Alonso, C., et al. “Energy Consumption to Cool and Heat Experimental Modules for the Energy Refurbishment of Façades. Three Case Studies in Madrid”. Energy and Buildings, 126 (2016): 252-262.
ASHRAE. Thermal Environmental Conditions for Human Occupancy. 2017.
Bagheri, F., et al. “Developing Energy Performance Label for Office Buildings in Iran”. Energy and Buildings, 61(2013): 116-124.
Baldinelli, G. “Double Skin Façades for Warm Climate Regions: Analysis of a Solution with an Integrated Movable Shading System”. Building and Environment, 44(6)) (2009): 1107-1118.
Balocco, C. “A Simple Model to Study Ventilated Facades Energy Performance”. Energy and Buildings, 34(5) (2002): 469-475.
Balter, J., et al. “Air Cavity Performance in Opaque Ventilated Façades in Accordance with the Spanish Technical Building Code”. ACE: Architecture, City and Environment, 13 (2019): 211-232.
Chehrazi, G., et al. “Determining Open Space Thermal Comfort Range for Isfahan’s Elementary Schools for Girls.” Soffeh, 31(3) (2021): 43-58. (In Persian)
Chen, Q. “Comparison of Different k-ε Models for Indoor Air Flow Computations”. Numerical Heat Transfer, Part B: Fundamentals, 28(3) (1995): 353-369.
Ciampi, M., et al.”Ventilated Facades Energy Performance in Summer Cooling of Buildings”. Solar Energy, 75(6) (2003): 491-502.
Coussirat, M., et al. “Performance and Influence of Numerical Sub-models on the CFD Simulation of Free and Forced Convection in Double-glazed Ventilated Façades”. Energy and Buildings, 40(10) (2008):1781-1789.
Falk, J. and K. Sandin. “Ventilated Rainscreen Cladding: A Study of the Ventilation Drying Process”. Building and Environment, 60 (2013): 173-184.
Fantucci, S., et al. “Thermal Performance Assessment of an Opaque Ventilated Façade in the Summer Period: Calibration of a Simulation Model through in-field Measurements”. Energy Procedia, 111 (2017): 619-628.
Fantucci, S., et al. “An Experimental Sensitivity Analysis on the Summer Thermal Performance of an Opaque Ventilated Façade”. Energy and Buildings, 225 (2020): 110354.
CFD EXPERTS Simulate the Future. Ansys Fluent Workbench Tutorial Guide. Canonsburg, PA: Ansys, Inc., 2021.
Fuliotto, R., et al. “Experimental and Numerical Analysis of Heat Transfer and Airflow on an Interactive Building Façade”. Energy and Buildings, 42(1) (2010): 23-28.
Gagliano, A. and S. Aneli. “Analysis of the Energy Performance of an Opaque Ventilated Façade under Winter and Summer Weather Conditions”. Solar Energy, 205 (2020): 531-544.
Gagliano, A., et al. “Computational Fluid Dynamic Simulations of Natural Convection in Ventilated Facades”. In A. Amimul (Ed.), Evaporation, Condensation and Heat Transfer, IntechOpen, 2011, Ch. 17.
Gagliano, A., et al. “Thermodynamic Analysis of Ventilated Façades under Different Wind Conditions in Summer Period”. Energy and Buildings, 122 (2016): 131-139.
García, B.Z., et al. “Comparison of Theoretical Heat Transfer Model with Results from Experimental Monitoring Installed in a Refurbishment with Ventilated Façade”. IOP Conference Series: Earth and Environmental Science, 410(1) (2020): 012104.
Giancola, E., et al. “Experimental Assessment and Modelling of the Performance of an Open Joint Ventilated Façade During Actual Operating Conditions in Mediterranean Climate”. Energy and Buildings, 54 (2012): 363-375.
Goulart, M.F. and L.C. Labaki. “Thermal Performance of Opaque Ventilated Facades: A Systematic Review”. PARC Pesquisa em Arquitetura e Construção, 13(00) (2022): e022026.
Gregório-Atem, C., et al. “Opaque Ventilated Façade (OVF) Thermal Performance Simulation for Office Buildings in Brazil”. Sustainability, 12(18) (2020): 7635.
Griffith, B. “Model for Naturally Ventilated Cavities on the Exteriors of Opaque Building Thermal Envelopes”. SimBuild 2006 Conferenc, United States, Cambridge- Massachusetts, 2006.
Institute of Standards and Industrial Research of Iran (ISIRI). Non-residential Buildings – Determination of Energy Consumption Criteria and Energy Labeling Guidelines (Iran National Standard No. 14254). Tehran: ISIRI, 2012. (In Persian)
Iribar-Solaberrieta, E., et al. “Energy Performance of the Opaque Ventilated Facade”. Energy Procedia, 78 (2015): 55-60.
Jaber, S. and S. Ajib. “Optimum Design of Trombe Wall System in Mediterranean Region”. Solar Energy, 85(9) (2011): 1891-1898.
Launder, B.E. and D.B. Spalding. “The Numerical Computation of Turbulent Flows”. Computer Methods in Applied Mechanics and Engineering, 3(2) (1974): 269-289.
Maciel, A.C.F. and M.T. Carvalho. “Operational Energy of Opaque Ventilated Façades in Brazil”. Journal of Building Engineering, 25 (2019): 100775.
Majidi, F.A., et al. “Seasonal Difference of Thermal Comfort in New and Old Neighborhoods (Case Study: Jolfa and Mardavij Districts of Isfahan)”. Honar-Ha-Ye-Ziba: Memary Va Shahrsazi, 23(2) (2018): 31-42. (In Persian)
Marinosci, C., et al. “Experimental Analysis of the Summer Thermal Performances of a Naturally Ventilated Rainscreen Façade Building”. Energy and Buildings, 72 (2014): 280-287.
Naylor, D. and J.D. Tarasuk. “Natural Convective Heat Transfer in a Divided Vertical Channel: Part II—Experimental Study”. Journal of Heat Transfer, 115(2) (1993): 388-394.
Orszag, S.A. and I. Staroselsky. “Introduction To Renormalization Group Modeling Of Turbulence”. Simulation and Modeling of Turbulent Flows. T.B. Gatski, M.Y. Hussaini and J.L. Lumley (eds.). Oxford University Press, 1996.
Pastori, S., et al. “Energy Performance Evaluation of a Ventilated Façade System through CFD Modeling and Comparison with International Standards”. Energies, 14(1) (2021): 193.
Patania, F., et al. “Thermofluid-dynamic Analysis of ventilated facades”. Energy and Buildings, 42(7) (2010): 1148-1155.
Peci-López, F. and M. Ruiz de Adana. “Sensitivity Study of an Opaque Ventilated Façade in the Winter Season in Different Climate Zones in Spain”. The Open Renewable Energy Journal, 75 (2015): 524-533.
Peci-López, F., et al. “Experimental Analysis and Model Validation of an Opaque Ventilated Facade”. Building and Environment, 56 (2012): 265-275.
Pergolini, M., et al. “Controlled Inlet Airflow in Ventilated Facades: A Numerical Analysis”. In IOP Conference Series: Materials Science and Engineering, 609(3) (2019): 032009.
Pica, A.L., et al. “An Experimental Investigation on Natural Convection of Air in a Vertical Channel”. International Journal of Heat and Mass Transfer, 36 (1993): 611-616.
Pirkandi, J. and M. Hashemabadi. “Design and Numerical Investigation of a Small Scale Solar Chimney Using Computational Fluid Dynamics”. Journal of Solid and Fluid Mechanics, 6(3) (2016): 271-280.
Plan and Budget Organization of Iran – Technical Affairs Office. Design Regulations for Office Buildings (Publication No. 178). Tehran: Plan and Budget Organization, 1998. (In Persian)
Poirazis, H. “Double Skin Facades for Office Buildings”. Division of Energy and Building Design. Lund: Lund Institute of Technology, 2004.
Rabani, M., et al. “Heat Transfer Analysis of a Trombe Wall with a Projecting Channel Design”. Energy, 134 (2017): 943-950.
Safer, N., et al. “Three-dimensional Simulation with a CFD Tool of the Airflow Phenomena in Single Floor Double-skin Facade Equipped with a Venetian Blind”. Solar Energy, 79(2) (2005): 193-203.
Saghafi, M. and N. Tavassoli. “The Effect of the Ventilated Air Layer in the New Open Joint Facade on Energy Performance of the Building”. Naqshejahan, 6(3) (2016): 5-14. (In Persian)
Sánchez, M.N., et al. “Experimental Assessment of the Performance of Open Joint Ventilated Façades with Buoyancy-driven Airflow”. Solar Energy, 91 (2013): 131-144.
Sánchez, M.N., et al. “Experimental Evaluation of the Airflow Behaviour in Horizontal and Vertical Open Joint Ventilated Facades Using Stereo-PIV”. Renewable Energy, 109 (2017): 613-623.
Sánchez, M.N., et al. “Experimental Validation of a Numerical Model of a Ventilated Façade with Horizontal and Vertical Open Joints”. Energies, 13(1) (2020): 146.
Sanjuan, C., et al. “Development and Experimental Validation of a Simulation Model for Open Joint Ventilated Façades”. Energy and Buildings, 43(12) (2011): 3456-3466.
Sanjuan, C., et al. “Energy Performance of an Open-joint Ventilated Façade Compared with a Conventional Sealed Cavity Façade”. Solar Energy, 85(9) (2011): 1851-1863.
Schabowicz, K. and Ł. Zawiślak. “Numerical Comparison of Thermal Behaviour Between Ventilated Facades”. Studia Geotechnica et Mechanica, 42(4) (2020): 297-305.
Sefcik, D.M., et al. “Natural Convection in Vertically Vented Enclosures”. Journal of Heat Transfer, 113(4) (1991): 912-918.
Seferis, P., et al. “Investigation of the Performance of a Ventilated Wall”. Energy and Buildings, 43(9) (2011): 2167-2178.
Serra, V., et al. “Experimental Evaluation of a Climate Façade: Energy Efficiency and Thermal Comfort Performance”. Energy and Buildings, 42(1) (2010): 50-62.
Sharma, A., et al. “Review on Thermal Energy Storage with Phase Change Materials and Applications”. Renewable and Sustainable Energy Reviews, 13(2) (2009): 318-345.
Soto Francés, V.M., et al. “Modeling of Ventilated Façades for Energy Building Simulation Software”. Energy and Buildings, 65 (2013): 419-428.
Soudian, S. and U. Berardi. “Parametric Optimization of Multifunctional Integrated Climate-Responsive Opaque and Ventilated Façades Using CFD Simulations”. Applied Thermal Engineering, 204 (2022): 117923.
Stazi, F., et al. “Experimental Assessment of a Zinc-titanium Ventilated Façade in a Mediterranean Climate”. Energy and Buildings, 69 (2014): 525-534.
Stazi, F., et al. “Experimental Comparison between Three Types of Opaque Ventilated Facades”. The Open Construction and Building Technology Journal, 12 (2018): 296- 308.
Stazi, F., et al. “Experimental Evaluation of Ventilated Walls with an External Clay Cladding”. Renewable Energy, 36(12) (2011): 3373-3385.
Stazi, F., et al. “The Role of Wall Layers Properties on the Thermal Performance of Ventilated Facades: Experimental Investigation on Narrow-cavity Design”. Energy and Buildings, 209 (2020): 109622.
Straatman, A.G., et al. “A Study of Natural Convection Between Inclined Isothermal Plates”. Journal of Heat Transfer, 116(1) (1994): 243-245.
Suárez, C., et al. “Heat Transfer and Mass Flow Correlations for Ventilated Facades”. Energy and Buildings, 43(12) (2011): 3696-3703.
Suárez, M.J., et al. “Energy Evaluation of an Horizontal Open Joint Ventilated Façade”. In Applied Thermal Engineering, 2012, 302-313.
Tanda, G. “Natural Convection Heat Transfer in Vertical Channels with and without Transverse Square Ribs”. International Journal of Heat and Mass Transfer, 40(9) (1997): 2173-2185.
Xamán, J., et al. “Numerical Study of Heat Transfer by Laminar and Turbulent Natural Convection in Tall Cavities of Façade Elements”. Energy and Buildings, 37 (2005): 787-794.
)