RAILINGS & BALCONIES

A balustrade is a railing system designed for use in both interior and exterior settings. It typically consists of a top rail, vertical balusters or spindles, and the necessary hardware for securing the structure. Additionally, balustrades may include a bottom rail, posts, post caps, and decorative elements such as balls or finials.

Photovoltaic balustrade systems ( also known as Solar Railing or photovoltaic Balustrade) employ amorphous and crystalline silicon photovoltaic glass to accommodate a range of design preferences, energy requirements, and daylight conditions. Frameless photovoltaic glass integrates effortlessly into standard commercial systems, installed by glazing and electrical contractors.

These systems provide various levels of visible light transmittance. An ideal balustrade combines semi-transparent photovoltaic glass for enhanced aesthetics with fully opaque glass for superior energy generation, optimizing both energy yield and visual appeal.

A photovoltaic balustrade generates clean energy while boosting safety and enhancing the building’s visual design. The solar filter in the photovoltaic glass captures nearly all ultraviolet and infrared rays, safeguarding occupants from harmful radiation and improving thermal comfort.

By integrating Solar Balustrade, buildings can cut CO₂ and greenhouse gas emissions, supporting a lower carbon footprint and promoting sustainable architectural practices.

Onyx Solar’s photovoltaic balustrades, balconies, and railings combine sophisticated design with clean energy production. Using advanced photovoltaic glass, these systems provide numerous benefits tailored to these applications.

• Maximized Energy Generation: Positioned along building perimeters, these balustrade systems can capture sunlight from multiple angles, enhancing overall energy production compared to traditional vertical or horizontal surfaces.
• Enhanced Safety and Functionality: Photovoltaic glass in railings and balconies serves as a protective barrier while generating electricity, maintaining safety without sacrificing energy efficiency or aesthetics.
• Customized Light Control: The semi-transparent and opaque variants of photovoltaic glass allow for precise control over natural light and privacy, adapting to different architectural needs and improving occupant comfort.
• Improved Building Integration: By incorporating energy-generating elements into the architectural framework of these building applications, photovoltaic glass supports a cohesive design approach, integrating renewable energy seamlessly into the building’s exterior.
• Reduced Maintenance: The durability of photovoltaic glass reduces the need for frequent maintenance compared to conventional materials, as it is resistant to weathering and physical wear, providing a low-maintenance solution for high-exposure areas.