Adjustable Cladding Panel Mounting System
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Solution Overview
Problem
Traditional bricklaying methods are becoming prohibitively expensive and difficult due to the shortage of skilled bricklayers, and existing cladding systems face issues with heavy panels, inadequate cavity size, and the use of adhesives that can fail over time and release toxins in fires.
Innovation Solution
A cladding system featuring adjustable mounting means with separate building and cladding-panel mounting components, an intermediate mounting component for increased adjustability, and a non-combustible backing member made from materials like calcium silicate fibre cement, allowing for larger panel sizes and reduced onsite assembly time.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of manufacture
If traditional bricklaying methods are used, then the cladding provides a traditional brickwork appearance, but the cost and difficulty increase due to shortage of skilled bricklayers
Solution Approach 1:
The cladding system is divided into modular panels with standardized dimensions (e.g., 6m x 3m) that can be manufactured independently and assembled on-site. This segmentation allows for factory production of panels with pre-installed mounting components, eliminating the need for skilled bricklayers to construct each brick individually while maintaining the traditional brickwork appearance through the panel design.
Solution Approach 2:
The system creates a visual copy of traditional brickwork appearance through the panel design and mounting configuration, rather than using actual bricklaying. The panels are designed to replicate the aesthetic of traditional brick walls while using alternative materials and assembly methods that are easier to manufacture and install.
2Productivity
If larger cladding panels are used, then the number of panels reduces and transport cost decreases, but the panels become heavy and unwieldy
Solution Approach 1:
The panels utilize composite construction combining lightweight materials such as insulation boards (e.g., mineral wool, foam) with cladding materials. This composite structure achieves the required structural strength and insulation performance while minimizing weight, allowing larger panels to be handled and installed without requiring excessive manual labor or specialized equipment.
Solution Approach 2:
The system introduces intermediate mounting components (such as metal studs, rails, or attachment mechanisms) that mediate between the panel and the building structure. These intermediaries distribute the weight and provide secure attachment points, making the panels easier to handle and install while maintaining structural integrity, even when panels are larger and heavier.
3Ease of manufacture
If adhesives are used to attach brick slips to panels, then the installation process is simplified, but the adhesives can fail over time and release toxins in fires
Solution Approach 1:
The system replaces adhesive-based attachment with mechanical mounting systems. Metal studs, rails, clips, or other mechanical fasteners are used to attach the cladding panels to the building structure, providing a reliable, long-lasting connection that does not degrade over time like adhesives do. This mechanical system eliminates the risk of adhesive failure and toxin release in fire conditions.
Solution Approach 2:
The system introduces intermediate mounting components (metal studs, rails, attachment mechanisms) that mediate between the panel and the building structure. These intermediaries provide secure mechanical attachment, distributing loads and ensuring long-term durability without relying on adhesive bonds that can fail over time or in fire conditions.
4Ease of operation
If smaller cladding panels (0.5m2) are used, then the panels are easier to handle, but the onsite assembly time is drastically increased
Solution Approach 1:
The system segments the cladding into panels of optimized sizes (e.g., 6m x 3m) that balance handling capability with assembly efficiency. These larger panels reduce the number of individual units that need to be handled and assembled, significantly reducing onsite assembly time compared to small 0.5m2 panels, while still remaining manageable for installation crews.
Solution Approach 2:
The panels are pre-manufactured with mounting components, insulation, and cladding materials already integrated and secured. This preliminary preparation of complete assembly units in the factory eliminates time-consuming on-site assembly steps, allowing installers to simply attach the pre-configured panels to the building structure, thereby reducing overall installation time.
5Strength
If many mounting points are used to secure heavy panels, then the panels are securely attached, but the installation time and materials required increase
Solution Approach 1:
The panels utilize composite construction combining lightweight materials such as insulation boards with cladding materials, reducing the overall weight. This allows for fewer mounting points to be used while maintaining adequate security, as the reduced weight decreases the load requirements for each mounting connection.
Solution Approach 2:
The system introduces intermediate mounting components (metal studs, rails, attachment mechanisms) that mediate between the panel and the building structure. These intermediaries provide secure attachment with fewer connection points by distributing the load across multiple attachment locations and using robust mechanical fasteners, thereby reducing the total number of mounting points needed compared to direct panel-to-structure attachment.
Data Source
AI summary
A cladding system 2 for a building comprises a cladding panel 4, 6, 8 and a mounting means 16 for mounting the cladding panel 4, 6, 8 to a building structure. The mounting means 16 provides adjustability of the cladding panel 4, 6, 8 relatively to the building structure towards or away from the building and/or upwards or downwards with respect to the building and/or laterally with respect to the building. The cladding panel comprises a frame 10 and a backing member 12 mounted on the frame 10 wherein the backing member 12 is suitable for receiving covering elements thereto. The mounting means 16 comprises a building mounting component 20 to be mounted to the building during installation. The mounting means 16 further comprises a cladding-panel mounting component 22, 88 to be mounted to the cladding panel 4, 6, 8.


