Authors :
Zilan Öner; Ayşegül Kasap; Eda Nur Özer; Gözde Başoğlu; Melek Çınkı
Volume/Issue :
Volume 9 - 2024, Issue 11 - November
Google Scholar :
https://tinyurl.com/bdcsfp9r
Scribd :
https://tinyurl.com/4anvuawd
DOI :
https://doi.org/10.5281/zenodo.14512787
Abstract :
This study investigates the effectiveness of XPS
(extruded polystyrene) and melamine materials in
improving the thermal insulation performance of motor
maintenance covers. The research focuses on thermal
analyses aimed at ensuring that motor components operate
within optimal temperature ranges by comparing the heat
transfer capacities of these materials. The study
commenced with the design of the motor maintenance
cover, followed by the selection of suitable materials and
the determination of process parameters, taking
environmental conditions into account. Heat flow analysis
was conducted using the defined parameters, and based on
the results, the thermal performance of the materials was
compared. It was found that XPS, due to its low thermal
conductivity, minimizes heat transfer and demonstrates
superior thermal insulation performance. Melamine, on
the other hand, emerged as a significant option for
ensuring safety, as it maintains thermal insulation even at
high temperatures. The differences in the thermal
performance of both materials were assessed based on the
intended application of each material. The study
demonstrates that XPS material provides more optimal
thermal insulation for motor maintenance covers,
enhancing long-term safety. XPS is considered a more
suitable option for such applications due to its low thermal
conductivity and durability.
Keywords :
XPS (Extruded Polystyrene); Melamine; Heat Transfe; Engine Maintenance Cover; Thermal Performancecomponen.
References :
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This study investigates the effectiveness of XPS
(extruded polystyrene) and melamine materials in
improving the thermal insulation performance of motor
maintenance covers. The research focuses on thermal
analyses aimed at ensuring that motor components operate
within optimal temperature ranges by comparing the heat
transfer capacities of these materials. The study
commenced with the design of the motor maintenance
cover, followed by the selection of suitable materials and
the determination of process parameters, taking
environmental conditions into account. Heat flow analysis
was conducted using the defined parameters, and based on
the results, the thermal performance of the materials was
compared. It was found that XPS, due to its low thermal
conductivity, minimizes heat transfer and demonstrates
superior thermal insulation performance. Melamine, on
the other hand, emerged as a significant option for
ensuring safety, as it maintains thermal insulation even at
high temperatures. The differences in the thermal
performance of both materials were assessed based on the
intended application of each material. The study
demonstrates that XPS material provides more optimal
thermal insulation for motor maintenance covers,
enhancing long-term safety. XPS is considered a more
suitable option for such applications due to its low thermal
conductivity and durability.
Keywords :
XPS (Extruded Polystyrene); Melamine; Heat Transfe; Engine Maintenance Cover; Thermal Performancecomponen.