Javascript must be enabled to continue!
The Optimum Fins Length Distribution of Tabular PCM Heat Exchanger
View through CrossRef
The study aims to find the optimal fin length distribution for improved
heat transfer during melting and solidification in a tubular PCM heat
exchanger designed for heat storage. Three types of horizontal PCM
tabular heat exchangers, all with five longitudinal fins, were studied
numerically. While maintaining a constant heat transfer area, each model
depicts a unique fin length distribution design. The first model, which
serves as the reference design, has a homogeneous fin length
distribution and each fin is 30 mm long. The second model has shorter
upper and side fins and longer lower fins (20 mm for the upper fin, 25
mm for the side fins, and 40 mm for the lower fins). The third model has
long lower fins but shorter than that of second model, short side fins
and no change in upper fin length with reference design (30 mm for upper
fin, 25 mm for side fins and 35 mm for lower fins). The findings
indicate that the second model exhibits the best heat transfer
performance for the melting process, while the first model is most
effective for solidification. Interestingly, the third design emerges as
the optimum choice for both melting and solidification processes.
Title: The Optimum Fins Length Distribution of Tabular PCM Heat Exchanger
Description:
The study aims to find the optimal fin length distribution for improved
heat transfer during melting and solidification in a tubular PCM heat
exchanger designed for heat storage.
Three types of horizontal PCM
tabular heat exchangers, all with five longitudinal fins, were studied
numerically.
While maintaining a constant heat transfer area, each model
depicts a unique fin length distribution design.
The first model, which
serves as the reference design, has a homogeneous fin length
distribution and each fin is 30 mm long.
The second model has shorter
upper and side fins and longer lower fins (20 mm for the upper fin, 25
mm for the side fins, and 40 mm for the lower fins).
The third model has
long lower fins but shorter than that of second model, short side fins
and no change in upper fin length with reference design (30 mm for upper
fin, 25 mm for side fins and 35 mm for lower fins).
The findings
indicate that the second model exhibits the best heat transfer
performance for the melting process, while the first model is most
effective for solidification.
Interestingly, the third design emerges as
the optimum choice for both melting and solidification processes.
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 ...
Solidification Enhancement in a Triple-Tube Latent Heat Energy Storage System Using Twisted Fins
Solidification Enhancement in a Triple-Tube Latent Heat Energy Storage System Using Twisted Fins
This work evaluates the influence of combining twisted fins in a triple-tube heat exchanger utilised for latent heat thermal energy storage (LHTES) in three-dimensional numerical s...
Understanding multi-fin swimming and maneuvering to develop highly capable swimming robots
Understanding multi-fin swimming and maneuvering to develop highly capable swimming robots
Fish swim underwater with levels of agility and maneuverability that far exceed those of contemporary unmanned underwater vehicles (UUVs). While UUVs primarily rely on rectilinear ...
Thermal behavior of phase change material (PCM) based cavity: experimental and numerical validation
Thermal behavior of phase change material (PCM) based cavity: experimental and numerical validation
<p>Recently, thermal energy storage (TES) includes technologies for collecting and storing energy for later use in domestic and industry by using Phase Change Materials (PCMs...
Thermal behavior of phase change material (PCM) based cavity: experimental and numerical validation
Thermal behavior of phase change material (PCM) based cavity: experimental and numerical validation
<p>Recently, thermal energy storage (TES) includes technologies for collecting and storing energy for later use in domestic and industry by using Phase Change Materials (PCMs...
Designing a Solar Heat Storage System using Heat Pipe and Phase-Change Material (PCM)
Designing a Solar Heat Storage System using Heat Pipe and Phase-Change Material (PCM)
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. PC...
Numerical Investigation of Power Generation Enhancement for Exhaust Heat Exchanger with Cylindrical Grooves in Thermoelectric Generator Systems
Numerical Investigation of Power Generation Enhancement for Exhaust Heat Exchanger with Cylindrical Grooves in Thermoelectric Generator Systems
<div class="section abstract"><div class="htmlview paragraph">For vehicle thermoelectric generator, heat would be directly transferred into electricity by thermoelectri...
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...

