Specifying a glass rainscreen facade in the post-Grenfell regulatory environment is no longer a straightforward aesthetic decision. Architects and facade consultants working on projects in London, Dubai, and across the wider UK market are required to balance design intent with Approved Document B compliance, CWCT performance standards, programme pressures, and client expectations — often with limited time to evaluate every system on the market.
This guide is written for that audience. It covers how glass rainscreen cladding works, where it is specified, the fire and compliance standards that govern its use in the UK, the design and aesthetic options available, and how it compares to alternative facade systems. Dynamic Cladding’s DynaPanel Glass range is referenced throughout as a specification benchmark which is an A1 to EN13501-1 Non-Combustible glass rainscreen system tested and certified for UK and international projects.
By the end of this guide, you will have a clear framework for evaluating whether glass rainscreen cladding is the right specification for your project, and the technical reference points to justify that decision to clients, regulators, and procurement committees.
Table of Contents
What Is Glass Rainscreen Cladding?
Glass rainscreen cladding is a ventilated facade system that uses toughened or laminated glass panels as the outer weather-defence layer of a building envelope. The glass panels are mechanically fixed to an aluminium sub-structure, with a drained and ventilated cavity behind them that separates the outer skin from the insulated backing wall.
Unlike traditional glazing systems, the glass panels in a rainscreen do not form a sealed, air-tight envelope. They act as the primary barrier against wind and rain, while the cavity behind handles any moisture that penetrates the outer layer, draining it safely away and allowing continuous airflow. This two-layer principle is what defines a rainscreen — and what distinguishes it from other glazing approaches architects often evaluate alongside it.
How a ventilated facade system works
A ventilated glass rainscreen works on the principle of pressure equalisation. The cavity behind the outer glass is vented to the atmosphere, which balances air pressure across the panel and minimises moisture penetration through the joints.
Any water that does enter the cavity drains safely away at the base, while continuous airflow keeps the cavity dry and protects the insulation and structural wall behind. The outcome is a facade that actively manages moisture rather than trying to seal it out which is the reason ventilated rainscreens consistently outperform sealed systems on long-term durability.
Glass rainscreen vs. curtain walling: the key distinction
Glass rainscreen cladding and curtain walling are frequently confused, but they perform different roles. Curtain walling is a sealed, self-supporting glazed envelope that acts as the building’s primary weather and thermal barrier. Glass rainscreen cladding is a non-loadbearing, non-sealed outer skin that sits over a separate insulated backing wall — typically used for spandrels, cores, and feature panels rather than vision glazing.
On most commercial projects the two systems are specified together. For a full breakdown of when to specify each — including where coloured rainscreen panels outperform traditional curtain walling on cost and design flexibility — see our comparison of coloured glass rainscreen and traditional glass curtain walling [cluster URL to be added once published].
Where Glass Rainscreen Cladding Is Specified
Glass rainscreen cladding is specified where a project demands the aesthetic and performance qualities of glass on the external envelope but requires the fire safety, moisture management, and lifecycle benefits of a ventilated rainscreen system. In the UK, Europe and the global markets, the system is most commonly specified across three project categories.
Commercial and mixed-use developments
Office towers, retail developments, and mixed-use schemes are the largest specification market for glass rainscreen. The system is typically used for spandrel panels between curtain walling floors, feature facades on podium levels, and core wall claddings — anywhere the architectural intent calls for a reflective, coloured, or printed glass aesthetic without the cost or thermal complexity of full vision glazing.
Public sector and infrastructure
Transport hubs, civic buildings, healthcare facilities, and education projects specify glass rainscreen where design quality, compliance, and durability are scrutinised by public procurement.
In higher-risk infrastructure — airports, rail stations, and security-sensitive public buildings — blast-resistant glass rainscreen systems tested to ISO 16933:2007 become a specification requirement rather than an option. More on fire and blast certification below, or see our guide to fire and blast resistant cladding for the full picture.
High-end residential
Premium residential developments in London, Dubai, and other international markets specify glass rainscreen for feature facades, penthouse levels, and podium entrances where clients expect a high-specification exterior finish. Rear ceramic frit coated- (back-painted) as it’s commonly known or digitally printed glass panels give developers a design language that differentiates the building in a competitive residential market, while also meeting the fire compliance requirements that apply to residential buildings over 11 metres.
Fire Safety and Compliance Requirements in the UK
Fire performance is the single most consequential factor in specifying any rainscreen system in the UK. Since the introduction of the Building (Amendment) Regulations 2018 and the ongoing revisions to Approved Document B, the regulatory environment around external wall construction has become the most rigorously scrutinised area of a building’s specification. For glass rainscreen systems, compliance is assessed at both component and system level.
Approved Document B and the combustibles ban
Under Approved Document B, buildings with a storey 18 metres or more above ground level — and, since the November 2022 amendment, buildings between 11 and 18 metres in certain residential uses — are subject to the ban on combustible materials in external wall construction. Every material in the external wall build-up must achieve European fire classification A2-s1, d0 or better, tested to EN 13501-1.
Glass itself is inherently non-combustible, but a glass rainscreen system includes fixings, carriers, insulation, membranes, and cavity barriers — and every one of these elements must meet the combustibles requirement for the system as a whole to comply. This is where product specification matters: a glass panel rated A1 is meaningless if the supporting system components have not been tested and classified at the same level. DynaPanel Glass is specified as a complete A2-s1, d0 system, with component-level classifications documented for every element in the build-up.
BS 8414 system testing vs EN 13501-1 component rating
Two standards govern fire performance of rainscreen systems in the UK, and they test different things.
EN 13501-1 classifies individual products for reaction-to-fire at component level — this is where A1 and A2 classifications come from. It tells you how a single material performs in isolation.
BS 8414 tests the behaviour of a complete wall build-up when exposed to a severe external fire. A full-scale test rig is constructed using the exact specification intended for the project, and the system is assessed for fire spread up the facade. Systems that pass BS 8414 to the performance criteria in BR 135 can be specified on buildings over 18 metres where a desktop study or combustibles compliance route is not being used.
For most specifiers, the cleanest compliance route is to specify a system where every component achieves A1 or A2 s1,d0 to EN 13501-1 — removing the need to rely on BS 8414 evidence at all. Both routes are valid; the A2 s1,do or A1 is the better route and is more defensible in a regulated environment. Full test evidence, including EN 13501-1 classification reports and BS 8414 certification where applicable, is available in Dynamic Cladding’s technical library.
CWCT, BBA and EOTA compliance for rainscreen systems
Beyond the fire regulations, two additional technical benchmarks give specifiers confidence in a glass rainscreen system’s overall performance.
CWCT (Centre for Window and Cladding Technology) is the UK industry body whose Standard for Systemised Building Envelopes sets the benchmark for weather-tightness, structural performance, and durability testing. A glass rainscreen system that has been tested to CWCT standards has demonstrated it can meet UK weather and wind-load conditions on a real building.
The European Organisation for Technical Assessment (EOTA) facilitates the issuance of European Technical Assessments, which serve as vital evidence of compliance with the Construction Products Regulation (CPR).
In the UK market, the British Board of Agrément (BBA) acts as a cornerstone institution—frequently cited as a de facto regulator in the context of product approval—by rigorously validating the performance, safety, and regulatory alignment of construction materials.
For stakeholders, a BBA or EOTA-approved rainscreen system signifies that the product has been vetted against a common UK & European framework; this provides UK specifiers with a trusted benchmark for quality while remaining an essential requirement for architects managing projects in international markets.
DynaPanel Glass is specified as a CWCT-tested and EOTA-compliant system, with full documentation available to support NBS or CSI specification and Building Control submission.
Ready to specify with confidence? Dynamic Cladding’s technical team provides project-specific guidance on glass rainscreen fire compliance, CWCT testing, and system specification. Book a specification consultation →
Design and Aesthetic Options
Glass rainscreen cladding offers a broader design palette than almost any other facade system. The material itself can be coloured, digital printed with images, or surfaced finished to achieve visual effects that are impossible in stone, metal, or composite panels. The panels are manufactured off-site to exact project dimensions, ready for installation which means architects retain full control over the visual outcome from specification through to project completion.
Enamelled Frit Coated and back-painted glass finishes
Enamelled glass, also known as back-painted glass, is manufactured by applying a ceramic frit coating to the rear surface of a shaped pane. This coating is then fired at high temperatures, which fuses the frit to the glass creating the desired effect while simultaneously tempering the pane to create a durable safety glass. The result is a permanently coloured glass panel that will not fade, chalk, or discolour over the building’s lifecycle, even under UV exposure in severe climates.
DynaPanel Glass is available in the full RAL palette and a range of metallic finishes, giving architects colour specification flexibility on par with powder-coated metal facades but with the depth and reflectivity that only glass delivers.
Digital photorealistic printing
Bring any vision to life with digital ceramic printing. This technology transfers high-resolution photographs and bespoke motifs directly onto the rear face of glass panels, where they are fired into a permanent finish. Because the image is printed in reverse, it is viewed through the glass—providing a stunning visual effect that is naturally protected from the elements and will never fade due to UV exposure.
This capability is particularly valuable for public sector buildings with wayfinding or cultural programmes, retail developments with branded facades, and landmark projects where the exterior is part of the architectural statement rather than a neutral backdrop. It is a finish capability that puts glass rainscreen in a design category of its own among rainscreen systems.
Bespoke sizing and custom specifications
Every DynaPanel Glass panel is manufactured to project-specific dimensions using CNC-engineered precision. The frameless panel sizes, edge details, corner treatments all specified to match the facade design rather than forcing the design to fit standard module sizes. For architects working on complex geometries, feature walls, abnormal shapes or projects where the facade rhythm matters, this level of bespoke control is what makes glass rainscreen viable where standard panel systems would compromise the design intent.
DynaPanel Glass is specified for projects ranging from standard rectangular panels on commercial towers to fully bespoke printed facades on landmark public buildings — with the same fire, CWCT, and EOTA performance across the range.
Glass Rainscreen System Components and Build-Up
A complete glass rainscreen system is more than the visible glass panel. Specifying one correctly means understanding how every layer — from the supporting wall through to the outer glass — performs as a coordinated system. For architects writing NBS or CSI specifications or coordinating with facade consultants, a clear mental model of the build-up is the starting point for every technical conversation.
Glass panel specification and safety
The outer panel is typically 6mm or 8mm toughened safety glass, heat-soak tested to minimise the risk of spontaneous breakage from nickel sulphide inclusions.
For projects where safety or overhead risk requires it, such as public areas, high-footfall zones, or panels at height, the glass is laminated to a backer element with a full coverage of adhesive or a safety interlayer that holds fragments in place if the panel is ever damaged.
Glass panel specification is driven by project context: the wind load, the mounting height, the end-user environment, and the risk assessment determine whether toughened, toughened heat-soaked, or laminated glass is required.
Fixing and support systems
Glass rainscreen panels are mechanically fixed to an aluminium sub-frame, typically using undercut anchors drilled into the rear face of the glass, integrated sockets into a rear backer element or framed carriers that grip the panel edges. The aluminium sub-frame is fixed back to the structural wall through thermally broken brackets that minimise cold-bridging into the insulation layer.
The fixing system is the element most often under-specified at design stage and most often responsible for compliance failures. Every component in the fixing path including the anchors, brackets, rails and fasteners must meet the A1 or A2 fire classification for the system as a whole to comply with Approved Document B. A mechanically sound but untested fixing system is not a compliant system.
Insulation and cavity requirements
Behind the sub-frame sits the insulation layer, fixed to the structural wall. In UK applications over 11 metres, this is almost always non-combustible mineral wool with an A1 to EN13501-1 classification.
A breather membrane protects the insulation from incidental moisture while allowing water vapour to escape from the structural wall. The cavity between the insulation and the rear face of the glass is typically 25–50mm, sized to allow pressure equalisation and drainage without compromising the facade’s structural performance in high winds.
Cavity barriers, horizontal and vertical, are specified at compartment lines to prevent fire spread within the cavity itself. These are as much a part of the rainscreen system as the glass panel and must be specified to match the fire performance of the rest of the build-up.
How Glass Rainscreen Compares to Alternative Facade Systems
Most architects evaluating glass rainscreen are weighing it against other facade systems rather than selecting it in isolation. The three most common comparisons are against curtain walling, stone rainscreen, and other rainscreen materials such as GRC, metal composite, or vitreous enamel.
Glass rainscreen vs. curtain walling
The distinction between rainscreen and curtain walling is covered earlier in this guide, but the specification questions most architects face is when to choose one over the other. Curtain walling is the correct specification for vision areas where daylight, views, and thermal envelope performance are the priorities. Glass rainscreen is the correct specification for spandrel areas, cores, feature panels, and any glazed surface where the glass is not functioning as vision glazing.
On a typical commercial tower, specifying both, curtain walling for vision and glass rainscreen for spandrel is significantly more cost-effective than running curtain walling across the full facade. It also opens coloured, printed, and enamelled finish options that curtain walling cannot deliver. Our upcoming comparison of coloured glass rainscreen and traditional glass curtain walling [cluster URL to be added] covers the cost and design flexibility implications in detail.
Glass rainscreen vs. stone rainscreen
Glass and stone rainscreen systems serve different architectural intents but compete directly on certain project types — particularly landmark commercial, civic, and high-end residential buildings where the architect has flexibility on the facade aesthetic.
Glass delivers reflectivity, colour saturation, and printed graphic capability that stone cannot. Stone delivers material weight, natural variation, and a tactile quality that printed glass cannot replicate. The choice is usually driven by the architectural language of the project rather than performance as both systems achieve comparable fire, wind loading, and lifecycle performance when specified correctly.
For projects where the architect wants the aesthetic of natural stone without the structural load of traditional stone cladding, DynaPanel Stone is a lightweight rainscreen alternative, engineered to be up to 60% lighter than traditional solid stone panels, significantly reducing structural load. See our natural stone rainscreen cladding guide for the full specification detail.
Glass rainscreen vs. other rainscreen materials
Against GRC (glass-reinforced concrete), metal composite panels, and vitreous enamel rainscreen, glass occupies a specific position: the premium aesthetic option with the broadest finish range and the strongest performance credentials when correctly specified.
GRC offers a cast, sculptural aesthetic at lower cost but cannot match glass on reflectivity or finish variety. Metal composite panels are cost-effective and widely available but carry historical fire compliance baggage that makes A1 to EN13501-1 fire rated glass panels the safer specification choice on buildings over 11 metres.
Vitreous Enamel — including DynaPanel Vitreous Enamel — offers a comparable colour palette to glass systems but delivers a different visual effect, it is often specified alongside glass rainscreen on the same project for its robustness and cost-efficient coverage.
Specifying the right mix of materials across a single facade is one of the areas where facade consultants and manufacturers like Dynamic Cladding add the most value — the question is rarely which single material to use, but how to combine them to deliver the design intent within the project’s budget and compliance requirements.
Installation Considerations and Programme Benefits
Facade programme is one of the most common pressure points on commercial and public sector projects. A late or delayed facade package holds up the weather-tight date, internal fit-out, and handover, which makes the installation speed and predictability a material factor in specification decisions, not just a contractor concern.
Glass rainscreen cladding installs faster than most comparable facade systems. The frameless panels arrive on site prefabricated to the exact dimensions, with fixings pre-engineered and sequencing worked out at the shop drawing stage. The installation process is mechanical rather than wet-applied with no curing times or weather-dependent application windows, allowing for a predictable daily output for the installation crew, once the sub-frame is installed and ready to receive the panels.
For typical commercial applications, the installation sequence runs in a consistent order. Once the structural wall is completed and ready to receive the rainscreen cladding, the setting out for the helping hand brackets is completed. The brackets are then installed following with the T-profiles or L-angles which are fixed to the brackets at the correct horizontal spacings and depth to create the desired wall off-set. The thermal insulation is usually fitted at this stage and the breather membrane, depending on the rainscreen type, horizontal rails are fixed across the T-profiles to allow for the panel mounting which has a rear attached hanger rail affixed. Cavity barriers at compartment lines and fire stopping details are concluded according to the details specific drawing at this stage. The glass panel is then installed starting from the bottom panel working upwards to the top. Each stage can be inspected and signed off, and the weather-tight progress can be measured, which matters for main contractor programme management and for phased handover on large buildings.
The glass rainscreen cladding installation process also benefits from strong coordination upfront. Dynamic Cladding’s technical team works with architects, facade consultants, and main contractors from design development through to site installation, resolving interface details with curtain walling, window systems, parapets, and soffits before they become site issues. For the kind of complex, high-value projects where glass rainscreen is typically specified, this coordination is often the difference between a facade package that runs to programme and one that doesn’t.
Sustainability and Lifecycle Performance
Facade specification is increasingly evaluated against sustainability criteria — embodied carbon targets, operational energy performance, material durability, and end-of-life considerations. Glass rainscreen cladding performs well across each of these when specified as part of a properly designed ventilated facade system.
The ventilated cavity itself delivers measurable operational energy benefits. Continuous airflow behind the outer glass reduces solar heat gain on the building’s structural wall in warm conditions and allows the insulation layer to work at optimum performance year-round. Over the lifecycle of a commercial building, this translates into reduced cooling loads and lower operational energy consumption, particularly relevant on south-facing facades.
On embodied carbon, glass rainscreen compares favourably with heavier facade systems. The panels are manufactured in controlled factory conditions with predictable material efficiency, and the lightweight nature of the system reduces the structural steel or concrete required in the supporting frame. Lightweight panels also reduce transport emissions compared with traditional stone or concrete cladding — a factor that matters for projects where embodied carbon is being measured against RIBA 2030 Climate Challenge targets.
Durability is where glass rainscreen delivers its strongest sustainability case. Toughened safety glass with a ceramic frit fired finish has a service life measured in decades with minimal maintenance, there is no repainting, no recoating, no surface degradation from UV or pollution. The ventilated cavity protects the insulation and structural wall from moisture damage, extending the lifecycle of the whole envelope rather than just the outer skin. Over a 50-year building lifecycle, a correctly specified glass rainscreen system is one of the lowest-maintenance facade options on the market.
For the full sustainability context across Dynamic Cladding’s product range, including embodied carbon comparisons and thermal performance data, see our guide to sustainable cladding materials.
Specifying Glass Rainscreen Cladding: What to Include in Your NBS Specification
Writing a glass rainscreen specification that will pass Building Control, satisfy the facade consultant, and give the main contractor a clear basis for pricing, requires every performance requirement to be stated explicitly. Incomplete specifications are where most facade disputes originate on site, during value engineering exercises and at Building Control review.
A complete NBS specification for glass rainscreen cladding should address the following clauses as a minimum:
The Panel specification. Manufacturers details and the product type. Glass type (toughened safety glass or laminated), heat-soaked tested or not, glass or panel thickness, edge treatment (framed or unframed), finish type (clear, enamelled with specified RAL or metallic reference, digitally printed with artwork reference, or bespoke). Face surface treatment, standard, acid etched or sand blasted for an anti-reflective finish etc. Dimensional tolerances and panel sizing strategy.
Fire performance. Reaction-to-fire classification at component level (EN 13501-1, stating A1 or A2-s1, d0 minimum), system-level test evidence where required (BS 8414 / BR 135), and compliance with Approved Document B. Cavity barrier specification at compartment lines.
Structural performance. Wind load design in accordance with BS EN 1991-1-4, impact resistance to relevant CWCT categories, and fixing pull-out values for the specified substrate.
Weather performance. Testing to CWCT Standard for Systemised Building Envelopes, including air permeability, water-tightness under static and dynamic conditions, and resistance to wind-driven rain.
Fixing and support system. Sub-frame material and profile, bracket specification including thermal break, fixing type and spacing, and compliance of every component with the system-level fire classification.
Insulation and cavity. Insulation type, thickness, and EN 13501-1 classification. Cavity depth, ventilation openings, and drainage provision. Breather membrane specification.
Installation and workmanship. Reference to manufacturer installation guidelines, site storage and handling requirements, tolerances, and sign-off procedure at each stage.
Certification and test evidence. Documentary evidence required at submittal stage — EN 13501-1 reports, BS 8414 certification where applicable, CWCT test reports, BBA or EOTA European Technical Assessment, and declaration of performance.
Dynamic Cladding’s technical documentation includes full system datasheets, test certificates, and NBS-ready specification clauses for DynaPanel Glass. For project-specific documentation — including NBS clauses tailored to a specific wall build-up, wind-load calculations for a specific building, or bespoke fire test evidence — request technical data for your project and the technical team will respond with documentation matched to your specification requirements.
Frequently Asked Questions
What fire rating is required for glass rainscreen cladding on UK buildings?
Under the combustibles ban detailed in Approved Document B, specific fire safety requirements apply to the external wall construction of buildings. For structures with a storey height of 18 metres or more, and for residential buildings between 11 and 18 metres, every component must achieve a European fire classification of A2-s1, d0 or higher, tested to EN 13501-1. While glass is inherently non-combustible, the entire assembly—including fixings, sub-frames, insulation, membranes, and cavity barriers—must meet this rigorous standard to ensure compliance. DynaPanel Glass is engineered and specified as a complete, fully compliant A1 system to EN13501-1.
How does glass rainscreen cladding differ from curtain walling?
Curtain walling is a sealed, self-supporting glazed envelope that forms the primary weather barrier and thermal envelope of a building. Glass rainscreen cladding is a non-loadbearing, non-sealed outer skin fixed over a separate insulated backing wall, with a ventilated cavity behind. Curtain walling is specified for vision areas where daylight and views are the priority; glass rainscreen is specified for spandrels, cores, and feature panels where the glass is an aesthetic and weather-defence layer rather than vision glazing. Most commercial buildings specify both systems together.
What is the typical cost range for glass rainscreen cladding?
Glass rainscreen cladding is a premium specification, typically priced between mid-range metal rainscreen and traditional stone cladding per square metre installed. Costs vary significantly based on the panel finish (clear, enamelled, or printed), panel sizing, fixing complexity, and project scale. For a realistic cost indication for a specific project, request a specification consultation — the technical team can provide a budget cost based on your wall build-up, facade area, and finish requirements. You may be quite surprised how cost-effective Dynamic Claddings DynaPanel Glass system really is.
How long does glass rainscreen cladding take to install?
Installation rates depend on panel size, fixing system, access, and coordination with other trades, but glass rainscreen is typically among the faster rainscreen systems to install because the panels arrive prefabricated to the exact dimensions with pre-engineered fixings. A competent installation crew on a well-coordinated site can achieve predictable daily outputs once the sub-frame is set out. The larger programme benefit is predictability, the installation is mechanical rather than wet-applied, with no curing times or weather-dependent application windows.
What are the typical lead times for DynaPanel Glass?
Lead times vary by project scope, finish specification, and the project panel quantity. Standard panel specifications can typically be delivered within 8–10 weeks of the approved shop drawings. The sub-framing system is always in-stock and can be dispatched prior to the panel delivery, this allows the project to be ready for the panel installation as soon as they arrive on the site, rapidly accelerating the project completion. Bespoke and unique design finishes or digital design can require longer lead times as the required coordination between Dynamic Cladding and the designer is more in-depth. Early engagement with the technical team at the design development stage is the best way to ensure the façade programme timeframe is achieved.
Explore the Glass Rainscreen Cladding Topic in Depth
This guide is the entry point to Dynamic Cladding’s full resource set on glass rainscreen cladding. For deeper technical, product, and comparison content, explore the resources below.
Product ranges
DynaPanel Glass — the A1 to EN13501-1- non-combustible glass rainscreen system referenced throughout this guide, available in enamelled RAL and metallic finishes, digitally printed glass, and bespoke sizing.
DynaPanel Stone — lightweight natural stone rainscreen system. An A2-s1, d0 non-combustible fire rated panel system that is up to 60% less of the weight of a traditional stone cladding system. Often specified alongside glass rainscreen on mixed-material facades.
DynaPanel Vitreous Enamel — vitreous enamel rainscreen panels offering a comparable colour palette to enamelled glass, frequently specified for ultra-durable requirement areas on high traffic projects.
Related guides
Fire and blast resistant cladding — full coverage of fire certification, BS 8414 system testing, and blast-resistant specifications tested to ISO 16933:2007 for high-security infrastructure.
Natural stone rainscreen cladding — specification guidance for stone rainscreen systems, including the comparison between lightweight DynaPanel Stone and traditional stone cladding.
Sustainable cladding materials — embodied carbon, thermal performance, and lifecycle data across Dynamic Cladding’s product range.
Book a Specification Consultation
Glass rainscreen cladding rewards early technical engagement. The earlier the facade specification is pressure-tested against the project’s compliance, programme, and design requirements, will result in fewer surprises during Building Control review, pricing, and installation.
Dynamic Cladding’s technical team and sales partners work with architects, facade consultants, developers, and main contractors across the UK and international markets. The team provides system guidance, NBS-ready specifications, fire and CWCT test evidence, sample availability and mock-up samples, and coordination support from design through to the site completion.
Whether you are evaluating a glass rainscreen against curtain walling or a different system on an early-stage commercial tower, pressure-testing an A1 compliance route on a residential building over 18 metres, or specifying a digitally printed facade for a landmark public project, a specification consultation is the quickest way to get project-specific answers from a technical team that specifies glass rainscreen systems every day.
Book a specification consultation →
Prefer to review the technical details first? Request glass rainscreen technical documentation datasheets, fire test evidence, CWCT reports, and NBS-ready specification clauses for DynaPanel Glass, delivered to your inbox.
