Numerical Simulation of Passive Cooling Beam and Its Optimization to Increase the Cooling Power

This article is focused on the research of passive cooling beams and increasing their cooling capacity. A passive cooling beam with four tubes was chosen as a model. A mathematical model was built using the corresponding criterion equations to capture the behavior of a passive cooling beam. This mat...

Full description

Bibliographic Details
Main Authors: Katarína Kaduchová, Richard Lenhard
Format: Article
Language:English
Published: MDPI AG 2021-08-01
Series:Processes
Subjects:
Online Access:https://www.mdpi.com/2227-9717/9/8/1478
id doaj-07d4a07416ef437a89becd696e4cae14
record_format Article
spelling doaj-07d4a07416ef437a89becd696e4cae142021-08-26T14:16:37ZengMDPI AGProcesses2227-97172021-08-0191478147810.3390/pr9081478Numerical Simulation of Passive Cooling Beam and Its Optimization to Increase the Cooling PowerKatarína Kaduchová0Richard Lenhard1Department of Power Engineering, Faculty of Mechanical Engineering, University of Zilina, 010 26 Zilina, SlovakiaDepartment of Power Engineering, Faculty of Mechanical Engineering, University of Zilina, 010 26 Zilina, SlovakiaThis article is focused on the research of passive cooling beams and increasing their cooling capacity. A passive cooling beam with four tubes was chosen as a model. A mathematical model was built using the corresponding criterion equations to capture the behavior of a passive cooling beam. This mathematical model can be used to optimize geometrical parameters (the distance between the ribs, rib height and thickness, and diameter and number of tubes), by changing these geometric parameters we can increase the cooling performance. The work includes a mathematical model for calculating the boundary layer, which has a significant influence on the cooling performance. The results obtained from the created mathematical model show that the model works correctly and can be used to optimize the cooling performance of passive cooling beams. To better understand the behavior of a passive cooling beam in a confined space, the entire device was numerically simulated, as was the flow in the intercostal space.https://www.mdpi.com/2227-9717/9/8/1478passive cooling beammathematical modelnumerical modelsimulationcooling powerexchanger
collection DOAJ
language English
format Article
sources DOAJ
author Katarína Kaduchová
Richard Lenhard
spellingShingle Katarína Kaduchová
Richard Lenhard
Numerical Simulation of Passive Cooling Beam and Its Optimization to Increase the Cooling Power
Processes
passive cooling beam
mathematical model
numerical model
simulation
cooling power
exchanger
author_facet Katarína Kaduchová
Richard Lenhard
author_sort Katarína Kaduchová
title Numerical Simulation of Passive Cooling Beam and Its Optimization to Increase the Cooling Power
title_short Numerical Simulation of Passive Cooling Beam and Its Optimization to Increase the Cooling Power
title_full Numerical Simulation of Passive Cooling Beam and Its Optimization to Increase the Cooling Power
title_fullStr Numerical Simulation of Passive Cooling Beam and Its Optimization to Increase the Cooling Power
title_full_unstemmed Numerical Simulation of Passive Cooling Beam and Its Optimization to Increase the Cooling Power
title_sort numerical simulation of passive cooling beam and its optimization to increase the cooling power
publisher MDPI AG
series Processes
issn 2227-9717
publishDate 2021-08-01
description This article is focused on the research of passive cooling beams and increasing their cooling capacity. A passive cooling beam with four tubes was chosen as a model. A mathematical model was built using the corresponding criterion equations to capture the behavior of a passive cooling beam. This mathematical model can be used to optimize geometrical parameters (the distance between the ribs, rib height and thickness, and diameter and number of tubes), by changing these geometric parameters we can increase the cooling performance. The work includes a mathematical model for calculating the boundary layer, which has a significant influence on the cooling performance. The results obtained from the created mathematical model show that the model works correctly and can be used to optimize the cooling performance of passive cooling beams. To better understand the behavior of a passive cooling beam in a confined space, the entire device was numerically simulated, as was the flow in the intercostal space.
topic passive cooling beam
mathematical model
numerical model
simulation
cooling power
exchanger
url https://www.mdpi.com/2227-9717/9/8/1478
work_keys_str_mv AT katarinakaduchova numericalsimulationofpassivecoolingbeamanditsoptimizationtoincreasethecoolingpower
AT richardlenhard numericalsimulationofpassivecoolingbeamanditsoptimizationtoincreasethecoolingpower
_version_ 1721190344461123584