VITRAIL: Acquisition, Modeling, and Rendering of Stained Glass

Stained glass windows are designed to reveal their powerful artistry under diverse and time-varying lighting conditions; virtual relighting of stained glass, therefore, represents an exceptional tool for the appreciation of this age old art form. However, as opposed to most other artifacts, stained...

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Veröffentlicht in:IEEE transactions on image processing 2016-10, Vol.25 (10), p.4475-4488
Hauptverfasser: Thanikachalam, Niranjan, Baboulaz, Loic, Prandoni, Paolo, Trumpler, Stefan, Wolf, Sophie, Vetterli, Martin
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container_issue 10
container_start_page 4475
container_title IEEE transactions on image processing
container_volume 25
creator Thanikachalam, Niranjan
Baboulaz, Loic
Prandoni, Paolo
Trumpler, Stefan
Wolf, Sophie
Vetterli, Martin
description Stained glass windows are designed to reveal their powerful artistry under diverse and time-varying lighting conditions; virtual relighting of stained glass, therefore, represents an exceptional tool for the appreciation of this age old art form. However, as opposed to most other artifacts, stained glass windows are extremely difficult if not impossible to analyze using controlled illumination because of their size and position. In this paper, we present novel methods built upon image based priors to perform virtual relighting of stained glass artwork by acquiring the actual light transport properties of a given artifact. In a preprocessing step, we build a material-dependent dictionary for light transport by studying the scattering properties of glass samples in a laboratory setup. We can now use the dictionary to recover a light transport matrix in two ways: under controlled illuminations the dictionary constitutes a sparsifying basis for a compressive sensing acquisition, while in the case of uncontrolled illuminations the dictionary is used to perform sparse regularization. The proposed basis preserves volume impurities and we show that the retrieved light transport matrix is heterogeneous, as in the case of real world objects. We present the rendering results of several stained glass artifacts, including the Rose Window of the Cathedral of Lausanne, digitized using the presented methods.
doi_str_mv 10.1109/TIP.2016.2585041
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subjects Banded matrices
computational relighting
cultural artifacts
Dictionaries
dictionary learning
Glass
Illumination
Light (illumination)
light transport
Lighting
Marketing
Rendering
Rendering (computer graphics)
Scattering
Scientific apparatus & instruments
sparse recovery
Stained glass
Transmission line matrix methods
Transport
Windows
title VITRAIL: Acquisition, Modeling, and Rendering of Stained Glass
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