Design of a Heat Exchanger for the Pump Test Facility
Research output: Thesis › Master's Thesis
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2021.
Research output: Thesis › Master's Thesis
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TY - THES
T1 - Design of a Heat Exchanger for the Pump Test Facility
AU - Hasni, Maha
N1 - embargoed until null
PY - 2021
Y1 - 2021
N2 - It is certain that heat exchangers are a cornerstone in the modern industrial and technological scenery, as they mark their presence in a wide variety of applications. As a matter of fact, not only are they indispensable in day-to-day life and in domestic environments, but they also come across as crucial for energy efficient practices in the industry. Like so, the pump test facility in our university requires a heat exchanger which is needed for operations to be carried out properly at the pump lab. A detailed design of this heat exchanger is conducted based on specific operating conditions, in the goal of reaching the desired heat transfer and attaining a level of energy efficiency. Thereupon, a thermodynamic design method is explored, paired with a multiphase model simulated using the software OLGA. Finally, results of both tools are compared and matched to conclude optimum working conditions for the designed heat exchanger.
AB - It is certain that heat exchangers are a cornerstone in the modern industrial and technological scenery, as they mark their presence in a wide variety of applications. As a matter of fact, not only are they indispensable in day-to-day life and in domestic environments, but they also come across as crucial for energy efficient practices in the industry. Like so, the pump test facility in our university requires a heat exchanger which is needed for operations to be carried out properly at the pump lab. A detailed design of this heat exchanger is conducted based on specific operating conditions, in the goal of reaching the desired heat transfer and attaining a level of energy efficiency. Thereupon, a thermodynamic design method is explored, paired with a multiphase model simulated using the software OLGA. Finally, results of both tools are compared and matched to conclude optimum working conditions for the designed heat exchanger.
KW - heat exchanger
KW - thermodynamics
KW - industry
KW - energy efficiency
KW - university
KW - pump lab
KW - design
KW - heat transfer
KW - simulation
KW - OLGA
KW - Wärmetauscher
KW - Thermodynamik
KW - Industrie
KW - Energieeffizienz
KW - Universität
KW - Pumpenlabor
KW - Design
KW - Wärmeübertragung
KW - Simulation
KW - OLGA
M3 - Master's Thesis
ER -
