ANÁLISE TERMOGRÁFICA DA UTILIZAÇÃO DE COBERTURA VEGETADA EM GUARITAS DE FIBRA DE VIDRO
DOI:
https://doi.org/10.46421/entac.v17i1.1424Palavras-chave:
passive cooling, green roof, fiberglass shelters, thermographyResumo
In light-weight, security booths built in fiberglass, due to their poor thermal performance, the use of adequate roof materials can minimize heat gains in summer while avoiding heat losses in winter. Green roofs are among the building components that can contribute to indoor thermal stabilization while promoting temperature reductions in summer. The present study aimed to evaluate the use of a green roof in fiberglass security booths. Two modules were tested, one with and another without a green roof, under warm conditions in a subtropical location. The technique explored in this paper is based on thermography analysis. Results showed a higher thermal performance of the green roof in terms of mean temperature reduction at the ceiling when compared to the conventional roof in such structures.
Referências
ASDRUBALI, F.; BALDINELLI, G.; BIANCHI, F. A quantitative methodology to evaluatethermal bridges in buildings. Applied Energy, v. 97, p. 365-373, 2012.
BROWN, G. Z.; DEKAY, M. Sol, Vento & Luz. 2ª edição. Porto Alegre: Bookman, 2004.
CAPOZZOLI, A.; GORRINO, A.; CORRADO, V. A building thermal bridges sensitivityanalysis. Applied Energy, v.107, p. 229-243, 2013.
FREITAS, S.S. de.; FREITAS, V.P. de.; BARREIRA, E. Detection of façade plasterdetachments using infrared thermography A nondestructive technique.
Construction and Building Materials, v.70, p. 80-87, 2014.
FROTA, A.B.; SCHIFFER, S.R. Manual de conforto térmico. SP, Studio Nobel, 1995.
KOENIGSBERGER, O. T.; INGERSOLL, T. G.; MAYHEW, A.; SZOKOLAY, S. Vivienda yedificios en zonas cálidas y tropicales. Madrid: Paraninfo, 1977.
MINKE, G. Techos verdes - Planificación, ejecución, consejos prácticos. Uruguay:Editora Fin de Siglo, 2005.
MISSENARD, A. Étude physiologique et technique de la ventilation. Paris, Léon, 1933.
NORMA REGULAMENTADORA. (2017). NR 17: Ergonomia. Disponível:<http://www.trt02.gov.br/geral/tribunal2/LEGIS/CLT/NRs/NR_17.html>. Acesso: mar.de 2018.
PORRAS-AMORES, C.; MAZARRÓN, F.R.; CAÑAS, I. Study of the Vertical Distribution ofAir Temperature in Warehouses. Energies, v. 7, 2014, p. 1193-1206, 2014.
RAO, P. Infrared thermography and its applications to civil engineering. IndianConcrete Journal, v.82, n.5, p. 41-50, 2008.
SAKAGAMI, T.; KOMIYAMA, T.; SUZUKI, H. Proposal for a new thermographic,nondestructive, testing technique using microwave heating. In: Proceedings of thethermosense XXI. Orlando, FL: International Society for Optical Engineering. (SPIE); p.99 103, 1999.
SANTAMOURIS, M.; PAVLOU, C.; DOUKAS, P.; MIHALAKAKOU, G.; SYNNEFA, A.;HATZIBIROS, A.; PATARGIAS, P. Investigating and analysing the energy andenvironmental performance of an experimental green roof system installed in anursery school building in Athens, Greece. Energy, v. 32, n.9, p. 1781-1788, 2007.
SAVI, C. A. Telhados verdes: análise comparativa de custo com sistemas tradicionaisde cobertura. 2012. Monografia de Especialização em Construções Sustentáveis(CECONS/UTFPR). Disponível em:<http://repositorio.roca.utfpr.edu.br/jspui/bitstream/1/788/1/CT_CECONS_II_2012_01.
pdf >. Acesso em: 19 mar. 2018.
USAMENTIAGA, R.; VENEGAS, P.; GUEREDIAGA, J.; VEGA, L.; MOLLEDA, J.; BULNES,F.G. Infrared Thermography for Temperature Measurement and Non-DestructiveTesting. Sensors, v.14, p. 12305-12348, 2014.