Leyla Amiri

Dr. Leyla Amiri

Dalhousie University
orcid

Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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16 January 2017 in The Canadian Journal of Chemical Engineering
Verified
Journal Article
Closed access
PDF file
NGNima Gharib
Nima Gharib
BBBhargav Bharathan
Bhargav Bharathan
Leyla AmiriLeyla Amiri
Leyla Amiri
MMMaureen McGuinness
Maureen McGuinness
Ferri HAssaniFerri HAssani
Ferri HAssani
Agus SasmitoAgus Sasmito
Agus Sasmito

1 October 2019 in Applied Energy
Verified
Journal Article
Closed access
Leyla AmiriLeyla Amiri
Leyla Amiri
MBMarco Antonio Rodrigues de Brito
Marco Antonio Rodrigues de Brito
DBDurjoy Baidya
Durjoy Baidya
AKAli Fahrettin Kuyuk
Ali Fahrettin Kuyuk
Ali MadisehAli Madiseh
Ali Madiseh
Ferri HAssaniFerri HAssani
Ferri HAssani

25 November 2023 in Case Studies in Thermal Engineering
Verified
Journal Article
Open access
SHSeyed Mojtaba Hosseinnia
Seyed Mojtaba Hosseinnia
Leyla AmiriLeyla Amiri
Leyla Amiri
HNHakim Nesreddine
Hakim Nesreddine
DMDominique Monney
Dominique Monney
Sébastien PoncetSébastien Poncet
Sébastien Poncet

24 April 2021 in Energies
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Journal Article
Open access
PDF file
Leyla AmiriLeyla Amiri
Leyla Amiri
EMEdris Madadian
Edris Madadian
NBNavid Bahrani
Navid Bahrani
Ali MadisehAli Madiseh
Ali Madiseh
Modern data centers are playing a pivotal role in the global economic situation. Unlike high-quality source of waste heat, it is challenging to recover the decentralized and low-quality waste heat sourced from data centers due to numerous technological and economic hurdles. As such, it is of the utmost importance to explore possible pathways to maximize the energy efficiency of the data centers and to utilize their heat recovery. Absorption chiller systems are a promising technology for the recovery of waste heat at ultra-low temperatures. In fact, the low temperature heat discharged from data centers cannot be retrieved with conventional heat recovery systems. Therefore, the present study investigated feasibility of waste heat recovery from data centers using an absorption chiller system, with the ultimate goal of electrical energy production. To fulfill this objective, a techno-economic assessment of heat recovery using absorption chiller (AC) technique for the data centers with power consumption range of 4.5 to 13.5 MW is performed. The proposed AC system enables saving electricity for the value of 4,340,000 kWh/year and 13,025,000 kWh/year leading to an annual reduction of 3068 and 9208 tons CO2 equivalent of greenhouse gas (GHG) emissions, respectively. The results of this study suggest an optimum change in the design of the data center while reducing the payback period for the investors.