TY - JOUR
T1 - Experimental and parametric sensitivity analysis of a novel indirect evaporative cooler for greener cooling
AU - Jamil, Muhammad Ahmad
AU - Imtiaz, Nida
AU - Ng, Kim Choon
AU - Xu, Ben Bin
AU - Yaqoob, Haseeb
AU - Sultan, Muhammad
AU - Shahzad, Muhammad Wakil
N1 - KAUST Repository Item: Exported on 2023-06-02
Acknowledgements: The authors would like to thank Northumbria University UK for funding under reference #RDF20/EE/MCE/SHAHZAD, and Northern Accelerator Proof-of-Concept award for AD4DCs (NACCF-232) awarded to Dr. Muhammad Wakil Shahzad.
PY - 2023/5/21
Y1 - 2023/5/21
N2 - Energy-efficient space cooling is one of the biggest challenges because of high energy consumption and emissions and exponentially growing demand. Besides, the use of high global warming potential chemical-based refrigerants in the conventional system is stressing the need for a sustainable and economical alternative. Owing to these reasons, water-based cooling systems have gained significant attention because of their simple operation, low energy consumption, easy manufacturing, and benign environmental footprints. However direct evaporative cooling systems usage is limited by high humidity issues because such levels of humidity are incompatible with human comfort and certain industrial needs such as electronics cooling. Regarding the existing indirect evaporative cooling systems, they have design limitations that have hindered their commercial development. These include multilayer heat transfer walls, complex manufacturing, heavyweight, microbial growth on hydrophilic surfaces, and water management issues. The proposed innovative indirect evaporative cooling system addresses the major limitations in existing systems such as water management and wet channel surface development. A prototype has been fabricated and tested. Experimental investigation showed that the system achieved competitive performance with a maximum temperature drop of 18 °C, a coefficient of performance of 31, and wet bulb efficiency of 93%. Besides, the system also offers several advantages like high operational life, low maintenance, low cost, and resilient design which can lead to commercial scale development for greener cooling.
AB - Energy-efficient space cooling is one of the biggest challenges because of high energy consumption and emissions and exponentially growing demand. Besides, the use of high global warming potential chemical-based refrigerants in the conventional system is stressing the need for a sustainable and economical alternative. Owing to these reasons, water-based cooling systems have gained significant attention because of their simple operation, low energy consumption, easy manufacturing, and benign environmental footprints. However direct evaporative cooling systems usage is limited by high humidity issues because such levels of humidity are incompatible with human comfort and certain industrial needs such as electronics cooling. Regarding the existing indirect evaporative cooling systems, they have design limitations that have hindered their commercial development. These include multilayer heat transfer walls, complex manufacturing, heavyweight, microbial growth on hydrophilic surfaces, and water management issues. The proposed innovative indirect evaporative cooling system addresses the major limitations in existing systems such as water management and wet channel surface development. A prototype has been fabricated and tested. Experimental investigation showed that the system achieved competitive performance with a maximum temperature drop of 18 °C, a coefficient of performance of 31, and wet bulb efficiency of 93%. Besides, the system also offers several advantages like high operational life, low maintenance, low cost, and resilient design which can lead to commercial scale development for greener cooling.
UR - http://hdl.handle.net/10754/692298
UR - https://linkinghub.elsevier.com/retrieve/pii/S2451904923002408
UR - http://www.scopus.com/inward/record.url?scp=85159711853&partnerID=8YFLogxK
U2 - 10.1016/j.tsep.2023.101887
DO - 10.1016/j.tsep.2023.101887
M3 - Article
SN - 2451-9049
VL - 42
SP - 101887
JO - Thermal Science and Engineering Progress
JF - Thermal Science and Engineering Progress
ER -
