Abstract
Advanced building envelope systems can contribute to the reduction of greenhouse gas emissions and improve the energy flexibility of buildings while maintaining high levels of indoor environmental quality. Among different transparent envelope technologies, the so-called double skin facades (DSFs) have been since long time proposed as an effective, responsive building system. The implementation of DSF systems in a real building is highly dependent on the capabilities of the prediction of their performance, which is not a trivial task. The possibility to use whole-building energy simulation (BES) tools to replicate the behaviour of these systems when integrated into a building is, therefore, a crucial step in the effective and conscious spread of these systems. However, the simulation of DSFs with BES tools can be far more complex than that of more conventional facade systems and represents a current barrier. This article is based on evidence from the scientific literature on the use of BES tools to simulate DSF, and provides: (i) an overview of the implementation of DSFs systems in BES tools, with the current capabilities of some selected BES tools; (ii) a comprehensive review of recent, relevant simulation studies, where different approaches to modelling and simulating DSFs are reported; and (iii) the identification of current gaps and limitations in simulation tools which should be overcome to increase the possibilities to correctly predict the performance of DSFs when integrated into a building.
Similar content being viewed by others
Change history
27 March 2019
The original version of this article unfortunately contained an error in the second paragraph of Section 5 on page 19.
References
Abazari T, Mahdavinejad M (2017). Integrated model for shading and airflow window in BSk. Energy Procedia, 122: 571–576.
AIVC (1994). An analysis and data summary of the AIVC’s numerical database—Technical Note 44.
Alamdari F, Hammond GP (1983). Improved data correlations for buoyancy-driven convection in rooms. Building Services Engineering Research and Technology, 4: 106–112.
Alberto A, Ramos NMM, Almeida RMSF (2017). Parametric study of double-skin facades performance in mild climate countries. Journal of Building Engineering, 12: 87–98.
ASHRAE (1993). ASHRAE Handbook: Fundamentals. Atlanta: American Society of Heating Refrigerating and Air Conditioning Engineers.
ASHRAE (2007). ANSI/ASHRAE Standard 62.1-2004: Ventilation for Acceptable Indoor Air Quality. Health Care (Don Mills). Atlanta: American Society of Heating Refrigerating and Air Conditioning Engineers.
Anđelković AS, Mujan I, Dakić S (2016). Experimental validation of a EnergyPlus model: Application of a multi-storey naturally ventilated double skin facade. Energy and Buildings, 118: 27–36.
Aparicio-Fernández C, Vivancos JL, Ferrer-Gisbert P, Royo-Pastor R (2014). Energy performance of a ventilated facade by simulation with experimental validation. Applied Thermal Engineering, 66: 563–570.
Aschaber J, Hiller M, Weber R (2009). TRNSYS17: New features of the multizone building model. In: Proceedings of the 11th International IBPSA Building Simulation Conference, Glasgow, UK, pp. 1983–1988.
Baldinelli G (2009). Double skin facades for warm climate regions: Analysis of a solution with an integrated movable shading system. Building and Environment, 44: 1107–1118.
Balocco C (2004). A non-dimensional analysis of a ventilated double facade energy performance. Energy and Buildings, 36: 35–40.
Balocco C, Colombari M (2006). Thermal behaviour of interactive mechanically ventilated double glazed facade: Non-dimensional analysis. Energy and Buildings, 38: 1–7.
Bar-Cohen A, Rohsenow WM (1984). Thermally optimum spacing of vertical, natural convection cooled, parallel plates. Journal of Heat Transfer, 106: 116–123.
Barbosa S, Ip K (2014). Perspectives of double skin facades for naturally ventilated buildings: A review. Renewable and Sustainable Energy Reviews, 40: 1019–1029.
Barecka MH, Zbicinski I, Heim D (2016). Environmental, energy and economic aspects in a zero-emission facade system design. Management of Environmental Quality: An International Journal, 27: 708–721.
Barták M, Dunovská T, Hensen J (2001). Design support simulations for a double-skin facade. In: Proceedings of the 1st International Conference on Renewable Energy in Buildings “Sustainable Buildings and Solar Energy”, Prague, Czech Republic, pp. 126–129.
Beausoleil-Morrison I (2000). The adaptive coupling of heat and air flow modelling within dynamic whole-building simulation. PhD Thesis, University of Strathclyde, Glasgow, UK.
Bhamjee M, Nurick A, Madyira DM (2013). An experimentally validated mathematical and CFD model of a supply air window: Forced and natural flow. Energy and Buildings, 57: 289–301.
Brown G, Isfält E (1974). Solinstrålning och solavskärmning (Solar Irradiation and Sun Shading Devices)—Report 19. Stockholm, Sweden.
Catto Lucchino E, Goia F (2019). Reliability and performance gap of whole-building energy software tools in modelling double skin facades. In: Proceedings of PowerSkin Conference 2019, Munich, Germany, pp. 249–262.
Chan ALS, Chow TT, Fong KF, Lin Z (2009). Investigation on energy performance of double skin facade in Hong Kong. Energy and Buildings, 41: 1135–1142.
Chan ALS (2011). Energy and environmental performance of building facades integrated with phase change material in subtropical Hong Kong. Energy and Buildings, 43: 2947–2955.
Charron R, Athienitis AK (2006). Optimization of the performance of double-facades with integrated photovoltaic panels and motorized blinds. Solar Energy, 80: 482–491.
Cheong CH, Kim T, Leigh SB (2014). Thermal and daylighting performance of energy-efficient windows in highly glazed residential buildings: Case study in Korea. Sustainability, 6: 7311–7333.
Choi W, Joe J, Kwak Y, Huh JH (2012). Operation and control strategies for multi-storey double skin facades during the heating season. Energy and Buildings, 49: 454–465.
Clarke JA (1985). Energy Simulation in Building Design. Bristol and Boston, MA, USA: Adam Hilger.
Clarke JA, Hensen JLM (2015). Integrated building performance simulation: Progress, prospects and requirements. Building and Environment, 91: 294–306.
Colombo E, Zwahlen M, Frey M, Loux J (2017). Design of a glazed double-facade by means of coupled CFD and building performance simulation. Energy Procedia, 122: 355–360.
Crawley DB, Lawrie LK, Pedersen OC, Winkelmann FC (2000). EnergyPlus: Energy Simulation Program. ASHRAE Journal, 42(4): 49–56.
Crawley DB, Hand JW, Kummert M, Griffith BT (2008). Contrasting the capabilities of building energy performance simulation programs. Building and Environment, 43: 661–673.
Dama A, Angeli D (2016). Wind and buoyancy driven natural ventilation in double skin facades. International Journal of Ventilation, 15: 288–301.
Dama A, Angeli D, Kalianova Larsen O (2017). Naturally ventilated double-skin facade in modeling and experiments. Energy and Buildings, 144: 17–29.
Darkwa J, Li Y, Chow DHC (2014). Heat transfer and air movement behaviour in a double-skin facade. Sustainable Cities and Society, 10: 130–139.
De Gracia A, Castell A, Navarro L, Oró E, Cabeza LF (2013). Numerical modelling of ventilated facades: A review. Renewable and Sustainable Energy Reviews, 22: 539–549.
Dickson A (2004). Modelling double-skin facades. Master Thesis, University of Strathclyde, UK.
Ding W, Hasemi Y, Yamada T (2005). Natural ventilation performance of a double-skin facade with a solar chimney. Energy and Buildings, 37: 411–418.
Eicker U, Fux V, Bauer U, Mei L, Infield D (2008). Facades and summer performance of buildings. Energy and Buildings, 40: 600–611.
Elarga H, Zarrella A, De Carli M (2016). Dynamic energy evaluation and glazing layers optimization of facade building with innovative integration of PV modules. Energy and Buildings, 111: 468–478.
Equa (2013). EQUA Simulation AB User Manual IDA Indoor Climate and Energy.
Eskinja Z, Miljanic L, Kuljaca O (2018). Modelling thermal transients in controlled double skin facade building by using renowned energy simulation engines. In: Proceedings of the 41st International Convention on Information and Communication Technology, Electronics and Microelectronics, pp. 897–901.
Faggembauu D, Costa M, Soria M, Oliva A (2003a). Numerical analysis of the thermal behaviour of ventilated glazed facades in Mediterranean climates. Part I: Development and validation of a numerical model. Solar Energy, 75: 217–228.
Faggembauu D, Costa M, Soria M, Oliva A (2003b). Numerical analysis of the thermal behaviour of glazed ventilated facades in Mediterranean climates. Part II: Applications and analysis of results. Solar Energy, 75: 229–239.
Fallahi A, Haghighat F, Elsadi H (2010). Energy performance assessment of double-skin facade with thermal mass. Energy and Buildings, 42: 1499–1509.
Fantucci S, Marinosci C, Serra V, Carbonaro C (2017). Thermal performance assessment of an opaque ventilated facade in the summer period: Calibration of a simulation model through in-field measurements. Energy Procedia, 111: 619–628.
Fohanno S, Polidori G (2006). Modelling of natural convective heat transfer at an internal surface. Energy and Buildings, 38: 548–553.
Freire RZ, Mazuroski W, Abadie MO, Mendes N (2011). Capacitive effect on the heat transfer through building glazing systems. Applied Energy, 88: 4310–4319.
Gavan V, Woloszyn M, Roux JJ, Muresan C, Safer N (2007). An investigation into the effect of ventilated double-skin facade with venetian blinds: Global simulation and assessment of energy performance. In: Proceedings of the 10th International IBPSA Building Simulation Conference, Beijing, China, pp. 127–133.
Gebhart B (1961). Surface temperature calculations in radiant surroundings of arbitrary complexity-for gray, diffuse radiation. International Journal of Heat and Mass Transfer, 3: 341–346.
Gelesz A, Reith A (2015). Climate-based performance evaluation of double skin facades by building energy modelling in Central Europe. Energy Procedia, 78: 555–560.
Gratia E, De Herde A (2004). Optimal operation of a south doubleskin facade. Energy and Buildings, 36: 41–60.
Gratia E, De Herde A (2007). The most efficient position of shading devices in a double-skin facade. Energy and Buildings, 39: 364–373.
Haase M, Marques da Silva F, Amato A (2009). Simulation of ventilated facades in hot and humid climates. Energy and Buildings, 41: 361–373.
Halcrow W (1987). Report on heat transfer at internal building surfaces Project report to the Energy Technology Support Unit. No. ETSU S 1993-P1.
Hand JW (2011). The ESP-r Cookbook: Strategies for Deploying Virtual Representations of the Built Environment. University of Strathclyde, UK.
Heiselberg P, Sandberg M (2006). Evaluation of discharge coefficients for window openings in wind driven natural ventilation. International Journal of Ventilation, 5: 43–52.
Hensen JLM (1995). Modelling coupled heat and airflow: ping pong vs. onions. In: Proceedings of the 16th Conference Implementing the Results of Ventilation Research, pp. 253–262.
Hensen J, Djunaedy E (2005). Building simulation for making the invisible visible-air flow in particular. In: Proceedings of the International Conference on Energy Efficient Technologies in Indoor Environment, Delft, Netherlands.
Høseggen R, Wachenfeldt BJ, Hanssen SO (2008). Building simulation as an assisting tool in decision making. Case study: With or without a double-skin facade? Energy and Buildings, 40: 821–827.
IES (2004). ApacheSim Calculation Methods, Virtual Environment 5.0. IESVE Therm Ref 25.
IES (2014). ApacheSim User Guide. IES VE User Guide.
Iyi D, Hasan R, Penlington R, Underwood C (2014). Double skin facade: Modelling technique and influence of venetian blinds on the airflow and heat transfer. Applied Thermal Engineering, 71: 219–229.
Jiru TE, Haghighat F (2008). Modeling ventilated double skin facade—A zonal approach. Energy and Buildings, 40: 1567–1576.
Joe J, Choi W, Kwon H, Huh JH (2013). Load characteristics and operation strategies of building integrated with multi-story double skin facade. Energy and Buildings, 60: 185–198.
Kalamees T (2004). IDA ICE: the simulation tool for making the whole building energy-and HAM analysis. IEA-Annex 41 MOIST-ENG, Working Meeting, Zürich, Switzerland.
Kalyanova O, Heiselberg P (2008). Empirical validation of building simulation software: Modeling of double facades. Department of Civil Engineering, Aalborg University. DCE Technical reports, No. 30.
Khalifa A-JN (1989). Heat transfer processes in buildings. PhD Thesis, University of Wales College of Cardiff, UK.
Khalifa I, Ernez LG, Znouda E, Bouden C (2015). Coupling TRNSYS 17 and CONTAM: Simulation of a naturally ventilated double-skin facade. Advances in Building Energy Research, 9: 293–304.
Khalifa I, Gharbi-Ernez L, Znouda E, Bouden C (2017). Assessment of the inner skin composition impact on the double-skin facade energy performance in the Mediterranean climate. Energy Procedia, 111: 195–204.
Kim D, Cox SJ, Cho H, Yoon J (2018). Comparative investigation on building energy performance of double skin facade (DSF) with interior or exterior slat blinds. Journal of Building Engineering, 20: 411–423.
Kim D, Park C-S (2011a). A heterogeneous system simulation of a double-skin facade. In: Proceedings of the 12th International IBPSA Building Simulation Conference, Sydney, Australia.
Kim DW, Park CS (2011b). Difficulties and limitations in performance simulation of a double skin facade with EnergyPlus. Energy and Buildings, 43: 3635–3645.
Kim SY, Song KD (2007). Determining photosensor conditions of a daylight dimming control system using different double-skin envelope configurations. Indoor and Built Environment, 16: 411–425.
Kokogiannakis G, Strachan P (2007). Modelling of double ventilated facades according to the CEN Standard 13790 method and detailed simulation. In: Proceedings of the 2nd PALENC Conference and 28th AIVC International Conference, Crete, Greece, pp. 547–551.
Kośny J (2015). PCM-Enhanced Building Components. Cham, Switzerland: Springer.
Le S, Chen Y, Bi Y, Lu X (2014). Modeling and simulation of ventilated double-skin facade using EnergyPlus. In: Proceedings of the 8th International Symposium on Heating, Ventilation and Air Conditioning, pp. 241–252.
Leal VMS, Maldonado E, Erell E, Etzion Y (2003). Modelling a reversible ventilated window for simulation within Esp-r—The SOLVENT case. In: Proceedings of the 8th International IBPSA Building Simulation Conference, Eindhoven, Netherlands, pp. 713–720.
Leal V, Erell E, Maldonado E, Etzion Y (2004a). Modelling the SOLVENT ventilated window for whole building simulation. Building Services Engineering Research and Technology, 25: 183–195.
Leal V, Sandberg M, Maldonado E, Erell E (2004b). An analytical model for the airflow in a ventilated window with known surface temperatures. In: Proceedings of ROOMVENT 2004, Coimbra, Portugal.
Leal V, Maldonado E (2008). The role of the PASLINK test cell in the modelling and integrated simulation of an innovative window. Building and Environment, 43: 217–227.
Leigh S-B, Bae J-I, Ryu Y-H (2004). A study on cooling energy savings potential in high-rise residential complex using cross ventilated double skin facade. Journal of Asian Architecture and Building Engineering, 3: 275–282.
Loonen RCGM, Favoino F, Hensen JLM, Overend M (2017). Review of current status, requirements and opportunities for building performance simulation of adaptive facades. Journal of Building Performance Simulation, 10: 205–223.
López FP, Jensen RL, Heiselberg P, de Adana Santiago MR (2012). Experimental analysis and model validation of an opaque ventilated facade. Building and Environment, 56: 265–275.
Loutzenhiser PG, Manz H, Felsmann C, Strachan PA, Maxwell GM (2007). An empirical validation of modeling solar gain through a glazing unit with external and internal shading screens. Applied Thermal Engineering, 27: 528–538.
MacroFlo (2012). MacroFlo Calculation Methods. Techniques 1–25.
Marinosci C, Strachan PA, Semprini G, Morini GL (2011). Empirical validation and modelling of a naturally ventilated rainscreen facade building. Energy and Buildings, 43: 853–863.
Mateus NM, Pinto A, Da Graça GC (2014). Validation of EnergyPlus thermal simulation of a double skin naturally and mechanically ventilated test cell. Energy and Buildings, 75: 511–522.
McAdams WH (1954). Heat Transmission. Tokyo: McGraw-Hill Kogakusha.
Mirsadeghi M, Cóstola D, Blocken B, Hensen JLM (2013). Review of external convective heat transfer coefficient models in building energy simulation programs. Implementation and Uncertainty, 56: 134–151.
Oesterle E, Leib RD, Lutz G, Heusler B (2001). Double Skin Facades: Integrated Planning: Building Physics. Munich: Prestel.
Oh S, Haberl JS (2016). Origins of analysis methods used to design high-performance commercial buildings: Whole-building energy simulation. Science and Technology for the Built Environment, 22: 118–137.
Oliveira Panão MJN, Santos CAP, Mateus NM, Carrilho da Graça G (2016). Validation of a lumped RC model for thermal simulation of a double skin natural and mechanical ventilated test cell. Energy and Buildings, 121: 92–103.
Papadaki N, Papantoniou S, Kolokotsa D (2013). A parametric study of the energy performance of double-skin facades in climatic conditions of Crete, Greece. International Journal of Low-Carbon Technologies, 9: 296–304.
Park CS, Augenbroe G, Messadi T, Thitisawat M, Sadegh N (2004). Calibration of a lumped simulation model for double-skin facade systems. Energy and Buildings, 36: 1117–1130.
Pasut W, De Carli M (2012). Evaluation of various CFD modelling strategies in predicting airflow and temperature in a naturally ventilated double skin facde. Applied Thermal Engineering, 37: 267–274.
Pedersen CO (2007). Advanced zone simulation in EnergyPlus: Incorporation of variable properties and phase change material (PCM) capability. In: Proceedings of the 10th International IBPSA Building Simulation Conference, Beijing, China, pp. 1341–1345.
Pekdemir EA, Muehleisen RT (2012). A parametric study of the thermal performance of double skin facades at different climates using annual energy simulation. In: Proceedings of the 5th National Conference of IBPSA-USA, Madison, USA, pp. 211–218.
Peng J, Curcija DC, Lu L, Selkowitz SE, Yang H, Mitchell R (2016). Developing a method and simulation model for evaluating the overall energy performance of a ventilated semi-transparent photovoltaic double-skin facade. Progress in Photovoltaics: Research and Applications, 24: 781–799.
Poirazis H (2004). Double skin facades for office buildings—Literature review report. Report EBD-R—04/3. Department of Construction and Architecture, Lund University, Sweden.
Pomponi F, Barbosa S, Piroozfar PAE (2017). On the intrinsic flexibility of the double skin facade: A comparative thermal comfort investigation in tropical and temperate climates. Energy Procedia, 111: 530–539.
Pomponi F, Piroozfar PAE, Southall R, Ashton P, Farr ERP (2016). Energy performance of Double-Skin Facades in temperate climates: A systematic review and meta-analysis. Renewable and Sustainable Energy Reviews, 54: 1525–1536.
Qiu Z, Chow T, Li P, Li C, Ren J, Wang W (2009). Performance evaluation of the photovoltaic double skin facade. In: Proceedings of the 11th International IBPSA Building Simulation Conference, Glasgow, UK, pp. 2251–2257.
Roth K, Lawrence T, Brodrick J (2007). Double-skin facades. ASHRAE Journal, 49(10): 70–73.
Saelens D, Hens H (2001). Experimental evaluation of airflow in naturally ventilated active envelopes. Journal of Thermal Envelope and Building Science, 25: 101–127.
Saelens D (2002). Energy performance assessment of single storey multiple-skin facades. PhD Thesis, Catholic University of Leuven, Belguim.
Saelens D, Carmeliet J, Hens H (2003). Energy performance assessment of multiple-skin facades. HVAC&R Research, 9: 167–185.
Saelens D, Roels S, Hens H (2004). The inlet temperature as a boundary condition for multiple-skin facade modelling. Energy and Buildings, 36: 825–835.
Saelens D, Roels S, Hens H (2008). Strategies to improve the energy performance of multiple-skin facades. Building and Environment, 43: 638–650.
Safer N, Gavan V, Woloszyn M, Roux J (2006). Double-skin facade with venetian blind: Global modelling and assessment of energy performance. In: Proceedings of EPIC Conference.
Safer N, Woloszyn M, Roux J-J, Kuznik F (2005). Modeling of the double-skin facades for building energy simulations: radiative and convective heat transfer. In: Proceedings of the 9th International IBPSA Building Simulation Conference, Montréal, Canada, pp. 1067–1074.
Sahlin P, Bring A, Sowell EF (1996). The neutral model format for building simulation (V.3.02). Technical Report, Department of Building Sciences, The Royal Institute of Technology, Stockholm, Sweden.
Sala M, Romano R (2011). Building envelope innovation: smart facades for non residential buildings. TECHNE Journal of Technology for Architecture and Environment, 2: 158–169.
Seferis P, Strachan P, Dimoudi A, Androutsopoulos A (2011). Investigation of the performance of a ventilated wall. Energy and Buildings, 43: 2167–2178.
Shahrestani M, Yao R, Essah E, Shao L, Oliveira AC, Hepbasli A, Biyik E, del Caño T, Rico E, Lechón JL (2017). Experimental and numerical studies to assess the energy performance of naturally ventilated PV facade systems. Solar Energy, 147: 37–51.
Shameri MA, Alghoul MA, Sopian K, Zain MFM, Elayeb O (2011). Perspectives of double skin facade systems in buildings and energy saving. Renewable and Sustainable Energy Reviews, 15: 1468–1475.
Shan R (2014). Optimization for heating, cooling and lighting load in building facade design. Energy Procedia, 57: 1716–1725.
Singh MC, Garg SN, Jha R (2008). Different glazing systems and their impact on human thermal comfort—Indian scenario. Building and Environment, 43: 1596–1602.
Soto Francés VM, Sarabia Escriva EJ, Pinazo Ojer JM, Bannier E, Cantavella Soler V, Silva Moreno G (2013). Modeling of ventilated facades for energy building simulation software. Energy and Buildings, 65: 419–428.
Sparrow EM, Ramsey JW, Mass EA (1979). Effect of finite width on heat transfer and fluid flow about an inclined rectangular plate. Journal of Heat Transfer, 101: 199–204.
Srebric J, Chen Q, Glicksman LR (2000). A coupled airflow and energy simulation program for indoor thermal environmental studies. ASHRAE Transactions, 106(1): 465–476.
Stec W, van Paassen D (2003). Defining the performance of the double skin facade with the use of the simulation model. In: Proceedings of the 8th International IBPSA Building Simulation Conference, Eindhoven, Netherlands, pp. 1243–1250.
Stec WJ, van Paassen AHC (2005). Symbiosis of the double skin facade with the HVAC system. Energy and Buildings, 37: 461–469.
Tabares-Velasco PC, Griffith B (2012). Diagnostic test cases for verifying surface heat transfer algorithms and boundary conditions in building energy simulation programs. Journal of Building Performance Simulation, 5: 329–346.
Tanimoto J, Kimura KI (1997). Simulation study on an air flow window system with an integrated roll screen. Energy and Buildings, 26: 317–325.
TESS (2014). Libraries version 17.0. Volume 3: The Electrical Component Library. TRNSYS17 Doc.
Tian W, Han X, Zuo W, Sohn MD (2018). Building energy simulation coupled with CFD for indoor environment: A critical review and recent applications. Energy and Buildings, 165: 184–199.
TRNSYS 17 (2009). Mathematical Reference. TRNSYS Doc.
TRNSYS 17 (2013). Multizone Building modeling with Type56 and TRNBuild.
US Department of Energy (2010). EnergyPlus Engineering Reference: The Reference to EnergyPlus Calculations.
US Department of Energy (2018). EnergyPlus Version 8.9.0: Engineering Reference.
Underwood CP, Yik FWH (2008). Modelling Methods for Energy in Buildings. Oxford, UK: John Wiley & Sons.
University of Wisconsin (2005). TRNFlow: A module of an air flow network for coupled simulation with TYPE 56.
Walton GN (1981). Passive solar extension of the building loads analysis and system thermodynamics (BLAST) program. Technical Report. United States Army Construction Engineering Research Laboratory.
Walton GN (1989). AIRNET: A Computer program for building airflow network modeling. Technical Report, DE-AI01-36CE2101-3. US Department of Commerce, National Institute of Standards and Technology, National Engineering Laborary.
Walton GN, Dols WS (2002). CONTAMW 2.0 User Manual. NISTIR 7251. US Department of Commerce, National Institute of Standards and Technology.
Walton GN, Dols WS (2013). CONTAM User Guide and Program Documentation. US Department of Commerce, Technology Administration, National Institute of Standards and Technology.
Wang Y, Chen Y, Zhou J (2016). Dynamic modeling of the ventilated double skin facade in hot summer and cold winter zone in China. Building and Environment, 106: 365–377.
Weber A, Koschenz M, Holst S, Hiller M, Welfonder T (2002). TRNFLOW: Integration of COMIS into TRNSYS TYPE 56.
Wetter M (2011). Co-simulation of building energy and control systems with the Building Controls Virtual Test Bed. Journal of Building Performance Simulation, 4: 185–203.
Wong PC (2008). Natural ventilation in double-skin facade design for office buildings in hot and humid climate. PhD Thesis, University of New South Wales, Australia.
Yazdanian M, Klems JH (1994). Measurement of the exterior convective film coefficient for windows in low-rise buildings. ASHRAE Transactions, 100(1): 1087–1096.
Yu J-S, Kim J-H, Kim S-M, Kim J-T (2017). Thermal and energy performance of a building with PV-applied double-skin facade. Proceedings of the Institution of Civil Engineers -Engineering Sustainability, 170: 345–353.
Zhai Z, El Mankibi M, Zoubir A (2015). Review of natural ventilation models. Energy Procedia, 78: 2700–2705.
Acknowledgements
This research is supported by the Research Council of Norway research grant 262198 and by the industrial partners SINTEF and Hydro Extruded Solutions through the project “REsponsive, INtegrated, VENTilated - REINVENT–windows”. The authors would like to gratefully acknowledge the COST Action TU1403 “Adaptive Facades Network” for providing excellent research networking. This facilitated fruitful scientific discussions with several participants in the network, which led to increasing the quality of the paper.
Author information
Authors and Affiliations
Corresponding author
Rights and permissions
About this article
Cite this article
Catto Lucchino, E., Goia, F., Lobaccaro, G. et al. Modelling of double skin facades in whole-building energy simulation tools: A review of current practices and possibilities for future developments. Build. Simul. 12, 3–27 (2019). https://doi.org/10.1007/s12273-019-0511-y
Received:
Revised:
Accepted:
Published:
Issue Date:
DOI: https://doi.org/10.1007/s12273-019-0511-y