The use of a heavy internal wall with a ventilated air gap to store solar energy and improve summer comfort in timber frame houses

Energy and Buildings

Volumn 38, Issue 4, 2006, Pages 293-302

  Fraisse, G ^a   Johannes, K ^a   Trillat Berdal, V ^a   Achard, G ^a  

^a Laboratoire Optimisation de la Conception et Ingenierie de l'Environnement   (France)

Author keywords

Comfort; Heat storage; Solar air collector; Ventilated wall

Indexed keywords

AIR; HEAT EXCHANGERS; HEAT LOSSES; HEAT STORAGE; HOUSES; SOLAR ENERGY; THERMAL INSULATION; VENTILATION;

COMFORT; SOLAR AIR COLLECTOR; VENTILATED WALL;

WALLS (STRUCTURAL PARTITIONS);

EID: 31144473614     PISSN: 03787788     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.enbuild.2005.06.010     Document Type: Article

References (32)

1. G. Fraisse, G. Achard, and V. Trillat-Berdal Bâtiments à ossature bois: définition d'une enveloppe pariéto-dynamique vol. 16-17 2004 Climamed Lisbon 10 pp
2. R. Cadiergues, R. Espic, M.C. Lemaire, E. Michel, Isolation dynamique, étude de synthèse, rapport final, contrat no. 4.330.2315, 1986, 217 pp.
3. Paziaud, Des fenêtres pariéto-dynamiques contre les déperditions thermiques, Les Cahiers Techniques du Bâtiment no. 181, 1997, pp. 38-40.
4. P.H. Baker, and M.E. McEvoy An investigation into the use of a supply air window as a heat reclaim device Proceedings of CIBSE A: Building Services and Engineering Technology, vol. 20 (3) 1999 105 112
5. D. Schmidt, and G. Jóhannesson Approach for modelling of hybrid heating and cooling components with optimised RC networks The Nordic Journal of Building Physics 3 2002 34
6. CSTB, Réglementation thermique, guide RT2000, Enjeux, changements, exigence, textes de référence, 2001, http://www.cstb.fr.
7. P. Wallentén, Dynamic Insulation, Analysis and Field Measurements, Report TABK - 96/3034, Lund University, Sweden, 1996, 36 pp.
8. F. Trombe, Brevet ANVAR, Trombe-Michel BF 7123778, 1971, France.
9. L. Zalewski, M. Chantant, S. Lassue, and B. Duthoit Experimental thermal study of a solar wall of composite type Energy and Buildings 25 1 1997 7 18
10. S. Ubertini, and U. Desideri Design of a solar collector for year-round climatization Renewable Energy 28 4 2003 623 645
11. A. Guiavarch, B. Peuportier, Murs solaires à isolation renforcée, Rapport d'avancement no. 1 de la convention ADEME-ARMINES no. 02.04.083, June 2003, 46 pp.
12. K. Pottler, C.M. Sippel, A. Beck, and J. Fricke Optimized finned absorber geometries for solar air heating collectors Solar Energy 67 1-3 1999 35 52
13. J.C. Hollick World's largest and tallest solar recladding Renewable Energy 9 September-December (1-4) 1996 703 707
14. S. Potier, J.L. Maltret, J. Zoller, Computer graphics, assistance for archaeological hypotheses, ACADIA 98, Association for Computer Aided Design in Architecture, October 1998, pp. 366-383.
15. N.K. Bansal, and Shail Characteristic parameters of a hypocaust construction Building and Environment 34 May (3) 1998 305 318
16. B.D. Howard The CMU air-core passive hybrid heat storage system Proceedings of the Renewable and Advanced Energy Systems for the 21st Century Lahaina, Maui, Hawaii, April 11-15 1999
17. IEA, Solar air systems: a design handbook, in: R. Hastings (Ed.), IEA Solar Heating and Cooling Programme, James & James, 2000.
18. K. Imessad, N. Ait Messaoudene, and M. Belhamel Performances of the Bara-Costantini passive heating system under Algerian climate conditions Renewable Energy 29 March (3) 2004 357 367
19. Thermal Properties and Thermal Design, Solar Heat Storage, www.ocba.ca/media/Chapt_6.pdf.
20. P. Barton, C.B. Beggs, and P.A. Sleigh A theoretical study of the thermal performance of the TermoDeck hollow core slab system Applied Thermal Engineering 22 September (13) 2002 1485 1499
21. Brun Hollow Core Concrete Elements, http://www.brunag.ch/.
22. Hypokaustenheating, http://www.harbola.de/start_e.htm.
23. Tang Lee, Comparing the Performance of Masonry, Masonry in Solar Energy Design, Chapter 5, Final Draft, 10 pp., http://www.ucalgary.ca/UofC/faculties/EV/people/faculty/profiles/lee/bldgsc/ brick/Chapt5.PDF.
24. C. Nordstrom, Project Summary, Västra Balltorp, www.rehva.com/projects/resset/resset_soubory/RESSET_SE_2.pdf.
25. A. Gütermann, http://www.empa-ren.ch/REN%20english/Herisau_E.htm.
26. J. Rahbek, Eco-houses with solar walls and integrated heat storages in Denmark, Sustainable Building and Solar Energy, Brno, Czech Republic, 15-16 November 2001.
27. M. Schuler, T. Lechner, Two Example for Corporate Identity by Intelligent Building Design, www.transsolar.com/download/e/eco_gniebel_WAT.pdf.
28. S. Takase, T. Watanabe, T. Hayashi, A. Ozaki, Measurement and Simulation of the Thermal Environment of a Low Energy House with Air-Circulation in Brick Walls, www.esim.ca/2001/documents/proceedings/Session6-2.pdf.
29. G. Fraisse, C. Viardot, O. Lafabrie, and G. Achard Development of a simplified and accurate building model based on electrical analogy Energy and Building 34 10 2002 1017 1031
30. C. Plantier, and G. Fraisse Development and experimental validation of a detailed flat-plate solar collector model ISES Solar World Congress Göteborg, Sweden, 14-19 June 2003 7 pp
31. S.A. Klein, et al., TRNSYS A Transient System Simulation Program, Version 14.2, Solar Energy Laboratory, University of Wisconsin, Madison, Reference Manual, WI 53706, 1996.
32. H.D. Ammari A mathematical model of thermal performance of a solar air heater with slats Renewable Energy 28 10 2003 1597 1615