Energy Matrices of Building Integrated Photovoltaic Thermal Systems: Case Study

被引:13
作者
Gupta N. [1 ]
Tiwari G.N. [2 ]
机构
[1] Centre for Energy Studies, Indian Institute of Technology Delhi, Hauz Khas, New Delhi
[2] Bag Energy Research Society (BERS), 11B, Gyan Khand IV, Indirapuram, Ghaziabad, UP
关键词
Building integrated semitransparent photovoltaic thermal (BiSPVT); Energy payback time (EPBT); Lifecycle analysis (LCA);
D O I
10.1061/(ASCE)AE.1943-5568.0000270
中图分类号
学科分类号
摘要
In this paper, an attempt has been made to study and analyze the integration of residential buildings with photovoltaic (PV) systems. PV panels can be integrated with buildings in various ways (façades, double skin façades, sunshades, rooftops, skylights, etc.), which not only helps in the generation of electricity but also produces thermal heat and daylight. Further, it adds to the aesthetic appeal of the building. More than one-third of the global energy requirement is dedicated to the building sector. About 23% of the total electricity demand accounts for the residential buildings. Integration of a PV system is necessary because it replaces the conventional building materials and at the same time acts as an energy generator to make the building self-sustainable. This reduces the building's energy demand on the conventional grid and the overall emission of greenhouse gases. It has been found that integration of a semitransparent PV module integrated with the roof at Sodha Bers Complex (SBC) for composite climate at Varanasi, India, provided electrical energy, thermal energy (space heating and domestic hot water heating), and day lighting. The energy payback time (EPBT), energy production factor (EPF), and lifecycle conversion efficiency (LCCE) for ΔT = 8°C and average daily solar radiation = 450 W/m2 was obtained as 15.32 years, 19.58 years (for 300 years), and 0.47 years (for 300 years), respectively. © 2017 American Society of Civil Engineers.
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共 64 条
[1]  
Agathokleous R.A., Kalogirou S.A., Double skin facades (DSF) and building integrated photovoltaics (BIPV): A review of configurations and heat transfer characteristics, Renewable Energy, 89, pp. 743-756, (2016)
[2]  
Agrawal P.C., A review of passive systems for natural heating and cooling of buildings, Solar Wind Technol., 6, 5, pp. 557-567, (1989)
[3]  
Aulich H., Schulz F., Strake B., Energy pay-back time for crystalline silicon photovoltaic modules using new technologies, Proc. 18th IEEE PV Specialists Conf., pp. 1213-1218, (1985)
[4]  
Baljit S., Chan H.-Y., Sopian K., Review of building integrated applications of photovoltaic and solar thermal systems, J. Cleaner Proc., 137, pp. 677-689, (2016)
[5]  
Buonomano A., Calise F., Palombo A., Vicidomini M., BIPVT systems for residential applications: An energy and economic analysis for European climates, Appl. Energy, 184, pp. 1411-1431, (2016)
[6]  
Cucchiella F., D'Adamo I., Gastaldi M., Photovoltaic energy systems with battery storage for residential areas: An economic analysis, J. Cleaner Prod., 131, pp. 460-474, (2016)
[7]  
Darghouth N.R., Barbose G., Wiser R.H., Customer-economics of residential photovoltaic systems (Part 1): The impact of high renewable energy penetrations on electricity bill savings with net metering, Energy Policy, 67, pp. 290-300, (2014)
[8]  
Davi G.A., Caamano-Martin E., Ruther R., Solano J., Energy performance evaluation of a net plus-energy residential building with grid-connected photovoltaic system in Brazil, Energy Build., 120, pp. 19-29, (2016)
[9]  
Didone E.L., Wagner A., Semi-transparent PV windows: A study for office buildings in Brazil, Energy Build., 67, pp. 136-142, (2013)
[10]  
Dinan T.M., Miranowski J.A., Estimating the implicit price of energy efficiency improvements in the residential housing: A hedonic approach, J. Urban Econ., 25, 1, pp. 52-67, (1989)