Jul. 29, 2024
Architects rely on BIPV
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Architects are gravitating towards BIPV for its versatility, tapping into the energy potential of an all-productive surface. For the first time, double-duty materials are lowering costs as compared to traditional solar panels, which must be attached to an existing, architecturally sound structure. The incorporation of multifunctional materials into green design also allows for onsite production of electricity, with the compelling potential to reduce a buildings dependence on the grid.
Strict climate policies aimed at accelerating our collective shift towards carbon neutrality will also be a boon to building integrated PV. Last year, California decreed that most new homes must be fitted with solar energy systems. A handful of citiesWatertown, Massachusetts among themnow mandate that qualifying buildings be retrofitted with solar and that new constructions be solar ready. Climate lobbyists intend to have similar legislation introduced in a dozen states by . These recent compulsory solar policies are already driving demand for more beautiful, sustainable construction products.
By boasting the same functionality and a more customized aesthetic, building-integrated PV offers a solution for those who may not like the look of traditional solar panels. Beyond its integration into new buildings, a more subtle appearance means BIPV has been employed in renewable energy renovations within protected cultural heritage sites. Also unlike traditional panels, colored layers or films can be built into BIPV technology, allowing for personalized color-coating to complement any architectural style.
Building-integrated photovoltaics (BIPV) are solar power generating products or systems that are seamlessly integrated into the building envelope and part of building components such as façades, roofs or windows. Serving a dual purpose, a BIPV system is an integral component of the building skin that simultaneously converts solar energy into electricity and provides building envelope functions such as:
BIPV systems can be installed during the construction phase of a building or deployed in the course of a retrofit of an existing building when one of the envelope components needs to be replaced. The built environment allows for many ways to integrate BIPV. In general, there are three main application areas for BIPV:
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Further reading:BIPV modules currently available on the market use either crystalline silicon-based (c-Si) solar cells or thin film technologies such as amorphous-based silicon (a-Si), cadmium telluride (CdTe) and copper indium gallium selenide (CIGS). Semi-transparency, for skylight or curtain wall applications for example, can be achieved with most technologies by either spacing opaque c Si solar cells or making the thin film layer transparent. However, the module efficiency decreases with the increase of transparency as less sunlight is captured and converted into electricity by the photovoltaic layer.
The benefits of BIPV are manifold: BIPV not only produces on-site clean electricity without requiring additional land area, but can also impact the energy consumption of a building through daylight utilization and reduction of cooling loads. BIPV can therefore contribute to developing net-zero energy buildings. Turning roofs and façades into energy generating assets, BIPV is the only building material that has a return on investment (ROI). Furthermore, the diverse use of BIPV systems opens many opportunities for architects and building designers to enhance the visual appearance of buildings. Finally, yet importantly, building owners benefit from reduced electricity bills and the positive image of being recognized as "green" and "innovative".
A subset of BIPV is BIPV with thermal energy recovery so-called BIPVT. Such systems produce heat and electricity simultaneously from the same building surface area. When air is used as the heat recovery medium (BIPVT/a), the extracted thermal energy is available either for direct use for low temperature applications (e.g. fresh air preheating), or through the mediation of a heat pump, for higher temperatures (e.g. space heating, domestic water heating). The main benefit of BIPVT is that it produces more energy per surface area than a stand-alone BIPV system. A side benefit is that under heat recovery conditions, the PV cells will be cooler than in a BIPV roof without thermal energy recovery thus improving the module efficiency.
A study conducted by Natural Resources Canada in revealed a huge market potential for BIPV in Canada, indicating that about 71.34 TWh could be generated by installing this technology in residential and commercial/institutional buildings. The construction trend towards highly-glazed multi-storey buildings in the past decade has further increased the area suitable for BIPV. In addition, technological advancements in regard to energy-efficient, flexible, colored and transparent solar materials allow for wider applications of BIPV.
To date, more than 50 commercial, institutional as well as several smaller residential BIPV projects have been realized in Canada, providing new market opportunities for solar manufacturers and the building envelope industry (see figure 4).
For more information, please refer to the Technology research publications portal in the Renewables section.
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