Muraflex developed a configuration-driven digital workflow that transforms fragmented engineering, product and manufacturing knowledge into reusable digital logic. The system connects project requirements to BIM, automated documentation and fabrication outputs, reducing specialist handoffs, repeated data entry and inconsistencies while enabling scalable design-to-manufacturing workflows.
Across industrialized construction and product-based building systems, engineering and manufacturing knowledge is often fragmented across spreadsheets, drawings, databases, software platforms and individual specialists. Even when companies use BIM, ERP and fabrication tools, the logic connecting project requirements to product configuration and manufacturing frequently remains manual and person-dependent.
At Muraflex, this fragmentation was reflected in a workflow that moved sequentially through drafting, hardware, glass, aluminum and pre-production, requiring six different specialists. Information had to be repeatedly interpreted between departments and was manually re-entered at least three times.
This created multiple handoffs, dependency on specialist availability, inconsistent information between systems and difficulty scaling the process as project volume increased.
The challenge was to replace this fragmented, specialist-dependent workflow with a structured digital process capable of capturing engineering, product and manufacturing knowledge once and reusing it consistently from project requirements through configuration, BIM and fabrication.
The solution resolves this challenge by replacing fragmented, person-dependent decision making with a configuration-driven digital workflow in which engineering, product and manufacturing knowledge is captured once and reused throughout the design-to-manufacturing process.
At Muraflex, this approach has been implemented through a Revit-based configurator supported by structured product data, reusable decision rules and explicit compatibility mappings. The system determines valid product selections, dimensions, materials, hardware and fabrication conditions, then reuses the same configured information to generate coordinated BIM models, elevations, standardized details, quantities, hardware BOMs, glass fabrication data, aluminum cutting/CNC information and pre-production outputs.
AI-assisted field measurement processing extends the workflow by interpreting site information and applying engineering rules to recalculate dimensions, validate tolerances and update the parametric model.
A web-based estimator prototype extends the same logic upstream, using early project information to support configuration and estimation and to generate structured BIM outputs, including RVT and IFC.
The result is a continuous digital thread from project requirements to fabrication, reducing repeated interpretation, duplicate data entry and sequential departmental handoffs while making specialist knowledge reusable across projects.