Seyyed Ali Sadat

Mr. Seyyed Ali Sadat

Electrical and Computer Engineering, Western University, London, Ontario, Canada
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Research Focus & Metrics

Academic Career Length

8Years (2019-Present)

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

Representative Publications

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1 October 2021 in Sustainable Energy Technologies and Assessments
Verified
Journal Article
Closed access
Seyyed Ali SadatSeyyed Ali Sadat
Seyyed Ali Sadat
JFJamal Faraji
Jamal Faraji
MNMohammad Nazififard
Mohammad Nazififard
AKAbbas Ketabi
Abbas Ketabi

1 October 2021 in Sustainable Energy Technologies and Assessments
Verified
Journal Article
Closed access
Seyyed Ali SadatSeyyed Ali Sadat
Seyyed Ali Sadat
MFMohammadreza Vakilalroaya Fini
Mohammadreza Vakilalroaya Fini
HHHamed Hashemi-Dezaki
Hamed Hashemi-Dezaki
MNMohammad Nazififard
Mohammad Nazififard

21 October 2023 in Energy Conversion and Management
Verified
Journal Article
Closed access
Seyyed Ali SadatSeyyed Ali Sadat
Seyyed Ali Sadat
JTJonathan Takahashi
Jonathan Takahashi
Joshua M. PearceJoshua M. Pearce
Joshua M. Pearce

11 May 2020 in Energy Science & Engineering
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Journal Article
Open access
PDF file
Seyyed Ali SadatSeyyed Ali Sadat
Seyyed Ali Sadat
JFJamal Faraji
Jamal Faraji
MBMasoud Babaei
Masoud Babaei
AKAbbas Ketabi
Abbas Ketabi
Many efforts have been made to increase the utilization of renewable energy resources (RESs) in Iran. This paper aimed to evaluate the techno‐economic performance of an introduced hybrid microgrid (HMG) in eight climate zones of Iran. Therefore, ten cities are selected from the eight climate conditions of Iran. An electricity pricing strategy is also implemented according to the electricity tariffs defined by the Ministry of Energy (MOE) of Iran. The proposed electricity pricing strategy is applied to the HOMER software for investigating the optimal system configuration, RES electricity generation, and the economics of each understudy city. Optimization results indicate that Urmia (in moderate and rainy climate zone) has the least net present cost (NPC) (−5839$) and levelized cost of energy (COE) (−0.0122 $/kWh), whereas Golestan (in semimoderate and rainy climate zone) has the highest NPC (4520 $) and COE (0.012 $/kWh). It is shown that the combination of photovoltaic (PV)/wind turbine (WT)/converter in the grid‐connected operation mode is the most economical configuration. Moreover, the cities with higher potentials of wind speed and solar irradiance have lower NPC and COE. It is concluded that the utilization of the battery energy storage (BES) is technically and economically infeasible for all eight climate zones, even if the stored electricity is sold to the grid. Two sensitivity analyses are conducted to the electricity feed‐in‐tariff (FiT) and solar module price, respectively. The first sensitivity analysis indicates that by increasing FiT, more contribution of RESs is seen, which leads to lower COE and NPC. Furthermore, the two cities of Urmia and Yazd have the highest NPC and COE reductions. The second sensitivity analysis studies the module price impacts on the NPC and COE of each understudy city. It is revealed that the PV module price has a considerable effect on NPC and COE. However, this effect is more significant in some cities such as Bam, where a linear relationship is seen between the module price and economic results (NPC and COE).


5 August 2022 in Renewable and Sustainable Energy Reviews
Verified
Journal Article
Closed access
Seyyed Ali SadatSeyyed Ali Sadat
Seyyed Ali Sadat
BHBram Hoex
Bram Hoex
Joshua M. PearceJoshua M. Pearce
Joshua M. Pearce