Mosayeb Gholinia

Dr. Mosayeb Gholinia


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

View All Publications



25 May 2023 in Energies
Verified
Journal Article
Open access
PDF file
HNHossein Nabi
Hossein Nabi
MGMosayeb Gholinia
Mosayeb Gholinia
Mehdi KhiadaniMehdi Khiadani
Mehdi Khiadani
ASAbdellah Shafieian
Abdellah Shafieian
Photovoltaic/thermal systems are one of the most efficient types of solar collectors because they absorb solar radiation and generate electricity and heat simultaneously. For the first time, this paper presents an investigation into the impact of red wine-rGO/H2O nanofluid and paraffin wax on the thermohydraulic properties of a photovoltaic/thermal system. The study focuses on three innovative nonlinear arrangements of the serpentine tubes. The effects of these materials and configurations are analyzed through numerical simulations. To improve the performance, environmentally friendly materials, including red wine-rGO/H2O nanofluid and paraffin wax, have been used. Various performative parameters such as electrical and thermal efficiency of the photovoltaic/thermal system, exergy, and nanofluid concentration were investigated. The results demonstrated a significant enhancement in the system’s performance when using innovative serpentine tubes instead of simple tubes for the fluid flow path. The use of paraffin C18 increases electrical efficiency, while the use of paraffin C22 improves thermal efficiency. Moreover, the incorporation of phase change materials along with the utilization of innovative geometries in the serpentine tube led to a notable improvement in the outlet temperature of the fluid, increasing it by 2.43 K. Simultaneously, it substantially reduced the temperature of the photovoltaic cells, lowering it by 21.55 K. In addition, the new model demonstrated significant improvements in both thermal and electrical efficiency compared to the simple model. Specifically, the maximum thermal efficiency improvement reached 69.2%, while the maximum electrical efficiency improvement reached 11.7%.

20 January 2023 in Heat Transfer
Verified
Journal Article
Closed access
MAMehdi Asgari
Mehdi Asgari
MJMohammad Javidan
Mohammad Javidan
MGMosayeb Gholinia
Mosayeb Gholinia
MNMohammad Nozari
Mohammad Nozari
AAAliasghar Asgari
Aliasghar Asgari
DGDavood Domiri Ganji
Davood Domiri Ganji