Abdelhak Lekbir

Dr. Abdelhak Lekbir

orcid

Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

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

Representative Publications

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1 December 2018 in Energy Conversion and Management
Verified
Journal Article
Closed access
ALAbdelhak Lekbir
Abdelhak Lekbir
SHSamir Hassani
Samir Hassani
MGMohd Ruddin Ab Ghani
Mohd Ruddin Ab Ghani
CGChin Kim Gan
Chin Kim Gan
Saad MekhilefSaad Mekhilef
Saad Mekhilef
SRSaidur Rahman
Saidur Rahman

21 January 2024 in Journal of Power Sources
Verified
Journal Article
Closed access
ALAbdelhak Lekbir
Abdelhak Lekbir
SHSamir Hassani
Samir Hassani
SMSaad Mekhilef
Saad Mekhilef

19 February 2024 in Journal of Power Sources
Verified
Journal Article
Closed access
RKRiad Khenfer
Riad Khenfer
ALAbdelhak Lekbir
Abdelhak Lekbir
ZRZahir Rouabah
Zahir Rouabah
MMMounir Meddad
Mounir Meddad
SBSeddik Benhadouga
Seddik Benhadouga
SMSaad Mekhilef
Saad Mekhilef

25 January 2021 in International Journal of Energy Research
Verified
Journal Article
Closed access
PDF file
ALAbdelhak Lekbir
Abdelhak Lekbir
SHSamir Hassani
Samir Hassani
Saad MekhilefSaad Mekhilef
Saad Mekhilef
RSR. Saidur
R. Saidur
MGMohd Ruddin Ab Ghani
Mohd Ruddin Ab Ghani
CGChin Kim Gan
Chin Kim Gan

3 April 2023 in Journal of Thermal Science and Engineering Applications
Verified
Journal Article
Closed access
PDF file
NBNadia Bouguetaia
Nadia Bouguetaia
NBNadir Bellel
Nadir Bellel
ALAbdelhak Lekbir
Abdelhak Lekbir
In this paper, the performances of a novel hybrid solar system using the Al2O3 nanofluid and pure water as a heat transfer fluid to operate a single-effect lithium bromide absorption chiller is investigated. In which the performance of the proposed system using the nanofluid during winter and summer under mixed and forced convection are evaluated. In which, the performances of solar collector are investigated experimentally, and the output performances of the water-LiBr absorption chiller system is conducted numerically using MATLAB platform. The results show that the obtained Reynolds number of the heat transfer fluid is laminar flow in summer with the maximum values 1700and 1600 for nanofluid and water, respectively; and transitory flow in winter with the maximum values of 2200 and 2100 for nanofluid and pure water, respectively. The proposed hybrid system achieves approximately 54%, 36%of maximum thermal efficiency during the winter and the summer, respectively. The obtained performance show that the absorption cycle at positive evaporation temperatures is very appreciable using the nanofluid as working fluid during both seasons and quite satisfactory by using the water during summer and winter seasons. Overall, proposed system has potential for further development in solar cooling system.

29 November 2024 in Clean Technologies and Environmental Policy
Verified
Journal Article
Closed access
PDF file
ALAbdelhak Lekbir
Abdelhak Lekbir
FZFares Zaoui
Fares Zaoui
RKRiad Khenfer
Riad Khenfer
KTKok Soon Tey
Kok Soon Tey
Saad MekhilefSaad Mekhilef
Saad Mekhilef