Capacitive effect on the heat transfer through building glazing systems

Applied Energy

Volumn 88, Issue 12, 2011, Pages 4310-4319

  Freire, Roberto Zanetti ^a   Mazuroski, Walter ^a   Abadie, Marc Olivier ^b   Mendes, Nathan ^a,b  

^a PONTIFICAL CATHOLIC UNIVERSITY OF PARANÁ   (Brazil)

^b UNIVERSITÉ DE LA ROCHELLE   (France)

Author keywords

Absorption; Glazing; Heat transfer; Modeling; Solar radiation

Indexed keywords

ABSORPTION; ATMOSPHERIC TEMPERATURE; BUILDINGS; COMPUTER SIMULATION; ELECTRIC LOAD FORECASTING; ENERGY UTILIZATION; GLAZES; HEAT TRANSFER; SOLAR ENERGY; SUN;

AIR TEMPERATURE; BUILDING ENERGY SIMULATIONS; BUILDING ENVELOPES; BUILDING PERFORMANCE; CAPACITIVE EFFECT; ENERGY DEMANDS; ENERGY SIMULATION PROGRAMS; FINITE-VOLUME; GLAZING; GLAZING SYSTEMS; HIGH THERMAL; INTERNAL SURFACES; SOLAR ABSORPTION; THERMAL INERTIA;

ENERGY CONSERVATION;

ABSORBANCE; AIR TEMPERATURE; BUILDING; ENERGY USE; FINITE VOLUME METHOD; GLASS; HEAT TRANSFER; INSTALLATION; NUMERICAL MODEL; PERFORMANCE ASSESSMENT; PREDICTION; SOLAR RADIATION;

EID: 80052268386     PISSN: 03062619     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.apenergy.2011.04.006     Document Type: Article

References (41)

1. Yu J., Yang C., Tian L., Liao D. A study on optimum insulation thicknesses of external walls in hot summer and cold winter zone of China. Appl Energy 2009, 86:2520-2529.
2. Fayaz R., Kari B.M. Comparison of energy conservation building codes of Iran, Turkey, Germany, China, ISO 9164 and EN 832. Appl Energy 2004, 86:1949-1955.
3. Radhi H., Eltrapolsi A., Sharples S. Will energy regulations in the Gulf States make buildings more comfortable - a scoping study of residential buildings. Appl Energy 2009, 86:2531-2539.
4. Yu J., Yang C., Tian L., Liao D. Evaluation on energy and thermal performance for residential envelopes in hot summer and cold winter zone of China. Appl Energy 2009, 86:1970-1985.
5. Agrawal B., Tiwari G.N. Optimizing the energy and exergy of building integrated photovoltaic thermal (BIPVT) systems under cold climatic conditions. Appl Energy 2010, 87:417-426.
6. Kocifaj M. Efficient tubular light guide with two-component glazing with Lambertian diffuser and clear glass. Appl Energy 2009, 86:1031-1036.
7. Darula S., Kittler R., Kocifaj M. Luminous effectiveness of tubular light-guides in tropics. Appl Energy 2010, 87:3460-3466.
8. Wong S.L., Wan K.K.W., Lam T.N.T. Artificial neural networks for energy analysis of office buildings with daylighting. Appl Energy 2010, 87:551-557.
9. Li D.H.W., Cheung E.K.W.T.K.L., Tam C.O. An analysis of light-pipe system via full-scale measurements. Appl Energy 2010, 87:799-805.
10. Chel A., Tiwari G.N., Singh H.N. A modified model for estimation of daylight factor for skylight integrated with dome roof structure of mud-house in New Delhi (India). Appl Energy 2010, 87:3037-3050.
11. Chel A., Tiwari G.N., Chandra A. A model for estimation of daylight factor for skylight) an experimental validation using pyramid shape skylight over vault roof mud-house in New Delhi (India). Appl Energy 2009, 86:2507-2519.
12. Chow T.T., Chan A.L.S., Fong K.F., Lin Z., He W., Ji J. Annual performance of building-integrated photovoltaic/water-heating system for warm climate application. Appl Energy 2009, 86:689-696.
13. Li D.H.W., Lam T.N.T., Chan W.W.H., Mak A.H.L. Energy and cost analysis of semi-transparent photovoltaic in office buildings. Appl Energy 2009, 86:722-729.
14. Arasteh D, Selkowitz S, Apte J, LaFrance M. Zero energy windows. Lawrence Berkeley National Laboratory, Paper LBNL-60049; 2006.
15. Florides G.A., Tassou S.A., Kalogirou S.A., Wrobel L.C. Measures used to lower building energy consumption and their cost effectiveness. Appl Energy 2002, 73:299-328.
16. Askar H., Probert S.D., Batty W.J. Windows for buildings in hot arid countries. Appl Energy 2001, 70:77-101.
17. Omar E.A., Al-Ragom F. On the effect of glazing and code compliance. Appl Energy 2002, 71:75-86.
18. Bahaj A.S., James P.A.B., Jentsch M.F. Potential of emerging glazing technologies for highly glazed buildings in hot arid climates. Energy Build 2008, 40:720-731.
19. Loutzenhiser P.G., Manz H., Carl S., Simmler H., Maxwell G.M. Empirical validations of solar gain models for a glazing unit with exterior and interior blind assemblies. Energy Build 2008, 40:330-340.
20. Poirazis H., Blomsterberg A., Wall M. Energy simulations for glazed office buildings in Sweden. Energy Build 2008, 40:1161-1170.
21. Perez Y.V., Capeluto I.G. Climatic considerations in school building design in the hot-humid climate for reducing energy consumption. Appl Energy 2009, 86:340-348.
22. Papaefthimiou S., Syrrakou E., Yianoulis P. An alternative approach for the energy and environmental rating of advanced glazing) an electrochromic window case study. Energy Build 2009, 41:17-26.
23. Tanaka H., Okumiya M., Tanaka H., Yoon G.Y., Watanabe K. Thermal characteristics of a double-glazed external wall system with roll screen in cooling season. Build Environ 2009, 44:1509-1516.
24. Urbikain M.K., Sala J.M. Analysis of different models to estimate energy savings related to windows in residential buildings. Energy Build 2009, 41:687-695.
25. Heller A.J. Heat-load modelling for large systems. Appl Energy 2002, 72:371-387.
26. Crawley DB, Lawrie LK, Pedersen CO, Winkelmann FC, Witte MJ, Strand RK, et al. EnergyPlus: an update. In: Proc of the SimBuild 2004 conference, 4-6 August, Boulder, Colorado, IBPSA-USA; 2004.
27. Klein SA, Beckman WA, Mitchell JW, Duffie JA, Duffie NA, Freeman TL, et al. TRNSYS 16 - a TRaNsient SYstem Simulation program, User manual. Solar Energy Laboratory, University of Wisconsin-Madison, Madison; 2004.
28. Powles R, Curcija D, Köhler C. Solar absorption in thick and multilayered glazings. In: Proc of the VII world renewable energy congress, June 29-July 5, Cologne, Germany; 2002.
29. Ismail K.A.R., Henríquez J.R. Modeling and simulation of a simple glass window. Sol Energy Mater Sol Cells 2003, 355-374.
30. Strobel CS, Abadie MO, Mendes N. Absorption of solar radiation in thick and multilayered glazing. In: Xth international building performance simulation association conference and exhibition (BS2007); 2007.
31. Mendes N., Barbosa R.M., Freire R.Z., Oliveira R.C.L.F. A simulation environment for performance analysis of HVAC systems. Build Simul Int J 2008, 1:129-143.
32. Barbosa R.M., Mendes N. Combined simulation of central HVAC systems with a whole-building hygrothermal model. Energy Build 2008, 40:276-288.
33. Freire R.Z., Oliveira G.H.C., Mendes N. Development of regression equations for predicting energy and hygrothermal performance of buildings. Energy Build 2008, 40:810-820.
34. EnergyPlus, Engineering reference book. The reference to EnergyPlus calculations; November 6, 2007.
35. Finlayson E, Arasteh D, Rubin M, Sadlier J, Sullivan R, Huizenga C, et al. Advancements in thermal and optical simulations of fenestration systems: the development of WINDOW 5. In: Proc of the VI thermal envelopes conference, Clearwater Beach, FL; 1995.
36. Siegel R, Howell J. Thermal radiation heat transfer. 4th ed. Taylor & Francis; 2001.
37. Wright J.L. A correlation to quantify convective heat transfer between vertical window glazings. ASHRAE Trans 1996, 102(1).
38. Finlayson E, Arasteh D, Huizenga C, Rubin M, Reilly M. Window 4.0: documentation of calculation procedures. Lawrence Berkeley National Laboratory, Paper LBNL-33943; 1993.
39. ANSI/ASHRAE standard 140, standard method of test for the evaluation of building energy analysis computer programs; 2001.
40. Judkoff RD, Neymark JS. Building energy simulation test (BESTEST) and diagnostic method. National Renewable Energy Laboratory NREL/TP-472-623 (NREL); 1995.
41. Santos G.H., Mendes N. Analysis of numerical methods and simulation time step effects on the prediction of building thermal performance. Appl Therm Eng 2004, 24(8-9):1129-1142.