Airtightness impact on energy needs and airflow pattern: a numerical evaluation for mechanically ventilated dwellings in France

References

• Anonymous.(1991). Code of practice for ventilation principles and designing for natural ventilation, BS 5925. London: British Standards Institute.
   Google Scholar
• Brogat, B., Fontan, J., & Lanchon, P. (2003). Bâtiment et santé – Ventilation des bâtiments – Réhabilitation dans l'habitat collectif. [Building and health – Ventilation for buildings – Rehabilitation in multifamily building]. Edition CSTB. ISBN 2-86891-306-7.
   Google Scholar
• Chan, W.R., Joh, J., & Sherman, M.H. (2013). Analysis of air leakage measurements of US houses. Energy and Buidlings, 66, 616–625.
   Web of Science ®Google Scholar
• CSTB. (2006). Guide réglementaire - Règle Th-Bât – Th-U 1/5 coefficient Ubât [Regulatory guide – rule Th-Bât – Th-U 1/5 Ubât coefficient].
   Google Scholar
• CSTB (2011). Méthode ThBCE – ANNEXE à l'arrêté portant approbation de la méthode de calcul Th-BCE 2012 approuvé par l'Arrêté du 20 juillet 2011, France [Method Th-BCE - APPENDIX to the order approving the calculation method Th-BCE 2012 approved by the Order of 20 July 2011, France].
   Google Scholar
• CSTB (2014). Avis Technique 14/13-1911 - Systèmes de ventilation mécanique hygroréglable ATLANTIC, January 28th [Technical Assessment 14 / 13-1911 – Humidity sensitive Mechanical ventilation ATLANTIC, January 28th].
   Google Scholar
• Dimitroulopoulou, C. (2012). Ventilation in European dwellings: A review. Building and Environment, 47, 109–125.
   Web of Science ®Google Scholar
• Durier, F. (2008). Trends in the French building ventilation market and drivers for changes (Ventilation Information Paper No. 19). Coventry, UK: Air Infiltration and Ventilation Centre.
   Google Scholar
• EN ISO 13789. (2007). Thermal performance of buildings — Transmission and ventilation heat transfer coefficients — Calculation method. AFNOR – ICS, 91.120.10
   Google Scholar
• EN NF 15242. (2007). Ventilation des bâtiments – Méthodes de calcul pour la détermination des débits d'air dans les bâtiments y compris les infiltrations [Ventilation for buildings – Calculation methods for the determination of airflow rates in buildings including infiltration].
   Google Scholar
• Feustel H.E., (1999). COMIS – an international multizone air-flow and contaminant transport model. Energy and Buidlings, 30(1), 3–18.
   Web of Science ®Google Scholar
• French J.O. (2010). Arrêté du 26 octobre 2010 relatif aux caractéristiques thermiques et aux exigences de performance énergétique des bâtiments nouveaux et des parties nouvelles de bâtiments, France [Statement of 26th October 2010 on the thermal characteristic and energy performance requirements of new buildings and new parts of buildings, France].
   Google Scholar
• Furbringer, J.M., Roulet, C.A., & Borchiellini, R. (1996). Annex 23 multizone air flow modelling – Evaluation of comis. Lausanne: Swiss Federal Institute of Technology.
   Google Scholar
• IEA ECBCS. (2002). Annex 27 – Simplified tool handbook - evaluation and demonstration of domestic ventilation systems. Hertfordshire, UK: FaberMaunsell Ltd.
   Google Scholar
• Liddament, M. (1986). Air infiltration calculation techniques – an application guide. Coventry, UK: Air Infiltration and Ventilation Centre. 172p.
   Google Scholar
• Liddament, M. (1996). A guide to energy-efficient ventilation. Coventry, UK: Air Infiltration and Ventilation Centre. 274p.
   Google Scholar
• Limoges, D. (2008). PREBAT PABHI – Etude de la perméabilité à l'air des bâtiments hyper isolés [Study of the air permeability of the above insulated buildings], ISRN EQ-CT69-DVT/RE—08-91—FR.
   Google Scholar
• Observatoire BBC (2011). Retour d'expérience sur bâtiments issus de l'Observatoire BBC. The observatory of the French label of low-energy buildings (BBC Effinergie).
   Google Scholar
• Pan, W. (2010). Relationships between air-tightness and its influencing factors of post-2006 new-build dwellings in the UK. Building and Environment, 45, 2387–2399.
   Web of Science ®Google Scholar
• QUAD-BBC final report. (2012). Convention ANR 08-Habisol007.
   Google Scholar
• Richieri, F., Salem, T., & Michel, P. (2007). Control of outdoor ventilation airflow rate – evaluation of setting methods. International Journal of Ventilation, 6(3), 207–218.
   Google Scholar
• Savin, J.-L., & Laverge, J. (2011). Demand-controlled ventilation: An outline of assessment methods and simulation tools. Paper presented at the 32nd AIVC Conference  – 1st TightVent conference  – Towards Optimal Airtightness Performance, Brussels: AIVC.
   Google Scholar
• Voit, P., Lechner, Th., & Schuler, M. (1994). Common EC validation procedure for dynamic simulation programs – application with TRNSYS, TRANSSOLAR GmbH. Conference of International Simulation Societies. Zürich.
   Google Scholar
• Woloszyn, M., Kalamees, T., Abadie, M.O., Steeman, M., & Kalagasidis, A.S. (2009). The effect of combining a relative-humidity-sensitive ventilation system with the moisture-buffering capacity of materials on indoor climate and energy efficiency of buildings. Building and Environment, 44, 515–524.
   Web of Science ®Google Scholar
• XP P50-410. (1995). DTU 68.1 – Installation de ventilation mécanique contrôlée: règles de conception et de dimensionnement (Indice de classement: P50-410) [Controlled ventilation system: design and sizing rules (Classification index: P50-410)].
   Google Scholar