Javascript must be enabled to continue!
Designing a Solar Heat Storage System using Heat Pipe and Phase-Change Material (PCM)
View through CrossRef
Phase change material (PCM) is used as a storage medium in a thermal heating system. The PCM's ability to store heat for a long time is suitable for combining with solar energy. PCM can absorb or release large amounts of latent heat at relatively constant temperatures. However, the PCM has poor thermal conductivity. The superconductive heat pipe is suitable to enhance the heat transfer in the PCM. The study aims to prove the concept of a unique thermal storage system that combines solar Fresnel lens, heat pipe, and phase change materials technologies. This study presented a detailed design and testing of the combined system under an actual outdoor environment. Four Fresnel lenses refracted the sunlight and focused on a heat collector. The lenses can be manually adjusted according to the sun's position. The heat is transferred to the PCM storage tank via a finned heat pipe. The testing results showed that the paraffin wax (PCM) has a melting temperature between 54 -59 °C. The highest temperature recorded in the paraffin wax tank was 121 °C which is suitable for many future applications. The system could store the heat up to 730 kJ by using 2 kg of paraffin. During the solidification of PCM (discharging), the system retained 120 kJ of heat for almost 7 hours with minimal heat loss. The system was proven to function well for storing the heat after the sunset, and it can be used for a passive power generation system, such as using thermoelectric cells.
Title: Designing a Solar Heat Storage System using Heat Pipe and Phase-Change Material (PCM)
Description:
Phase change material (PCM) is used as a storage medium in a thermal heating system.
The PCM's ability to store heat for a long time is suitable for combining with solar energy.
PCM can absorb or release large amounts of latent heat at relatively constant temperatures.
However, the PCM has poor thermal conductivity.
The superconductive heat pipe is suitable to enhance the heat transfer in the PCM.
The study aims to prove the concept of a unique thermal storage system that combines solar Fresnel lens, heat pipe, and phase change materials technologies.
This study presented a detailed design and testing of the combined system under an actual outdoor environment.
Four Fresnel lenses refracted the sunlight and focused on a heat collector.
The lenses can be manually adjusted according to the sun's position.
The heat is transferred to the PCM storage tank via a finned heat pipe.
The testing results showed that the paraffin wax (PCM) has a melting temperature between 54 -59 °C.
The highest temperature recorded in the paraffin wax tank was 121 °C which is suitable for many future applications.
The system could store the heat up to 730 kJ by using 2 kg of paraffin.
During the solidification of PCM (discharging), the system retained 120 kJ of heat for almost 7 hours with minimal heat loss.
The system was proven to function well for storing the heat after the sunset, and it can be used for a passive power generation system, such as using thermoelectric cells.
Related Results
Incorporating phase change materials in geothermal energy piles for thermal energy storage
Incorporating phase change materials in geothermal energy piles for thermal energy storage
Introduction
Geothermal energy piles (GEPs) are foundation elements that are installed in the ground to support the weight of the building to a competent strata. Energy loops are ...
Enhancing Solar Thermal Efficiency: PCM Integration for Compact Energy Storage Systems
Enhancing Solar Thermal Efficiency: PCM Integration for Compact Energy Storage Systems
The optimal utilization of solar energy presents a challenge in meeting round-the-clock hot water demands while accommodating limited space in modern architectural designs. Solar c...
Optimized Design of Pipe-in-Pipe Systems
Optimized Design of Pipe-in-Pipe Systems
Abstract
Deepwater subsea developments must address the flow assurance issues and increasingly these are forming a more critical part of the design. Pipe-in-pipe ...
Abstract 1697: Role of intra-tumoral bacteria in EGFR-tyrosine kinase inhibitor resistance
Abstract 1697: Role of intra-tumoral bacteria in EGFR-tyrosine kinase inhibitor resistance
Abstract
Although most lung cancers with EGFR-mutation respond to osimertinib, resistance eventually develops, and there are no approved targeted therapies once resi...
Investigation of Latent Heat Thermal Energy Storage System for AirConditioning Applications
Investigation of Latent Heat Thermal Energy Storage System for AirConditioning Applications
In this study an experimental setup was constructed to investigate the solidification process of PCM using two different types of heat exchangers: pipe heat exchanger and horizonta...
Analysis of a New Hybrid Water-Phase Change Material Heat Sink for Low Concentrated Photovoltaic Systems
Analysis of a New Hybrid Water-Phase Change Material Heat Sink for Low Concentrated Photovoltaic Systems
Concentrated photovoltaic (CPV) integrated with phase-change material (CPV-PCM) system is considered as a single module to reduce the CPV temperature rise and achieve higher solar ...
Cooling of Concentrated Photovoltaic System Using Various Configurations of Phase-Change Material Heat Sink
Cooling of Concentrated Photovoltaic System Using Various Configurations of Phase-Change Material Heat Sink
In the current work, a hybrid system including Concentrated photovoltaic (CPV) and phase change material (PCM) as a heat sink is considered as a single module to achieve high solar...
Experimental Investigation on Solar Water Heater Integrated with Thermal Battery Using Phase Change Material and Porous Media
Experimental Investigation on Solar Water Heater Integrated with Thermal Battery Using Phase Change Material and Porous Media
Evacuated tube heat pipe solar collector as a passive solar water heating system is a simple, reliable, and cost-effective way to capture the sun’s thermal energy to supply hot wat...

