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var str = 'Simulation numérique du transfert de chaleur mixte dans une cavité carrée: effet de la présence des chicanes';
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]]>
Simulation numérique]]>
Convection mixte]]>
Cisaillement des parois]]>
Vitesse de rotation]]>
Chicanes]]>
Dans cette étude, nous avons simulé numériquement l’influence de la vitesse de rotation du positionnement des chicanes et des cisaillements des parois sur le transfert de chaleur par convection mixte dans une cavité carrée. La paroi verticale gauche est chauffée à une température constante plus élevée que celle de la paroi verticale droite Th<Tc et les deux parois horizontales sont adiabatiques. La méthode des volumes finis est utilisée pour résoudre les équations gouvernantes dimensionnelles. La vitesse de cisaillement est déterminée pour un nombre de Richardson
Ri=10, la vitesse de rotation du corps solide est comprise entre 10 et 40 rd/s. Le nombre de Grashof
Gr est fixé à 105 et le nombre de Prandtl Pr est maintenu constant 0.71. Les résultats obtenus dans cette étude montrent que, l’influence de la vitesse de rotation est présente pour les configurations avec chicane, en outre, le nombre de Nusselt moyen Numoy prend des valeurs maximales pour la configuration sans chicanes.]]>
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var str = 'Belmiloud, Mohamed Amine';
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]]>
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var str = 'Sad Chemloul, Noureddine';
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]]>
Journal of Renewable Energies; Vol. 19 No. 1 (2016): Volume 19 (Regular); 1 – 10]]>
Journal of Renewable Energies; Vol. 19 No 1 (2016): Volume 19 (Regular); 1 – 10]]>
2716-8247]]>
1112-2242]]>
10.54966/jreen.v19i1]]>
Renewable Energy Development Center]]>
2023-10-17]]>
Copyright (c) 2021 Journal of Renewable Energies]]>
https://creativecommons.org/licenses/by-sa/4.0]]>
https://revue.cder.dz/index.php/rer/article/view/542/1226]]>
application/pdf]]>
eng]]>
info:eu-repo/semantics/article]]>
info:eu-repo/semantics/publishedVersion]]>
https://revue.cder.dz/index.php/rer/article/view/542]]>
10.54966/jreen.v19i1.542]]>
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var str = 'Les techniques de dépôt de couches minces et leurs applications';
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]]>
CVD]]>
PVD]]>
Sol-gel]]>
ALD]]>
Atomic Layer Deposition]]>
OMCVD]]>
Organo-Metallic CVD]]>
LCVD]]>
Laser CVD]]>
PECVD]]>
Plasma Enhanced CVD]]>
Substrat]]>
Plusieurs techniques de dépôt de couches minces sont développées, mais leurs applications peuvent être conditionnées par des conditions opératoires ou restreintes à une surface réduite de substrat. La technique ALD ‘Atomic Layer Deposition’ est une option idéale pour effectuer des dépôts de couches minces dans des conditions de température plus douce et de contrôle d’épaisseur de couches sur des substrats de grande surface. Elle peut être utilisée pour des applications variées en comparaison aux autres techniques.]]>
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var str = 'Mennad, Abdelkader';
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]]>
Journal of Renewable Energies; Vol. 18 No. 4 (2015): Volume 18 (Regular); 713 - 719]]>
Journal of Renewable Energies; Vol. 18 No 4 (2015): Volume 18 (Regular); 713 - 719]]>
2716-8247]]>
1112-2242]]>
10.54966/jreen.v18i4]]>
Renewable Energy Development Center]]>
2023-10-18]]>
Copyright (c) 2021 Journal of Renewable Energies]]>
https://creativecommons.org/licenses/by-sa/4.0]]>
https://revue.cder.dz/index.php/rer/article/view/541/1337]]>
application/pdf]]>
eng]]>
info:eu-repo/semantics/article]]>
info:eu-repo/semantics/publishedVersion]]>
https://revue.cder.dz/index.php/rer/article/view/541]]>
10.54966/jreen.v18i4.541]]>
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var str = 'GA-based solar cell parameters extraction Application to single, double and triple diode models';
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]]>
Modélisation de la cellule photovoltaïque]]>
Algorithme génétique]]>
Extractions des paramètres]]>
Identification]]>
In this paper, we propose a new technique based on genetic algorithm for the extraction of electrical parameters (the saturation current, the serial resistance, the parallel resistance and the ideality factor). The models with five, seven and nine parameters respectively are considered. The genetic algorithm is used as a tool for optimization to increase the probability of reaching the global minimum solutions in a short time with a very good accuracy based on the minimization of the quadratic error between experimental and theoretical characteristics. The simulation results show that the accuracy of the heuristic approach is effective for modeling in the case of solar modules. The values of squared errors are around zero (5.8297 × 10-8, 3.0751 × 10-7 and 1.7243 ×10-5 for the five, seven and nine parameters models, respectively). On the other hand, the results were obtained after only seven generations which can be considered very fast for a nonlinear optimization problem with many physical constraints. The results prove that the GA is very suitable for estimating electrical parameters needed for modeling the PV array.]]>
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var str = 'Harrag, Abdelghani';
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]]>
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var str = 'Messalti, Sabir';
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]]>
Journal of Renewable Energies; Vol. 18 No. 4 (2015): Volume 18 (Regular); 701 – 711]]>
Journal of Renewable Energies; Vol. 18 No 4 (2015): Volume 18 (Regular); 701 – 711]]>
2716-8247]]>
1112-2242]]>
10.54966/jreen.v18i4]]>
Renewable Energy Development Center]]>
2023-10-18]]>
Copyright (c) 2021 Journal of Renewable Energies]]>
https://creativecommons.org/licenses/by-sa/4.0]]>
https://revue.cder.dz/index.php/rer/article/view/540/1336]]>
application/pdf]]>
eng]]>
info:eu-repo/semantics/article]]>
info:eu-repo/semantics/publishedVersion]]>
https://revue.cder.dz/index.php/rer/article/view/540]]>
10.54966/jreen.v18i4.540]]>
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var str = 'CFD study of a horizontal axis wind turbine NREL Phase II';
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]]>
NREL phase II]]>
Horizontal axis wind turbine]]>
CFD]]>
The present work aims to study the aerodynamic characteristics of the NREL phase II (generated only with S809 profile along the span for an untwisted case) rotor that is a horizontal axis downwind wind turbine rotor and which is assumed to stand isolated in the space. The two dimensional steady-incompressible flow Reynolds average NavierStokes equations, are solved by using the commercial CFD package Ansys Fluent. The 2D computations are first performed on S809 airfoil in order to define the most suitable model to be used; the turbulence closure model has been chosen among four possible candidates (standard , Spalart-Allmaras, based on comparison of pressure coefficient for the different configurations with experimental results. Secondly, through a three dimensional study we tried to simulate the experiment for wind speed velocities of 7.2, 10.56, 12.85, 16.3, and 9.18m/s. Results of pressure and torque for considered wind turbine rotor have been directly compared to the available experimental data. The comparisons show that CFD results along with the turbulence model used can predict the span-wise loading of the wind turbine rotor with reasonable agreement. The work presented here is the first stage of project that aims at giving a better understanding of the main influence of the rotational effect on boundary layer separation, and identify the stalled configuration in order to control this latter in future work.]]>
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var str = 'Belamadi, Riyadh';
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]]>
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var str = 'Mdouki, Ramzi';
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]]>
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var str = 'Ilinca, Adrian';
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]]>
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var str = 'Djemili, Abdelouaheb';
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]]>
Journal of Renewable Energies; Vol. 18 No. 4 (2015): Volume 18 (Regular); 683 – 700]]>
Journal of Renewable Energies; Vol. 18 No 4 (2015): Volume 18 (Regular); 683 – 700]]>
2716-8247]]>
1112-2242]]>
10.54966/jreen.v18i4]]>
Renewable Energy Development Center]]>
2023-10-18]]>
Copyright (c) 2021 Journal of Renewable Energies]]>
https://creativecommons.org/licenses/by-sa/4.0]]>
https://revue.cder.dz/index.php/rer/article/view/539/1335]]>
application/pdf]]>
eng]]>
info:eu-repo/semantics/article]]>
info:eu-repo/semantics/publishedVersion]]>
https://revue.cder.dz/index.php/rer/article/view/539]]>
10.54966/jreen.v18i4.539]]>
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var str = 'Les gisements d’économie d’énergie et des émissions de CO2 à l’horizon 2050 dans le secteur résidentiel algérien';
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]]>
Modélisation prospective]]>
Efficacité énergétique]]>
secteur résidentiel algérien]]>
Consommations d’énergie]]>
Emissions de CO2]]>
Le secteur résidentiel algérien consomme 25-28 % de l’énergie finale et émet en moyenne Novembre21 % des gaz à effet de serre. Or, il existe un important gisement d’économie d’énergie dans ce secteur. Ce constat conduit à rechercher comment rendre le secteur du logement plus efficient en matière de consommation d’énergie et d’émission de CO2. Dans cet article, nous montrerons comment la pénétration des nouvelles technologies dans le parc de logements, au moyen du modèle bottom-up, permet, à l’horizon 2050, une approche prospective pertinente pour réduire la consommation énergétique et atténuer les émissions de CO2 dans le secteur résidentiel. Pour cela, nous estimerons, à travers un scénario tendanciel, la consommation d’énergie du secteur résidentiel en Algérie jusqu’en 2050. Ensuite, nous élaborerons différents scénarios de réduction de la consommation en intégrant les meilleures technologies disponibles dans le parc des logements et dans le stock existant.]]>
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var str = 'Ouahab, Athmane';
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]]>
Journal of Renewable Energies; Vol. 18 No. 4 (2015): Volume 18 (Regular); 667 – 682]]>
Journal of Renewable Energies; Vol. 18 No 4 (2015): Volume 18 (Regular); 667 – 682]]>
2716-8247]]>
1112-2242]]>
10.54966/jreen.v18i4]]>
Renewable Energy Development Center]]>
2023-10-18]]>
Copyright (c) 2021 Journal of Renewable Energies]]>
https://creativecommons.org/licenses/by-sa/4.0]]>
https://revue.cder.dz/index.php/rer/article/view/538/1334]]>
application/pdf]]>
eng]]>
info:eu-repo/semantics/article]]>
info:eu-repo/semantics/publishedVersion]]>
https://revue.cder.dz/index.php/rer/article/view/538]]>
10.54966/jreen.v18i4.538]]>
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var str = 'Etude expérimentale du comportement thermique d’une maison rurale à faible consommation d’énergie';
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]]>
Comportement thermique]]>
Confort thermique]]>
Efficacité énergétique]]>
Maison solaire]]>
Isolation thermique]]>
BTS]]>
Thermocouples]]>
Notre travail s’intéresse à l’étude expérimentale d’une maison rurale à faible consommation d’énergie, qui a été réalisée dans le cadre du projet MED-ENEC (Efficacité énergétique dans le secteur du bâtiment pour les pays méditerranéens). Ce travail a pour but d’étudier le comportement thermique de cette maison à faible consommation d’énergie. Pour ce faire, treize thermocouples de type K et quatre thermo-hygromètre sont installés à l’intérieur due logement pour mesurer l’humidité relative et la température de l’air, ainsi que la température des surfaces environnantes. Cinq thermocouples sont installés à l’extérieur pour connaître la température des faces externes des parois, ainsi que la température de l’air.]]>
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var str = 'Djebri, Boualem';
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]]>
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var str = 'Derradji, Lotfi';
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]]>
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var str = 'Boudali Errebai, Farid';
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]]>
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var str = 'Amara, Mohamed';
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]]>
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var str = 'Maoudj, Yassine';
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]]>
Journal of Renewable Energies; Vol. 18 No. 4 (2015): Volume 18 (Regular); 657 – 666]]>
Journal of Renewable Energies; Vol. 18 No 4 (2015): Volume 18 (Regular); 657 – 666]]>
2716-8247]]>
1112-2242]]>
10.54966/jreen.v18i4]]>
Renewable Energy Development Center]]>
2023-10-18]]>
Copyright (c) 2021 Journal of Renewable Energies]]>
https://creativecommons.org/licenses/by-sa/4.0]]>
https://revue.cder.dz/index.php/rer/article/view/537/1333]]>
application/pdf]]>
eng]]>
info:eu-repo/semantics/article]]>
info:eu-repo/semantics/publishedVersion]]>
https://revue.cder.dz/index.php/rer/article/view/537]]>
10.54966/jreen.v18i4.537]]>
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var str = 'Modeling and control of active and reactive powers of wind energy conversion system in variable speed based on DFIG';
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]]>
Wind turbine]]>
DFIG]]>
Vector control]]>
Indirect control of power (PI)]]>
PWM inverter]]>
This article describes the modeling and control of wind conversion chain system based on DFIG in variable speed. In fact, the aerodynamic and the electrical models of the wind conversion chain are presented and discussed. Also, the adjustment of active and reactive power is opted in order to ensure optimal operation. For this purpose, a vector control method is applied to ensure a decoupling of its electromechanical quantities. These two parts are developed and programmed in Matlab/Simulink. Some simulation results obtained for the variable-speed operation in hypo- and hyper synchronous modes studied to validate the command will be presented and analyzed.]]>
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var str = 'Senani, Fawzi';
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]]>
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var str = 'Rahab, Abderrezak';
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]]>
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var str = 'Benalla, Hocine';
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]]>
Journal of Renewable Energies; Vol. 18 No. 4 (2015): Volume 18 (Regular); 643 – 655]]>
Journal of Renewable Energies; Vol. 18 No 4 (2015): Volume 18 (Regular); 643 – 655]]>
2716-8247]]>
1112-2242]]>
10.54966/jreen.v18i4]]>
Renewable Energy Development Center]]>
2023-10-18]]>
Copyright (c) 2021 Journal of Renewable Energies]]>
https://creativecommons.org/licenses/by-sa/4.0]]>
https://revue.cder.dz/index.php/rer/article/view/536/1332]]>
application/pdf]]>
eng]]>
info:eu-repo/semantics/article]]>
info:eu-repo/semantics/publishedVersion]]>
https://revue.cder.dz/index.php/rer/article/view/536]]>
10.54966/jreen.v18i4.536]]>
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var str = 'Numerical study of mixed convection flows in a U-shaped channel';
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]]>
U-shaped channel]]>
Mixed convection]]>
Numerical study]]>
Air-ground exchanger]]>
Canadian well]]>
In this work, we study numerically mixed convection flows in an open U-shaped channel. The right opening lets pass fresh air at cold temperature TC, while the walls of the channel are heated at the temperature TH > TC. Our study is based on a volume control method performed for 100 < Re < 700, Ra = 105 and Pr = 0.72. Results are presented in terms of thermal and dynamic fields, Nusselt number variation with Re, flow velocities and temperatures at the channel outlet.]]>
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var str = 'Naoum, Meryem';
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]]>
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var str = 'El Alami, Mustapha';
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]]>
Journal of Renewable Energies; Vol. 18 No. 4 (2015): Volume 18 (Regular); 633 – 641]]>
Journal of Renewable Energies; Vol. 18 No 4 (2015): Volume 18 (Regular); 633 – 641]]>
2716-8247]]>
1112-2242]]>
10.54966/jreen.v18i4]]>
Renewable Energy Development Center]]>
2023-10-18]]>
Copyright (c) 2021 Journal of Renewable Energies]]>
https://creativecommons.org/licenses/by-sa/4.0]]>
https://revue.cder.dz/index.php/rer/article/view/535/1331]]>
application/pdf]]>
eng]]>
info:eu-repo/semantics/article]]>
info:eu-repo/semantics/publishedVersion]]>
https://revue.cder.dz/index.php/rer/article/view/535]]>
10.54966/jreen.v18i4.535]]>
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var str = 'Structural, electronic, optical and elastic properties of Mg3TH7 (T=Mn, Tc and Re) complex hydrides: First-principles calculations';
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]]>
Complex hydrides]]>
Elastic properties]]>
Electronic structure]]>
Optical properties]]>
First-principles calculations]]>
The structural, electronic, optical and elastic properties of Mg3TH7 (T=Mn, Tc, Re) complex hydrides have been investigated by using the density functional theory ‘DFT’ within the generalized gradient approximation ‘GGA’ parameterized by the Perdew, Burke and Ernzerhof ‘PBE’. The optimized lattice constants, atomic positions and interatomic distance are in good agreement with both theoretical results and experimental data available in the literature. Band structure, densities of states ‘DOS’, optical properties, and elastic constants have been calculated. The obtained results of elastic properties were compared with those of the simplest Mg-based hydride MgH2. More importantly, it is found that, the energy band gap is highly augmented when Mn atom is replaced by Re, but it is less pronounced when Re atom is replaced by Tc. From elastic constants calculations, it is noted that MgH2, Mg3MnH7, Mg3TcH7 and Mg3ReH7 compounds are mechanically stable and are brittle. In addition, the polycrystalline elastic properties such as bulk modulus, shear modulus, Young modulus and Poisson’s ratio were also determined by the Voigt-Reuss-Hill, ‘VRH’ approximation. It was found that the bulk modulus of complex hydrides Mg3TH7 (T=Mn, Tc and Re) are higher than that of MgH2 and increases with increasing atomic number of element (Mn, Tc, Re) in the sequence (B) Mg3MnH7 < (B) Mg3TcH7 < (B) Mg3ReH7. The shear anisotropy, linear bulk modulus and percentage anisotropy in compressibility and shear were also determined and discussed in details. Finally, Debye temperatures were calculated and discussed.]]>
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var str = 'Benyelloul, Kamel';
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var str = 'Bouhadda, Youcef';
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var str = 'Bououdina, Mohamed';
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var str = 'Fenineche, Noureddine';
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var str = 'Aourag, Hafid';
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var str = 'Faraoun, Houda Imane';
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Journal of Renewable Energies; Vol. 18 No. 4 (2015): Volume 18 (Regular); 611 – 631]]>
Journal of Renewable Energies; Vol. 18 No 4 (2015): Volume 18 (Regular); 611 – 631]]>
2716-8247]]>
1112-2242]]>
10.54966/jreen.v18i4]]>
Renewable Energy Development Center]]>
2023-10-18]]>
Copyright (c) 2021 Journal of Renewable Energies]]>
https://creativecommons.org/licenses/by-sa/4.0]]>
https://revue.cder.dz/index.php/rer/article/view/534/1330]]>
application/pdf]]>
eng]]>
info:eu-repo/semantics/article]]>
info:eu-repo/semantics/publishedVersion]]>
https://revue.cder.dz/index.php/rer/article/view/534]]>
10.54966/jreen.v18i4.534]]>
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var str = 'Techno-economic feasibility study for the use of photovoltaic energy on the south-east algerian farms';
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HOMER]]>
Feasibility study]]>
Solar photovoltaic energy]]>
ater pumping systems]]>
Sahara region]]>
This works aims to study the technological feasibility and economic viability of standalone Photovoltaic system for the electrification of farms in the south-east of Algeria. The PV system power plant is sized to supply potato farm in Akfadou-El Oued. The standalone PV system was designed and simulated using the Hybrid Optimization Model for Electric Renewable (HOMER). Simulation results showed that a high capital cost is needed to install the PV system with a high cost of energy reaches 30 DA/kWh.]]>
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var str = 'Kermadi, Mostefa';
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Journal of Renewable Energies; Vol. 18 No. 4 (2015): Volume 18 (Regular); 587 – 594]]>
Journal of Renewable Energies; Vol. 18 No 4 (2015): Volume 18 (Regular); 587 – 594]]>
2716-8247]]>
1112-2242]]>
10.54966/jreen.v18i4]]>
Renewable Energy Development Center]]>
2023-10-18]]>
Copyright (c) 2021 Journal of Renewable Energies]]>
https://creativecommons.org/licenses/by-sa/4.0]]>
https://revue.cder.dz/index.php/rer/article/view/532/1329]]>
application/pdf]]>
eng]]>
info:eu-repo/semantics/article]]>
info:eu-repo/semantics/publishedVersion]]>
https://revue.cder.dz/index.php/rer/article/view/532]]>
10.54966/jreen.v18i4.532]]>