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| Ref. | Purpose | Methodology | Results |
|
| Qadrdan and Shayegan 2008 [29] | Economic assessment of hydrogen fueling station in Iran | HOMER software | (i) Hydrogen cost from natural gas: 3-7 $/kg
(ii) Hydrogen cost from electrolysis: 6-10 $/kg |
| Shiroudi and Taklimi 2011 [30] | Solar hydrogen production in Taleghan, Iran | HOMER software | Excess electricity can be stored in the form of hydrogen |
| Shiroudi et al. 2013 [31] | Assessment of photovoltaic- (PV-) hydrogen system in Taleghan, Iran | HOMER software | Total net present cost (NPC) and levelized cost of energy (LCOE) are 237509 $ and 3.35 $/kWh, respectively |
| Nasiri et al. 2015 [32] | Status of hydrogen and FC in Iran | Technological innovation system approach | Supportive laws and regulation are needed for the mobilization of financial resources |
| Mostafaeipour et al. 2016 [33] | Wind hydrogen production in Fars Province, Iran | Statistical and analytical solution | Abadeh has better potential with producing hydrogen for 22 cars/week |
| Homayouni et al. 2016 [34] | Techno-econo-enviro assessment of solar hydrogen to supply combined cooling, heat, and power load in Tehran, Iran | Particle swarm optimization simulation | The most economic system has solar and fossil fuel with avoided 75% of CO2 emission in comparison by standalone diesel system |
| Fazelpour et al. 2016 [35] | Economic analysis of FC-based in Tehran, Iran | HOMER software | Wind-hydrogen-battery system with total NPC 63190 $ is the most economical system |
| Alavi et al. 2016 [36] | Wind-hydrogen assessment in Sistan and Baluchestan Province, Iran | Statistical and analytical solution | Highest amount of hydrogen is 39.82 ton/year that related to Lutak station |
| Ramazankhani et al. 2016 [37] | Hydrogen production from geothermal in Iran | Multicriteria decision-making methods | East Azarbaijan is the best location for hydrogen production |
| Alavi et al. 2017 [38] | Wind-hydrogen feasibility in Chabahar, Iran | Statistical and analytical solution | Highest amount of hydrogen is 194.36 ton/year that related to Vestas V164 wind turbine |
| Qolipour et al. 2017 [39] | Wind-solar feasibility for electric and hydrogen production for Hendijan, Iran | HOMER software | 3153.7 MWh of electricity and 31680 kg hydrogen are produced |
| Mostafaeipour et al. 2017 [40] | Assessment of solar-hydrogen in Kerman Province, Iran | Data envelopment analysis (DEA) and Technique for Order of Preference by Similarity to Ideal Solution methods | Lalezar is the first priority |
| Rezaei et al. 2018 [41] | Hydrogen production from seawater using wind turbine in coasts of Iran | Statistical and analytical solution | Anzali has the best potential, and 22 EWT direct wind 52/900 could produce the hydrogen for all cars in Anzali |
| Ashrafi et al. 2018 [42] | Hydrogen production from wind in 5 regions of Iran by 3 extrapolating Weibull methods | Statistical and analytical solution, geographic information system (GIS) software | Amount of hydrogen production is shown by GIS maps |
| Rezaei et al. 2019 [43] | Hydrogen production from wind-solar in 10 cities of Iran | Statistical and analytical solution, RETScreen software | Manjil has the greatest amount of wind hydrogen (91 kg/day), and Zahedan has the greatest amount of solar hydrogen (20 kg/day) |
| Mostafaeipour et al. 2019 [44] | Wind-hydrogen assessment in Firuzkuh, Iran | HOMER software, DEA, and DEMATEL methods | Annually 1014 kg hydrogen produce by using GE 1.5 sl wind turbine |
| Jahangiri et al. 2019 [45] | Provision of electricity and hydrogen for Bandar Abbas, Iran | HOMER software | Lowest prices of produced hydrogen and electricity are 0.496 $/kg and 1.55 $/kWh, respectively |
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