Entdecken Sie innovative Lösungen für Solaranlagen an denkmalgeschützten Gebäuden. Praxistipps für Solarteure und Planer im Umgang mit Denkmalschutz.

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Entdecken Sie innovative Solarfassadenlösungen für energieeffiziente Gebäude und erfahren Sie mehr über die neuesten Sicherheitsstandards bei der

2-teilige BIPV-Weiterbildung am Fraunhofer ISE, bestehend aus Theorieteil (Online), Selbstlernphase und Praxisteil (Präsenztermin): Vermittlung umfassender BIPV-Kenntnisse

Solarstrom von der Fassade und alte Spiele im neuen Glanz: Was Remaster und BIPV wirklich taugen. Dies und weitere Themen in der Post zum Freitag.

The new product weighs 13 kg/m2 and is claimed to be particularly suitable for building facades. It features a power ouput of 75 W and a junction box with an IP-68 rating.

Using colorful BIPV panels, architects retrofitted an existing 12-story residential building in Alberta, Canada.

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A partnership between PXP Inc and Tokyo Gas Co is working on developing film-type chalcopyrite solar cells for industrial roofs with low load-bearing capacity. Elsewhere, a coalition of partners is in...

Using colorful BIPV panels, architects retrofitted an existing 12-story residential building in Alberta, Canada.

Climacy, a building integrated PV manufacturer, has launched a new semi-transparent 400 W glass-glass panel that is suitable for use in roofs or facades in residential, industrial and commercial build...

Scientists have proposed a building-integrated PV system that integrates airflow to cool the panels and control room temperature. The system, which also acts as a shading device, can reportedly mitiga...

The adoption of distributed photovoltaic (PV) in cities can alleviate energy shortages, and building integrated photovoltaic (BIPV) has multiple advan…

BIPV windows have great potential in embedding the renewable energy generation in the building envelope, although its performance in hot dusty conditions is still limited by the environmental conditions that are not adequately investigated in the research and practice. The primary barrier in semi-arid areas is dust deposition since deposited particulates lower optical transmittance by reflecting, absorbing, and scattering solar radiation to the photovoltaic layer, thus lowering the amount of solar radiation reaching the photovoltaic layer1 It has been experimentally revealed that even relatively low dust density can cause a decrease in short-circuit current, maximum power, and general efficiency, and2proved that the transmission loss is highly dependent on the tilt angle, orientation, and airflow. In more extreme conditions such as deserts3, found high efficiency losses when there was a heavy deposition, which confirms the vulnerability of photovoltaic glazing to soiling in arid and semi-arid environments. This issue is increased on vertical and near-vertical surfaces by the lack of rainfall cleaning and airflow and transport patterns of particles that may lead to uneven but consistent deposition over time4,5,6. The optical performance penalty is not the only one: dust can also enhance thermal loading by changing the radiative properties of surfaces, and...