SOLNEX BIPV Glass

Photovoltaic glass.
Designed into the building.

For commercial façades, entrances and roof glazing. Compare the complete BIPV assembly with the conventional material already in the brief.

Illustrative high-rise tower with a glass-first BIPV curtain-wall concept
Concept / Building-scale application
BIPV glass concept detail with fine linear traces and an aluminium mullion
Concept / Material-scale illustration

Architectural images are illustrative concepts, not completed SOLNEX projects or evidence of a particular glass product. Appearance, performance and suitability depend on the selected product and project.

BIPV Glass Families

Material pathways selected around the architectural and technical brief.

Opaque PV Glass

Spandrels, opaque façade zones and architectural cladding applications.

Semi-transparent PV Glass

Applications where daylight and energy generation need to be balanced.

Vision / Feature Solar Glass

Selected architectural glazing applications requiring higher transparency.

Canopy & Roof Solar Glass

Atriums, canopies, skylights and overhead glazing applications.

Product availability, glass build-up, optical performance and electrical characteristics are confirmed against the project brief.

Final glass build-up, electrical characteristics, structural requirements and certification are project-specific.

Understand the material

Solar glass is not ordinary glazing.

A dual-purpose building element

BIPV glass contains photovoltaic material and also performs a building function. A glazed façade is not BIPV simply because the building has rooftop PV. The chosen assembly must resolve both roles.

Vision glass and opaque zones

Assess daylight and views separately from non-vision façade zones. Do not assume every glazed panel can generate electricity or that a concept image represents the transparency of an available product.

Compare three options

Compare conventional glazing, suitable BIPV glazing and roof-mounted PV against the same project brief. For planned replacement glass, include the material cost actually displaced—not the cost of an entire façade that still needs framing and installation.

Technical background: IEA PVPS / BIPV definitions ↗

Application first

Choose the building element.

Illustrative facade with distinct vision glazing and photovoltaic spandrel zones; not a specified assembly
Concept / Vision and non-vision zones

Selected façade zones

Start with finish, façade rhythm and the construction behind the glass. Add daylight and outlook where views matter.

Illustrative entrance canopy with photovoltaic cells spaced within overhead glazing; not a product sample
Concept / Photovoltaic entrance glazing, not a specified assembly

Canopies & entrances

Coordinate glazing, weather protection, structure, drainage and electrical access.

Illustrative retail atrium with daylight through an architectural solar-glass roof
Concept / Daylight and roof glazing

Roof glazing & atria

Balance daylight, solar gain, overhead safety, maintenance and generation.

Material selection

Specify the complete glass assembly.

Appearance & daylight

Define colour, reflection, pattern, view and measured visible-light transmission. Review a physical sample.

Glass & building performance

Record layers, thickness, interlayers, cavity, dimensions, weight, U-value, solar heat gain and required safety performance.

Electrical characteristics

Request rated output, test conditions, voltage, current, connection details and inverter configuration.

Evidence & service life

Match the product reference to datasheets and reports. Record revisions, warranty, availability and maintenance access.

Integration

Resolve the interfaces early.

System connections

From generation to building use.

Illustrative BIPV glass connectionsAn illustrative electrical topology: BIPV glass supplies an inverter through a DC route. The inverter supplies AC to the switchboard. Building loads and the grid connect separately to that switchboard.BIPV glassLocal DC collectionString inverterDC to ACMain switchboardAC connection pointBuilding loadsUse on siteGridImport / exportDCAC
  1. BIPV glassDC generation
  2. String inverterConverts DC to AC
  3. Main switchboardAC connection point
  4. Building loadsElectricity used on site

At the switchboard: ↔ Grid

DC generation AC distribution · ↔ two-way connectionIllustrative connections, not live energy data.
Design notes

Glass connections and DC collection routes require product-specific coordination. Metering, protection and isolation are omitted. Backup requires a separately designed arrangement. This is not a construction drawing.

Façade team

Resolve glass, framing, seals, structure and replacement access.

Electrical team

Resolve cable routes, isolation, protection, inverter location, metering and connection.

Owner & project team

Agree access, document ownership, warranty boundaries and coordination.

Feasibility

Not every surface is the right surface.

Start with solar access

Model orientation and shading on the actual façade; do not copy a roof estimate across every elevation.

Compare against the baseline

For new or replacement elements, compare with the material already planned. Count only costs actually displaced.

Allow for the full lifecycle

Include coordination, electrical works, cleaning, access, replacement and energy-use assumptions.

Before detailed design

Bring a useful brief.

Discuss material options with SOLNEX. Product availability, samples, lead times and the proposed supply scope are confirmed for the enquiry before specification.

Start with your building and its glass.

Discuss Your Project