Solar Energy Systems in Architecture - Integration Criteria and Guidelines

Probst, Maria Cristina Munari; Roecker, C.; Frontini, Francesco; Scognamiglio, Alessandra; Farkas, Klaudia; Maturi, Laura; Zanetti, I.

doi:10.18777/ieashc-task41-2013-0001

Cited by 14 publications

(7 citation statements)

References 2 publications

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“…Architectural integration potential of solar technologies has been extensively studied in for instance IEA SHC Task 41, which defines it as the combination of functional and formal (aesthetic) integration potential [17]. The aesthetic integration of the PV/T technologies has not explicitly been investigated in the study presented here.…”

Section: Pv/t In Buildingsmentioning

confidence: 99%

Hybrid Photovoltaic-thermal Systems in Buildings – A Review

et al. 2015

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This paper presents a review of projects where hybrid photovoltaic-thermal (PV/T) systems are used in buildings. PV/T systems convert solar radiation to electricity and heat simultaneously, in one module. The output of both electricity and heat suggests that the technology can be suited for use in buildings, especially when the available area for installation is limited. The market and research activities related to PV/T technology has increased in recent years. This article adds to existing reviews on PV/T technology by focusing on the building perspective. Different strategies for the use of PV/T in buildings are discussed, and examples of building projects are presented. An attempt is also made to assess to suitability of different PV/T technologies for use in buildings. Finally, the regional variations in market and applications are discussed.

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Section: Pv/t In Buildingsmentioning

confidence: 99%

Hybrid Photovoltaic-thermal Systems in Buildings – A Review

et al. 2015

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“…Different working groups of the International Energy Agency (IEA) on BIPV (i.e., PVPS Task 7 [15], IEA Task 41 [26], Task 59 [27] and Task 51 [28]), have underlined the importance of "formal/aesthetic" integration, beyond the multi-functionality concept. Particularly, the IEA-SHC Task 41 [26] defines architectural integration quality as the result of a controlled and coherent integration of the solar collectors from functional, constructive and formal (or aesthetic) points of view simultaneously. Other IEA working groups (Task 59 [27] and Task 51 [28]) also encourage an ad-hoc BIPV design to preserve original shapes, features and values in heritage and existing sites, favouring the aesthetic integration too.…”

Section: Pv Integration Conceptsmentioning

confidence: 99%

“…The aesthetic integration identifies the ability of the product to define morphological and architectural rules which steer the architectural language and composition of buildings [26]. Consequently, the shape, dimension, position, materials, colour and texture of modules are defined in parallel with junction systems and mounting structure, which should be invisible to guarantee a good camouflage of the BIPV technology in the building envelope.…”

Section: Evaluation Criteria and Market Analysismentioning

confidence: 99%

Coloured BIPV Technologies: Methodological and Experimental Assessment for Architecturally Sensitive Areas

et al. 2020

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Energy flexibility in buildings is gaining momentum with the introduction of new European directives that enable buildings to manage their own energy demand and production, by storing, consuming or selling electricity according to their need. The transition towards a low-carbon energy system, through the promotion of on-site energy production and enhancement of self-consumption, can be supported by building-integrated photovoltaics (BIPV) technologies. This paper investigates the aesthetic and technological integration of hidden coloured PV modules in architecturally sensitive areas that seem to be the best possibility to favour a balance between conservation and energy issues. First, a multidisciplinary methodology for evaluating the aesthetic and technical integration of PV systems in architecturally sensitive area is proposed, referring to the technologies available on the market. Second, the experimental characterisation of the technical performance specific BIPV modules and their comparison with standard modules under standard weather condition are analysed, with the aim of acquiring useful data for comparing the modules’ integration properties and performance. For this purpose, new testbeds have been set up to investigate the aesthetic integration and the energy performances of innovative BIPV products. The paper describes the analyses carried out to define the final configuration of these experimental testbeds. Finally, the experimental characterisation at standard test conditions of two coloured BIPV modules is presented and the experimental design for the outdoor testing is outlined.

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“…Photovoltaics (PV) is a method to produce electrical energy by converting solar radiation into DC electric current energy through the use of semiconductor technology and photovoltaic effects [3]. Factors affecting the performance of solar panels are the technology/type of photovoltaic and local conditions that include latitude, sun exposure value, outdoor air temperature, and environment [4].…”

Section: B Solar Panel Systemmentioning

confidence: 99%

A Review on Effect of Building Integrated Photovoltaic Placement and its Potency in Generating Electrical Energy

Rudianto

Ekasiwi

Antaryama

2018

IJPS

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AbstractBIPV is an integral part of the building envelope such as the roof or the facade. There is a difference of Building Integrated Photovoltaic placement between the location in the equator region and other regions. The study aims to know the effect of BIPV placement and its potency in generating electrical energy. The study reviews previous research related topics of BIPV in all regions. The study shows that BIPV placement is determined by the sun's position that producers incidence angle. Incidence angle should fall perpendicularly on a surface to obtain the high of an intensity of solar irradiation. Therefore, most of BIPV placement in the equator region are on rooftops while in the regions far from equator not only on rooftops but also on facades. Roofs are so far considered to be the ideal location for BIPV placement since roofs provide the best solar energy generation. The potency of BIPV can be explored in building design with the variation of orientation and shape to increase the building surfaces for getting solar potential.

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Solar Energy Systems in Architecture - Integration Criteria and Guidelines

Cited by 14 publications

References 2 publications

Hybrid Photovoltaic-thermal Systems in Buildings – A Review

Hybrid Photovoltaic-thermal Systems in Buildings – A Review

Coloured BIPV Technologies: Methodological and Experimental Assessment for Architecturally Sensitive Areas

A Review on Effect of Building Integrated Photovoltaic Placement and its Potency in Generating Electrical Energy

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