Rethinking Masonry Support Design Under New Building Safety Regulations
The construction industry is undergoing a big shift in safety protocols and regulatory measures, with the introduction of the new Building Safety Regulations (BSR) representing a significant milestone in ensuring safer building practices. These changes are designed to enhance safety however, this shift necessitates an adaptation in cost flow and resource allocation, with an increased need for detailed understanding and coordination early in the design phase.
The Challenge
Under the new BSR, projects require a deeper level of design detail at earlier stages, altering the traditional workflow and cost distribution. This poses a significant challenge as many in the industry must adjust to these new demands, moving away from legacy processes to more proactive planning and execution.
Technological Solutions in Design Management
To navigate these challenges, design managers and engineers are encouraged to leverage cutting-edge technology to achieve a more coordinated and consistent design process. This article discusses technological innovations specifically for masonry support systems, aiming for a seamless progression through regulatory gateways without delays. A pivotal aspect of this approach is integrating data in a way that breaks down silos and enhances efficiency from the outset, as illustrated in Exhibit 1 below.
Strategic Approach to Coordinated Design
Understanding Context Conditions:
The design journey should start with a comprehensive assessment of inputs that influence the overall design. This includes both geometric data (like facade openings or slab edges) and tabular data such as wind loads. Such an early and thorough assessment is crucial for identifying specific needs and anticipating potential challenges.
Integrated Component Calculation:
Using automated tools, essential components like masonry support, cast-in channels, cavity trays, and fire barriers are calculated collectively as part of a unified system. Algorithmic solutions in configurator apps take project constraints as inputs, generating design solutions for review within the app and for subsequent use in the workflow.
Digital Libraries and Data Management:
After validation, these components are organised in a digital library via advanced platforms like Speckle and Shapedriver. These systems link vital documents such as datasheets, installation guides, and drawings to their respective digital objects, improving both accessibility and utility.
Implementation and Verification in Models:
Components stored in the digital library are precisely implemented into the overall project model. Rigorous verification ensures each component is correctly placed, aligning with both the design specifications and regulatory standards. Configuration data, whether for internal use or client-specific applications, can be exported in various formats—ranging from auto-assembled BIM models for construction to tabular data for broader analyses like cost or carbon content.
Focused Review of Critical Areas:
Particular attention should be paid to areas identified as critical, ensuring comprehensive review and adjustment on a case-by-case basis. This focus helps minimize the risk of project delays and ensures compliance with all standards.
Conclusion
The transition to new BSR protocols is not merely about compliance; it signifies a broader shift towards innovative design processes that enhance safety and efficiency. By integrating the latest technologies and rethinking traditional approaches, particularly in masonry support, the construction industry can effectively meet these challenges. This shift not only meets regulatory demands but also sets a new standard in construction practices, promoting a culture of safety and precision that benefits the entire industry.