase Change Materials Research
Type
article
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article

A cold storage air conditioning system with energy-efficient supercooled water ice slurry generation by using heat recovery and regeneration

X. F. Li, Zonghua Huang, Xiaoqian Ma, Baolong Wang et al.
Springer Link (Chiba Institute of Technology)
Phase Change Materials Research
article

A cold storage air conditioning system with energy-efficient supercooled water ice slurry generation by using heat recovery and regeneration

X. F. Li, Zonghua Huang, Xiaoqian Ma, Baolong Wang, Wenxing Shi, Huan Wang, Fuhai Zha
article en

Abstract

Ice slurry cold storage technology using supercooled water is considered one of the most efficient methods. In traditional systems, to prevent ice crystal blockage in the supercooled water exchanger, the water from ice tank is typically heated to 0.5°C to melt ice crystals , resulting in a 15%–20 % cooling loss and a potential blockage risk. Although heat regeneration method has been introduced to mitigate cooling loss, the internal heat-cold offset still limits system efficiency. In this study, a novel system integrating both heat recovery and heat regeneration is proposed to improve system efficiency. In the system, return chilled water is used to melt ice crystals, enabling cooling energy recovery and eliminating the heat-cold offset, while the regeneration exchanger is used to decrease the inlet temperature of the supercooled water exchanger, reducing the cooling loss. A mathematical model of the whole system is developed and the system performance under rated operating condition is analyzed. The results indicate the proposed system enhances ice-crystal melting, increases the effective utilization of cooling capacity by 7.14 %, and improves the ice-making COP by 6.1% compared with the traditional system, and increases the system COP by 18.3% and 12.2% compared with the traditional and regeneration systems, respectively.

Springer Link (Chiba Institute of Technology)
Affordable and clean energy
Openalex Percentile: Top 80%
Phase Change Materials Research
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A cold storage air conditioning system with energy-efficient supercooled water ice slurry generation by using heat recovery and regeneration — X. F. Li, Zonghua Huang, et al. · Springer Link (Chiba Institute of Technology) (2026) | TGRS Research Map | TGRS