Experiencing the Untouchable: A Method for Scientific Exploration and Haptic Fruition of Artworks Microsurface Based
Sara Mazzocato1, Claudia Daffara1
1Department of Computer Science, University of Verona, Strada le Grazie 15, 37134 Verona, Italy.
Sensors (Basel, Switzerland)
|July 2, 2021
Summary
Conoscopic holography sensors capture micro-scale surface details of artworks for 3D printing. This enables tactile exploration for the visually impaired and aids in scientific visualization for art conservation.
Area of Science:
- Art conservation science
- Holography
- 3D printing technologies
Background:
- Tactile exploration is crucial for understanding object surfaces, especially artworks.
- Current methods limit tactile interaction with delicate or inaccessible art surfaces.
Purpose of the Study:
- To demonstrate conoscopic holography for high-resolution artwork surface acquisition.
- To enable tactile use of artworks for visually impaired individuals.
- To provide a tool for scientific visualization of artwork microsurfaces for conservation.
Main Methods:
- Utilizing conoscopic holography sensors for micro-scale surface data acquisition.
- Developing a workflow for 3D printing of multiscale and polychrome artworks.
- Validating the method on Italian masterpieces like Donatello's "Death of Christ" and Tintoretto's "St. Martial in Glory."
Main Results:
- High-quality surface data acquisition up to the micro-scale was achieved.
- A validated workflow for creating 3D printed tactile replicas was established.
- The potential for innovative scientific visualization of artwork microsurfaces was demonstrated.
Conclusions:
- Conoscopic holography offers a novel approach for detailed artwork surface analysis.
- 3D printed replicas facilitate haptic engagement with art for accessibility and education.
- This technology serves as a valuable resource for art conservation and scientific study.
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