This project explores the reconstruction of scan-derived dental geometry and its preparation for stable real-time rendering. The objective was not aesthetic reinterpretation, but controlled cleanup, topology correction, and material definition suitable for interactive visualization workflows.
Source Data Acquisition
The project originated from an intraoral dental scan capturing upper and lower dentition along with surrounding soft tissue. The initial dataset represented typical scan characteristics: high density, irregular triangulation, incomplete surfaces, and non-production topology.
Because the scan was delivered in its native project format, the first technical step involved inspecting and exporting usable geometry from the proprietary viewer environment.
Initial Geometry Assessment
Upon extraction, the raw mesh exhibited common scan artefacts:
• Excessively dense triangulated geometry
• Non-manifold regions
• Surface noise and micro-fragmentation
• Unusable topology for deformation or baking
At this stage, the mesh was treated strictly as reference data rather than production geometry.
Reconstruction & Topology Strategy
Reconstruction was performed in ZBrush, focusing on establishing:
• Clean surface continuity
• Predictable edge flow
• Controlled polygon density
• Removal of scan-induced artefacts
Rather than decimation or brute reduction, geometry was rebuilt to produce a structurally stable mesh appropriate for downstream baking and shading.
Dental Component Isolation
Individual teeth were isolated to resolve topology at the component level. This allowed:
• Localized topology control
• Accurate curvature preservation
• Independent detail projection
• Prevention of shading distortions
Segmentation ensured that high-frequency scan detail could be preserved without inheriting scan topology defects, high-resolution reconstruction data was used to transfer surface detail onto optimized meshes.
This stage established:
• Form fidelity retention
• Stable normal map generation
• Controlled surface smoothing behaviour
The result was a lightweight geometry set visually consistent with the source scan.
UV Mapping & Bake Preparation
UVs were generated using an automated approach prioritizing:
• Distortion minimization
• Even texel density
• Bake stability
This stage prepared the asset for material definition and shading refinement.
Material & Surface Definition
Material work focused on physically plausible surface response rather than stylization. Adjustments included:
• Subtle enamel variation
• Gum coloration behaviour
• Roughness calibration for wet tissue response
• Micro-surface breakup
Surface behaviour was tuned to remain credible under neutral lighting conditions.
Real-Time Look Development
Final evaluation and presentation were performed in Marmoset Toolbag to validate:
• Shading stability
• Specular response
• Subsurface interaction
• Lighting neutrality
The rendering context intentionally avoids cinematic lighting in favour of diagnostic clarity.
Supplementary Evaluation View
Additional viewpoints were included to support spatial readability and morphological interpretation of reconstructed structures.
Wireframe & Topology Verification
Wireframe inspection highlights the reconstructed topology and confirms structural cleanliness, controlled density, and edge flow predictability.
Workflow:
Documentation of the process.
Conclusion
This study demonstrates the transformation of raw scan data into a production-viable real-time asset through controlled reconstruction, topology correction, and material calibration. The workflow emphasizes geometric stability, anatomical coherence, and shading reliability rather than purely visual polish.
Supporting documentation and extended workflow notes / oversight are available upon request.































