
1. Project Scope & Objectives
Parametric modeling of stone panels aligned with architectural design intent.
Structural integration of aluminum/steel support profiles and anchors per manufacturer specifications.
Production of 2D technical drawings with fabrication notes (tolerances, sequencing, waterproofing).

2. Methodology & Workflow
a) Data Collection & Setup
Analyzed architectural layer information and panelization strategies.
Incorporated manufacturer's anchor types, substructure details,
and tolerances into Revit standards.
Developed custom Revit families for stone panels and support components.

b) BIM Modeling in Revit
Stone Panel Modeling:
Used adaptive components for variable panel sizes and irregular geometries.
Defined material properties (texture, thickness, joint spacing) for LOD 400.
Support System Integration:
Modeled load-bearing profiles and seismic-compliant anchors (Cregg Stone specs).
Conducted clash detection with MEP/insulation layers.

c) Technical Documentation
Generated 2D detail sheets including:
Annotated plans/elevations with dimensional control.
Exploded axonometrics and sections of critical anchorages.
Installation guidelines (İsolation, panel numbering, tolerances).
Embedded BIM data (material codes, tags).
d) Quality Assurance
Verified model against architectural drawings and structural constraints.
Coordinated with Cregg Stone to validate manufacturing feasibility.
3. Deliverables
Revit Model (LOD 400 with nested families for panels + supports).
2D Construction Documents (PDF/DWG – fabrication & ready for site).
3D Visualizations (assembly sequences, detail callouts).
4. Key Challenges & Solutions
Challenge: Aligning irregular stone panels at façade transitions.
Solution: Automated layout optimization via Revit schedules & scripts.Challenge: Anchor conflicts at concrete interface zones.
Solution: Real-time Revit coordination with structural team + revised spacing.
5. Conclusion
This project exemplifies BIM-driven design-to-fabrication workflows for high-performance stone cladding, ensuring precision from digital model to physical construction.