From Hologram to Object: Surface Level Reconstruction through Digital Holographic Interferometry and 3D Printing of Phase Diagrams

Leandro Bertolluzi, Hernán A. Duarte, Celso Beltrame, Paula Marcuzzi, Fabio M. Vincitorio


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Base Information

Volume

V58 - N2 / 2025 Ordinario

Reference

51189

DOI

http://dx.doi.org/10.7149/OPA.58.2.51189

Language

Spanish

Keywords

Digital Holographic Interferometry (DHI),3D printing, Surface topography, Phase maps, Double refractive index.

Abstract

This paper presents a methodology combining Digital Holographic Interferometry (DHI) with 3D printing for submillimetric surface characterization. It demonstrates how DHI enables detailed, non-invasive surface measurements, generating 3D printable models from phase maps of worn samples. These models provide a tangible visual interpretation of topographic variations, aiding surface analysis. The paper describes the use of interferometry with a double refractive index to measure level differences from 1 µm to 300 µm and a lensless Fourier reconstruction algorithm to generate phase diagrams, later converted into STL files for 3D printing. Combining DHI and 3D printing simplifies complex surface studies and offers a practical alternative to traditional techniques like confocal or electron microscopy. The results highlight its potential for material and surface analysis.

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